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      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/218/150-natural_fibers-2010.JPG</video:thumbnail_loc>
      <video:title>Introduction to Natural Fibers &amp;amp; Biocomposites</video:title>  
      <video:description> The aim of this video is to provide a  comprehensive introduction  to  natural fibers , their use as  reinforcements  and  fillers  with plastics in  biocomposites , and how to  start manufacturing  and  using  them. 
  
Our expert Kevin Thomson will provide viewers with the knowledge they need to  evaluate the opportunities  presented by biocomposites and take the first steps towards entering this  rapidly growing market . </video:description>
      <video:publication_date>2010-07-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

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      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/216/150-polymer_degradation-2010.jpg</video:thumbnail_loc>
      <video:title>Polymer Degradation, Stabilization, and Failure Analysis, Part II</video:title>  
      <video:description> The first video will give you insight into the  key aspects  of  polymer degradation, stabilization , and  techniques  for failure analysis: 
 typical  signs  and  symptoms  of polymer degradation;  
  classifying  and  describing  various types of degradation;  
 the  role  of stabilizers; 
 the  interaction  of additives.   

Various  analytical techniques  for  characterizing, analyzing , and  determining  the extent of polymer degradation will be reviewed.  The video of the second part will provide you with some practical considerations in  polymer-product failure analysis  and  prediction techniques , and offers some recommendations for  solving the problems  of polymer-product  degradation . </video:description>
      <video:publication_date>2010-07-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
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  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=215</loc>
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      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/215/150-weight_saving-2010.jpg</video:thumbnail_loc>
      <video:title>Weight Saving Technologies in Automotive Applications</video:title>  
      <video:description> This video will help you  optimize  your  vehicle weight reduction strategy  by reviewing most promising innovations.
  
 Material  and  process technologies  will be discussed for their potential to  reduce weight  but also for the opportunity to achieve  higher performance, reduce cost  and  simplify overall design . </video:description>
      <video:publication_date>2010-07-26</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
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  <url>
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      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/214/150-open_innovation-2010.jpg</video:thumbnail_loc>
      <video:title>Open Innovation: How to Deal with IP Challenges?</video:title>  
      <video:description> 
This video will help you better  protect your interests  when engaging in  open innovation  by sharing best practices on  IP management .
  
After clarifying how ownership applies under US patent law, the video will provide  guidance  on where to  focus your attention  when creating  joint development agreements . </video:description>
      <video:publication_date>2010-07-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
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  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=213</loc>
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      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=213</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/213/150-polymer_degradation-2010.jpg</video:thumbnail_loc>
      <video:title>Polymer Degradation, Stabilization, and Failure Analysis, Part I</video:title>  
      <video:description> This first video will give you insight into the  key aspects  of  polymer degradation, stabilization , and  techniques  for failure analysis: 
 typical  signs  and  symptoms  of polymer degradation;  
  classifying  and  describing  various types of degradation;  
 the  role  of stabilizers; 
 the  interaction  of additives.   

Various  analytical techniques  for  characterizing, analyzing , and  determining  the extent of polymer degradation will be reviewed.  The video of the second part will provide you with some practical considerations in  polymer-product failure analysis  and  prediction techniques , and offers some recommendations for  solving the problems  of polymer-product  degradation . </video:description>
      <video:publication_date>2010-07-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=212</loc>
    <video:video>
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      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=212</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/212/150-Si_Photovoltaic-2010.jpg</video:thumbnail_loc>
      <video:title>Introduction to Si Photovoltaic Technology</video:title>  
      <video:description> This video will help you build solid foundations to  efficiently expand into the Si Photovoltaic market :
  
 Get up-to-speed on  current state-of-the art  Si photovoltaic cells 
 Learn more about  performance  and  cost-effectiveness roadblocks  
 Clarify what really matters to PV cells manufacturers 
 </video:description>
      <video:publication_date>2010-07-06</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=210</loc>
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      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=210</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/210/150-FR_System_Selection-2010.jpg</video:thumbnail_loc>
      <video:title>FR Systems Selection for Greener E&amp;E Applications Requirements</video:title>  
      <video:description> 
This video will help you find faster  optimal flame retardant systems  to meet  stringent demand  in  E&amp;E applications .
  
In the light of the current regulation framework,  key performances  and  best system match  of  traditional  and  novel solutions  will be reviewed.
 </video:description>
      <video:publication_date>2010-07-05</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=209</loc>
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      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=209</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/209/150-Bioplastics_innovations2010.jpg</video:thumbnail_loc>
      <video:title>Bioplastics Tour &amp;ndash; Latest Developments and Trends for Greener Plastics</video:title>  
      <video:description> 
This video will help you  save time  finding your way among the multitude of more or less good options  to go green .
  
Based on the latest developments in  bio-based  and  biodegradable  materials and technologies, our expert Don Rosato will focus on  novel solutions  selected for their  high environmental ,  performance  or  application potential .  
It will help you:
  Increase bio-based content  in your plastic without affecting performance 
 Improve mechanical and thermal performances of bioplastics 
 Promote  biodegradability  of traditional materials 
 </video:description>
      <video:publication_date>2010-05-26</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=208</loc>
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      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/208/150-Specialty_additives_2009.jpg</video:thumbnail_loc>
      <video:title>Specialty Additives 2009 - What's new for greener, eye-catching &amp; more performant plastics?</video:title>  
      <video:description> 
This video will provide you a  clear and accurate overview  of novel performance and applications arising from latest developments in  specialty additives .   
It will give you clues on:
 Competitivenesss of  PP and PP/TPO vs. high value polymers  
 Solutions to increase  product life  and reduce  energy consumption  
 Latest developments to achieve  eye-catching plastics  without painting 
  Potential to go beyond decking and fencing with  WPC  
  Novel bioplastic performance  opening-up their range of applications 
 Opportunities to reduce the  environmental impact  of conventional plastics 
  Cost and weight reduction  solutions for conductive plastics 
  Achieved results will be compared to traditionnal materials and performance to  ease identification of genuine opportunities for you .
 </video:description>
      <video:publication_date>2010-03-11</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=207</loc>
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      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=207</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/207/150-Life-cycle-assessment2009.jpg</video:thumbnail_loc>
      <video:title>Life Cycle Assessment (LCA)  A practical guide to grow business with plastics</video:title>  
      <video:description> Watch this video and get to know how to  turn Life Cycle Assessment (LCA) into business advantage  for your plastics.
  
 
 Gain confidence in making  environmental claims  by learning how to make  reliable assumptions on transport, waste treatment...    
 Uncap your growth potential by identifying  opportunities for improvement of your material-process-product system . 
 
 </video:description>
      <video:publication_date>2010-02-08</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=206</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=206</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=206</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/206/150-biobased_carbon_content2010.jpg</video:thumbnail_loc>
      <video:title>Quantifying the Biobased Content of Plastics Using ASTM-D6866</video:title>  
      <video:description>ASTM-D6866 documents the  renewable carbon content  (a.k.a. biobased carbon content) of plastics, liquids, and gases.  
 Composite carbon components  of renewable and fossil origin within plastic or any of its originating components are  readily identified  and  conveyed with a single number result  (e.g. 65% biobased).  
Both state and federal regulators have embraced the method as a means for  identifying biobased carbon  within manufactured products, raw materials, and even  carbon-neutral CO2 emissions  from stationary emission sources. The method is the  foundation for identifying the biobased carbon content of plastics  and other materials listed in the USDA’s BioPreferred Program and is gaining widespread  utility in marketing, public-image and product defense .</video:description>
      <video:publication_date>2010-01-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=205</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=205</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=205</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/205/150-Impact-modification2009.jpg</video:thumbnail_loc>
      <video:title>Impact Modification strategies for Engineering polymers</video:title>  
      <video:description> Watch this video and  build stronger fundations  on impact modifiers to  get faster to the right balance between toughening efficiency and compatibility with other additives . </video:description>
      <video:publication_date>2010-01-14</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=204</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=204</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=204</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/204/150-Antistatic_Polyolefins2009.jpg</video:thumbnail_loc>
      <video:title>Optimization of Antistatic Additives in Polyolefins</video:title>  
      <video:description> View this  advanced course  video and become more efficient than your competitors when formulating polyolefins with  antistatic additives . 
   
  - Understand how antistatic additives can be made  compatible with polymers  and how to  increase the permanence effect . 
  - Learn how to  optimize the additive level  needed to get  optimal performance . 
  - Discover how to  increase  the retention time  of anti static property in polymers. 
   </video:description>
      <video:publication_date>2010-01-11</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=203</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=203</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=203</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/203/150-Recycled_materials_analysis2009.jpg</video:thumbnail_loc>
      <video:title>Analytical approaches to characterize products and issues associated with recycled materials</video:title>  
      <video:description> As the demand increases for reprocessed resin from both post-industrial and post-consumer plastic products, a unique set of problems is encountered.   
 Recycled materials  may include  unwanted components  such as foreign contaminants, other types of polymer, and residual additives that may not be suitable for the intended application. In some cases, these components can lead to  undesirable performance or odors .  
 Post-consumer recycled material  is particularly challenging because the history of the material is unknown, and the resin could include such foreign material as cleaning products, paint, or food products.   
 Molecular weights  can also be affected by incorporation of regrind material. Changes in molecular weight can have a large effect on mechanical and physical properties, such as strength, permeability, and crystallinity, which can affect the quality of the finished product.  
Through several  real-world case studies , this video will cover  many of the methods  that are used to probe these types of issues to enable  successful utilization of recycled materials .</video:description>
      <video:publication_date>2009-10-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=202</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=202</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=202</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/202/150-Survival_Techniques2009.jpg</video:thumbnail_loc>
      <video:title>Survival Techniques in Today's Economy</video:title>  
      <video:description> Surviving in today's economy means understanding the game of business relationships.   

This video will show how to  improve your profits  and not get caught in some of the traps in which molders may find themselves with their customers. Your company needs to  not only survive but also thrive  in today's business environment.  
This presentation will show you how to  reinvent your company’s image in the electronic age  and  understand the way buyers "negotiate"  - so that you won’t lose money. It will show examples of the games buyers play and how to respond to them.</video:description>
      <video:publication_date>2009-10-15</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=201</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=201</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=201</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/201/150-photovoltaic2009.jpg</video:thumbnail_loc>
      <video:title>The future of electronic materials in photovoltaic applications</video:title>  
      <video:description> This video presented by Dr. Donald Rosato, an independent expert, will provide you with a clear insight into how PV technology is progressing and where the opportunities for you exist.  
  - Find out how far electronic material specialists are from  the ultimate cost-effective package . 
  - Learn how to  adapt traditional materials for 3rd generation  PV technology. </video:description>
      <video:publication_date>2009-09-24</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=200</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=200</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=200</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/200/150-Nanoclays_PPE_PS_Blends2009.jpg</video:thumbnail_loc>
      <video:title>Exfoliation of Nanoclays in PPE-PS Blends and Structure-Property Relationships</video:title>  
      <video:description>The miscibility of polyphenylene ether (PPE) resin with polystyrene (PS) has long been exploited to create  engineering resin blends with an attractive balance of properties . While it might be desirable to further improve on these properties by use of nanoclay reinforcement, the processing temperatures of PPE/PS blends are typically much higher than recommended for conventional nanoclay additives treated with organic modifiers such as quaternary amine salts.  

This video will  explore an alternative route  by preparing  concentrates of nanoclay in polystyrene (PS) via emulsion polymerization . The properties of PPE blends made with nanoclay/PS are compared with those made with organoclay and benchmarked against blends made with conventional fillers.  

The  complete morphology characterization  of the nanoclay composites by transmission electron microscopy (TEM) and X-ray diffraction (XRD)will be described, including  methods for measuring the distribution  of both the diameters and the stacking of the nanoclay plates. The speaker will conclude by incorporating the analytical data into a modified Halpin-Tsai micromechanics model to  estimate the gap in performance between the current nanoclay additives and theoretical full exfoliation of nanoclay in a PPE/PS blend .</video:description>
      <video:publication_date>2009-09-18</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=199</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=199</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=199</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/199/150-Patent_valuation2009.jpg</video:thumbnail_loc>
      <video:title>Patent Valuation for New Product Development and Licensing</video:title>  
      <video:description> 
Get educated in patent valuation and licensing to avoid having to patent everything losing time and money. 
Unless you are correctly guided, your patents won't be protected correctly. 
This video by Laurence Pearson will enable you to avoid these common mistakes and learn how to put an economic value on your patents. 
 
 Learn from real-life examples about why certain patents are successful. 
  
 Get an expert overall approach to get the most out of your IP. 
 </video:description>
      <video:publication_date>2009-09-11</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=198</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=198</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=198</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/198/150-Automotive_Composites2009.jpg</video:thumbnail_loc>
      <video:title>Advanced Automotive Composites: Mapping Current Applications &amp; Future Technologies</video:title>  
      <video:description> Engineers are turning to composite plastics to meet new design goals  particularly weight reduction - this video aims to provide an  expert overview of advanced automotive composites  in the context of  developing  cutting edge applications , and will give you a very current global competitive update of what's new in this field.    Develop cutting edge applications  (exterior, interior, renewable/sustainable)     Get a head start  on material and product development      Better understand automotive composites processes and materials.   </video:description>
      <video:publication_date>2009-09-04</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=197</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=197</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=197</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/197/150-Cone_calorimeter2009.jpg</video:thumbnail_loc>
      <video:title>The Cone Calorimeter: tools for quantifying flammability for product development</video:title>  
      <video:description> 
Learn from an experienced expert how to  optimize your formulations for lower flammability  by interpreting results properly.
   Formulators of fire retardant materials will be able to  develop better materials  and  assess flammability improvements to optimize formulations . Suppliers of fire retardants will be able to  better advise their customers . Users and specifiers of fire retardant materials will be able to  select materials  which will help their  products pass regulatory tests . 
   Our expert speaker Richard Hull has over 70  peer-reviewed publications in fire chemistry and will help you understand more about  how  fire retardants work . 
   </video:description>
      <video:publication_date>2009-09-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=196</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=196</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=196</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/196/150-Reactive_compounding2009.jpg</video:thumbnail_loc>
      <video:title>Reactive compounding of TPEs and TPVs</video:title>  
      <video:description> 
This video will help you overcome your common and  complex  formulation challenges  by learning from an  experienced expert . It will provide you with an overview of Reactive compounding of TPEs and TPVs in order to: 
 
  Better understand the issues  in compounding TPEs and TPVs effectively and how to overcome them. 
   Understand how to  optimize the reactive compounding of TPEs and TPVs  and improve their cost/performance ratio. 
  
  Solve technical issues  linked to emerging trends (greening of plastics, high temperature TPEs, FR halogen-free TPEs, oil resistant TPEs...). 
  
 Learn from  many real world  examples  of reactive compounding of TPEs &amp; TPVs, including: Silicone rubber-based TPVs, TPEs &amp; TPVs with adhesion to polar substrates, TPEs with improved barrier properties, Green TPEs &amp; TPVs... 
 </video:description>
      <video:publication_date>2009-08-26</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=195</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=195</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=195</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/195/150-Transition_Temperature_Microscopy.jpg</video:thumbnail_loc>
      <video:title>Transition Temperature Microscopy: Thermal Property Mapping of Polymeric Materials</video:title>  
      <video:description> Transition Temperature Microscopy (TTM) is a  novel technique  that maps spatial variations in thermal properties on submicron-length scales.   

Traditional bulk thermal analysis provides sample-averaged properties and cannot generally provide sufficient information about complex structures or heterogeneous films. 
TTM uses a nanoscale thermal probe to heat a very small region on the surface of a sample and  locally measure its thermal properties, including thermal transition temperatures like melting points or glass transitions . These measurements can be carried out  rapidly  at a succession of points, thus creating  high-resolution spatial maps of the thermal properties  of the sample.  

This video, co-presented by Craig Prater and Kevin Kjoller, demonstrates how TTM can be used to  characterize polymer samples  and  generate vital information  in applications ranging from automotive coatings to polymer-processing artifacts.</video:description>
      <video:publication_date>2009-08-26</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=194</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=194</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=194</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/194/150-Carbon_Footprint2009.jpg</video:thumbnail_loc>
      <video:title>Carbon Footprint Reduction Strategy - How to make the most out of BIO-CONTENT</video:title>  
      <video:description> 
This video will provide you with an overview of Carbon Footprint Reduction Strategy in order to:  
  Learn the fundamentals  from our experienced Bio-Content expert and  gain a concise and up-to-date understanding of biocontent calculation . 
  
 Learn  how to measure and use  biobased content  to report  material carbon footprint reductions &amp; sustainability measures .  
  
 Learn about  end-of-life options and issues  for biocontent products. 
  
 Gain a fundamental understanding of the technology platforms (both chemical and biological) for  manufacturing biomonomers and bioresins using carbohydrates, vegetable oil and other biosubstrates focusing on polyurethanes . 
 </video:description>
      <video:publication_date>2009-07-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=193</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=193</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=193</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/193/150-Polymer_film_testing2009.jpg</video:thumbnail_loc>
      <video:title>Polymer Film Testing: Techniques and Analysis</video:title>  
      <video:description> Obtaining the optimum properties from your film and saving on production costs  will help your product succeed.  
 Confidence in your product through testing and quality control  can put you ahead of the competition.  
This video will explain  which testing techniques are appropriate for polymer films  and  the type of data that can be generated from those tests .</video:description>
      <video:publication_date>2009-07-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=192</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=192</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=192</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/192/150-Smart_polymers2009.jpg</video:thumbnail_loc>
      <video:title>Smart Polymers &amp;amp; their Applications</video:title>  
      <video:description> 
This video will provide you with an overview of smart polymers and their applications in order to:  
  Develop  new products  with good match for a targeted application. 
  
 Evaluate  opportunity to  widen the range of application  of existing products.  
  
  Keep up-to-date with  latest innovation  and  get inspiration  for further developments.  </video:description>
      <video:publication_date>2009-07-17</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=191</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=191</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=191</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/191/150-Carbon_Nanotubes2009.jpg</video:thumbnail_loc>
      <video:title>Polymer Nanocomposites Containing Carbon Nanotubes</video:title>  
      <video:description> Carbon nanotubes were identified in 1991, and immediately their application to polymer composites became apparent.   
This video will briefly review  the synthesis and nomenclature  associated with carbon nanotubes, before describing  the properties and underlying science  associated with polymer nanocomposites containing carbon nanotubes.   Mechanical, electrical, and thermal properties  will be discussed.  
The content of the video will derive from recent review articles, journal publications, and industry wide reports.</video:description>
      <video:publication_date>2009-06-30</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=190</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=190</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=190</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/190/150-DMA2009.jpg</video:thumbnail_loc>
      <video:title>Dynamic Mechanical Analysis - An Introduction and Overview</video:title>  
      <video:description> Dynamic mechanical analysis represents one of the most powerful tools for polymer analysis .   
Measuring the changes in a material’s modulus and damping under different conditions, DMA allows one to  characterize a material’s response more fully than most other methods .  
This introduction and overview will present  the basic principles of DMA and polymer applications , examining  the effects of temperature, time, frequency, solvent contact, humidity, and UV light . Both thermoplastic and thermosetting examples will be shown.</video:description>
      <video:publication_date>2009-06-29</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=189</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=189</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=189</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/189/150-pricing_profit2009.jpg</video:thumbnail_loc>
      <video:title>Value-Based Pricing for Profit: Pricing to Capture Customer Value</video:title>  
      <video:description> 
This video will provide you with  a clear overview on Value-Based Pricing for Profit  in order to:
  Understand the benefits  derived from some actual chemical’s industry examples of Value-Based Pricing.   
  Rationalize your pricing policy  based on your customer needs and product perception.    
  Support your customer retention efforts .   
  Maintain a sustainable and profitable growth . </video:description>
      <video:publication_date>2009-06-24</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=188</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=188</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=188</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/188/150-Reactive_extrusion2009.jpg</video:thumbnail_loc>
      <video:title>Reactive Extrusion: Fundamentals and good practices</video:title>  
      <video:description> 
This video will provide you with  a clear overview of the fundamentals of reactive extrusion (REX)  in order to:  
 
 Understand  the main challenges, chemical principles and processes  so you can gain the most from this technology.  
 
 Learn  how to  control rheology, graft or crosslink various polymers .   
Raphael Mestanza will guide you through  real-life case studies  and offer his extensive expertise during the presentation and Q&amp;A session. 
 </video:description>
      <video:publication_date>2009-06-24</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=187</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=187</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=187</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/187/150-Emerging_packaging2009.jpg</video:thumbnail_loc>
      <video:title>Emerging Materials &amp;amp; Technologies in Packaging Applications</video:title>  
      <video:description> 
This video will provide you with an overview of emerging materials and technologies for packaging applications in order to:  
  Develop  new products  with good match for a targeted application.  
 
 Evaluate  opportunity to  widen the range of application  of existing products.   
 
  Keep up-to-date with  latest innovation  and  get inspiration  for further developments.  </video:description>
      <video:publication_date>2009-06-23</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=186</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=186</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=186</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/186/150-Flame_Plasma2009.jpg</video:thumbnail_loc>
      <video:title>Adhesion Promotion Using Flame-Plasma Surface Treatment - A Viable &amp; Green Alternative to Conventional Methods</video:title>  
      <video:description> Adhesion-promotion technologies  are used in the plastics industry for a wide variety of products, from automotive components to packaging.  

One method for modifying the surface of polymer products to promote adhesion of coatings and adhesives is  flame plasma .  

This video will provide you with  the theory behind various flame-plasma surface treatments to promote adhesion  of water-based inks, coatings, adhesives, labels, and other substrate laminates to polyolefin-based substrates. Critical parameters in flame treatment are  flame chemistry, flame geometry, plasma output, and distance of the burner to the part .  The interrelationship between these variables, and how to control them for optimum surface treatment,  will be discussed.</video:description>
      <video:publication_date>2009-06-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=185</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=185</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=185</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/185/150-Fast_Scan_DSC2009.jpg</video:thumbnail_loc>
      <video:title>Fast-Scan DSC</video:title>  
      <video:description>Of the recent developments in differential scanning calorimetry, Fast-Scan DSC may be the most interesting.  

While normal DSC scans at rates between 1 and 20 C/min,  Fast-Scan DSC uses rates starting from 100 C/min for heating and cooling . This allows  the detection of weak transitions, the suppression of kinetic events like curing and recrystallizations, better isothermal studies, and increased throughput .  
 This video will provide the basic principles of Fast-Scan DSC and survey polymer-related applications. </video:description>
      <video:publication_date>2009-06-09</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=184</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=184</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=184</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/184/150-Simulation_Plastic_Packaging2009.jpg</video:thumbnail_loc>
      <video:title>Simulation-Driven Product Design in Plastic Packaging</video:title>  
      <video:description>Whether a package is a blow-molded bottle, thermoformed cup, or a clamshell,  packaging engineers focus on certain performance criteria, e.g., structural integrity and sealing behavior . While targeting these design objectives,  the manufacturing process must also maximize production rate, minimize material use and waste, and achieve the quickest time to market with respect to new products .  

 Accomplishing all of the above would be much easier if we were able to predict package performance for different process variables before the process is actually implemented or even tested . This would result in  cost savings ,  reduction in time to market , and  a competitive advantage  over those that rely too heavily on physical prototyping.   

Until now, practitioners of computer modeling have looked at process design (which deals with analysis of polymer flow) and part design (which deals with analysis of solid parts) as two separate steps. Coupling the two steps virtually and seamlessly through simulation has so far been more of a wish than a reality. But  Simulation-Driven Product Development is now possible, and, through concrete examples, this video will show how .</video:description>
      <video:publication_date>2009-06-09</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=183</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=183</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=183</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/183/150-container_packaging2009.jpg</video:thumbnail_loc>
      <video:title>Container Molding: Never-Ending Challenges</video:title>  
      <video:description> Lifestyle changes, health concerns, and environmental awareness  are driving new products into the market that require  new packaging solutions from the blow-molding industry , such as single-serve units, smaller content, improved barrier, and a myriad of design solutions to deal with environmental issues. The environmental concerns alone raise the issues of sustainable material use to replace commonly used plastics, recycling, source reduction, and “carbon footprint.”
  
 Are any of these challenges really new to the industry? How would the advances of the last 30 years be characterized in today’s terms?    
This video will provide some answers through  reviewing the progress achieved over many years , examples of  new products being introduced to the market , and  critical review of their performance characteristics and the new issues they raise .</video:description>
      <video:publication_date>2009-05-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=182</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=182</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=182</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/182/150-patent_search2009.jpg</video:thumbnail_loc>
      <video:title>US Patent Claims - Part II - Searching &amp; Mapping</video:title>  
      <video:description> 
This video will enable you to  expand your skills at searching and mapping patents  in order to:  
   Use knowledge from relevant patents to  guide product developments  
   
   
   Stay clear of freedom to  sell issues and avoid law suits  
     This second part of a two-part online course on Patent Claims will suit people who have a basic working knowledge of how to read a patent and its claims.
 </video:description>
      <video:publication_date>2009-05-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=181</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=181</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=181</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/181/150-biofuels2009.jpg</video:thumbnail_loc>
      <video:title>Fuel barrier requirements &amp; solutions for fuels and biofuels</video:title>  
      <video:description> 
This video will provide you with a clear update on the complex regulatory demands, and understand how biofuels affect the barrier performance of traditional solutions, in order to:   
  Evaluate the potential  of your new formulations and define your R&amp;D strategy.
 
  
 Get a clear overview of  how you can penetrate the market, and select the right materials . 
  
  Enrich your knowledge  of both materials and system architecture strategies. 
 
 
  Identify opportunities  in new structures for the next generation of vehicles. 
 
 </video:description>
      <video:publication_date>2009-05-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=180</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=180</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=180</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/180/150-patent_reading2009.jpg</video:thumbnail_loc>
      <video:title>US Patent Claims - Part I - Reading &amp; Interpretation</video:title>  
      <video:description> 
This video will provide you with basic working knowledge of how to read a patent and its claims in order to:   
  Guide your product developments.  
  
  Generate sustainability for your business  by taking advantage of patentable inventions.   
  Avoid expenses and lost business  of patent infringement problems. 
 </video:description>
      <video:publication_date>2009-05-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=178</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=178</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=178</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/178/150-engineering plastic 2009.jpg</video:thumbnail_loc>
      <video:title>Engineering Plastics for Electrical &amp;amp; Electronic</video:title>  
      <video:description> 

This video will provide you with an overview of materials technology and adoption of engineering plastics for Electrical &amp; Electronic applications,  as well as ongoing developments in order to:  
  Develop  new products  to match  targeted application 
  
 Evaluate  opportunities to  widen the range of application  of existing products  
  
  Keep up-to-date with  latest innovation  and  get inspiration  for further developments  </video:description>
      <video:publication_date>2009-04-23</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=177</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=177</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=177</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/177/150-pvc plasticizer.jpg</video:thumbnail_loc>
      <video:title>PVC Plasticizer Selection Strategies</video:title>  
      <video:description> 
This video is aimed at:  
- Providing you with a quick start towards understanding the variables in a structured approach towards PVC compound development  
- Teaching you how PVC compounds can be designed (cost/optimized) and economically produced 
- Guiding you through the wide range of plasticizers available so you can understand formulation variables and synergies 
 After viewing this video you  know what a plasticizer is and what it can do, what phthalate free really means and how to achieve it, how to reduce the number of options to consider in  searches for a better compound, how to predict the effect of plasticizer change on compound performance and much more... </video:description>
      <video:publication_date>2009-04-06</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=176</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=176</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=176</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/176/150-failure4.jpg</video:thumbnail_loc>
      <video:title>Failure Analysis of Plastics and Rubber - Part 4: Molecular Weight and Additives Analysis</video:title>  
      <video:description>Failure analysis serves to identify and explain the root cause of a material or product failure. In the laboratory, materials are routinely intentionally tested to “failure” as part of quality-assurance procedures or product-improvement initiatives. In the field, materials or products may fail in an expected manner because of obvious abuse. In other instances, failure may be less obvious and unexpected.   

This video will concentrate on  analysis of the polymer molecular weight and molecular weight distribution, which can provide useful information regarding the mechanism and root cause of the failure .   
The video will also  explain how to analyze whether and how polymer additives contribute to product failure . 
  
This presentation is Part 4 of a 4-part series:  
Part 1: Methods and Approaches 
Part 2: Microscopy and Physical Testing 
Part 3: Chemical Analysis Methods 
Part 4: Molecular Weight and Additives Analysis 
 
Each part of this series will emphasize a specific realm of analysis, but, because failure analysis requires a multidisciplinary approach, each part will include elements of the others.</video:description>
      <video:publication_date>2009-04-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=175</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=175</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=175</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/175/150-FTIR.jpg</video:thumbnail_loc>
      <video:title>Failure Analysis of Plastics and Rubber - Part 3: Chemical-Analysis Methods</video:title>  
      <video:description>Failure analysis serves to identify and explain the root cause of a material or product failure. In the laboratory, materials are routinely intentionally tested to “failure” as part of quality-assurance procedures or product-improvement initiatives. In the field, materials or products may fail in an expected manner because of obvious abuse. In other instances, failure may be less obvious and unexpected.   

This video will concentrate on the  chemical-analysis methods frequently used to determine the base polymer and major additives present in a failed sample .   

When unexpected behavior is observed, it is important either to rule out changes in the material composition or to identify what changes are present. Chemical analysis is often the first step taken in an investigation, or is performed in conjunction with other analyses, such as physical and chromatographic techniques.   

This presentation is Part 3 of a 4-part series: 
Part 1: Method and Approaches 
Part 2: Microscopy and Physical Testing 
Part 3: Chemical Analysis Methods 
Part 4: Molecular Weight and Additives Analysis  

Each part of this series will emphasize a specific realm of analysis, but, because failure analysis requires a multidisciplinary approach, each part will include elements of the others.</video:description>
      <video:publication_date>2009-04-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=174</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=174</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=174</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/174/150-food contact legislation.jpg</video:thumbnail_loc>
      <video:title>Food Contact Legislation in the EU: clarification and practical advice</video:title>  
      <video:description> This video is aimed at clarifying Food Contact legislation in the EU (both EU and national legislation) in order to let you:  
 Better understand  this complex legislation,    

 Be able to identify and avoid potential issues,   
 
 Be aware of your obligations and responsibilities 
   </video:description>
      <video:publication_date>2009-04-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=173</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=173</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=173</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/173/150-plastic auto 2009.jpg</video:thumbnail_loc>
      <video:title>What happened last year in automotive plastics?</video:title>  
      <video:description> 

This video will provide you with an overview of ongoing developments of plastics materials and technologies for automotive applications in order to: 
  Develop new products   to match targeted applications 
 
 Evaluate  opportunities to  widen the range of application  of existing products  
 
  Keep up-to-date with  latest innovation  and  get inspiration  for further developments  </video:description>
      <video:publication_date>2009-04-02</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=172</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=172</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=172</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/172/150-compositesadvanced.jpg</video:thumbnail_loc>
      <video:title>Thermoplastic Composites - Part 2: Advanced</video:title>  
      <video:description>View this video by expert Chris DeArmitt (experience at Institute for Surface Chemistry, Electrolux, BASF, Hybrid Plastics) to learn how to optimize your formulations and make more competitive materials. Gain confidence when comparing materials in terms of performance/cost ratios. 
  
Learn from case studies, real-life formulation examples and screening tests to create action plans to fully assess the strengths and weaknesses of your products subjectively.</video:description>
      <video:publication_date>2009-02-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=171</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=171</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=171</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/171/150-compositesessential.jpg</video:thumbnail_loc>
      <video:title>Thermoplastic Composites - Part 1: Essential Introduction</video:title>  
      <video:description>This video will give you an overview of composites so you can understand the three factors to get the most out of composites: polymers, fillers and surface science.
  
Gain confidence when comparing materials in terms of performance and cost and make better informed decisions.
  
We have another video to complement this one: 'Advanced Thermoplastic Composites'. It  focuses on formulation optimization to accentuate strengths and limit weaknesses of your material.</video:description>
      <video:publication_date>2009-02-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=170</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=170</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=170</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/170/150-plastic failure2.jpg</video:thumbnail_loc>
      <video:title>Failure Analysis of Plastics and Rubber - Part 2: Microscopy and Physical Testing</video:title>  
      <video:description>On the second part of this series on "Failure Analysis of Plastics and Rubber", the topics covered will include failure mechanism of plastics, strain rate as a ductile-to-brittle transition, and impact testing.   The effects of strain rate will be reviewed, and case studies will illustrate failure resulting from rapid stress loading.</video:description>
      <video:publication_date>2009-02-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=169</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=169</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=169</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/169/150-strain_rate.jpg</video:thumbnail_loc>
      <video:title>The Effects of Impact and Other Rapid Loading Mechanisms on Plastics</video:title>  
      <video:description>If you missed the live session, it is the video to watch for an encore of "The Effects of Impact and Other Rapid Loading Mechanisms on Plastics."    
The response of plastic materials to mechanical stress is contingent on many variables. One important characteristic is the rate at which the stress is applied, otherwise known as the strain rate.   There are many ways in which plastics can be subjected to high strain-rate loading; the most common include impact, snap-fit assembly, and rapid pressurization.</video:description>
      <video:publication_date>2009-02-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=168</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=168</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=168</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/168/150-plastic failure1.jpg</video:thumbnail_loc>
      <video:title>Failure Analysis of Plastics and Rubber - Part 1: Methods and Approaches</video:title>  
      <video:description>Failure analysis serves to identify and explain the root cause of a material or product failure. In the laboratory, materials are routinely intentionally tested to “failure” as part of quality-assurance procedures or product-improvement initiatives.  

 In the field, materials or products may fail in an expected manner because of obvious abuse. In other instances, failure may be less obvious and unexpected.   

This video will give an overview of the numerous methods and approaches typically used to perform failure analysis.    

This video is Part 1 of a 4-part series: 
Part 1: Overview of Methods and Approaches 
Part 2: Microscopy and Physical Testing 
Part 3: Chemical Analysis Methods 
Part 4: Molecular Weight and Additives Analysis.  

Each part of this series will emphasize a specific realm of analysis, but, because failure analysis requires a multidisciplinary approach, each part will include elements of the others.</video:description>
      <video:publication_date>2009-02-06</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=167</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=167</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=167</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/167/150-Nanoplastics 1208.jpg</video:thumbnail_loc>
      <video:title>Nanopolymers: Build-up on promising opportunities</video:title>  
      <video:description> Video Objective:  Clarify, among all nano-related developments &amp; initiatives, which will really be the bread-winners of them all.   
 Define your R&amp;D strategy for "nano" and prioritize your projects according to identified opportunities   
 Develop new products benefiting from the nanotechnology advances   
 Keep up-to-date with latest innovations and get inspiration for further developments </video:description>
      <video:publication_date>2009-02-06</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=166</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=166</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=166</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/166/150-plastic recycling spe.jpg</video:thumbnail_loc>
      <video:title>Plastics Recycling: Processes, Opportunities and Issues</video:title>  
      <video:description>The wide use of plastics in many manufacturing industries is a result of the flexibility of design they offer engineers. But increasing quantities of plastics are being discarded as plastic parts reach end-of-life and are taken out of use. So, economic, social, and legislative pressures to recycle plastics have also increased.   

This introduction to plastics recycling will discuss the economic, political, and environmental considerations that go into why and how plastics are recycled. The processes used and difficulties encountered by plastics-recycling industries will also be explored.</video:description>
      <video:publication_date>2009-02-06</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=165</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=165</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=165</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/165/150-whatispatentable.jpg</video:thumbnail_loc>
      <video:title>What is Patentable? A review of patent office rules and procedures</video:title>  
      <video:description> 
 Video Objective:    
Clarify  rules and procedures
of the Patent Office to better understand what it considers patentable in order to:  
 
 Optimize your patentability strategy  
 Reduce the risk of having the competition know about your technology and receiving no protection for it.  
 
 </video:description>
      <video:publication_date>2009-02-06</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=164</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=164</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=164</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/164/150-Environmental Footprint.jpg</video:thumbnail_loc>
      <video:title>Tutorial on Carbon and Environmental Footprint of Bioplastics Using Biocarbon Content and Life Cycle Assessment (LCA)</video:title>  
      <video:description>This video explains tools and methodologies used to report the carbon and environmental footprints of bioplastic materials.   

You will 
 learn how “biobased” and “biodegradability” are defined based on scientific principles;   
 learn how to identify and quantify biobased (carbon) content in a product;   
 learn how, using biocarbon content values, to calculate and report the intrinsic carbon footprint reductions of a bioplastic product;   
 understand how to use LCA tools to calculate and report on the total environmental footprint of a bioplastic product;   
 learn about skewed/misused LCAs because of data quality or imposed boundary conditions;   
 learn about end-of-life options like biodegradability;   
 and learn how to effectively and transparently use LCA methodology for continual improvement, new options, and new material choices for reducing the environmental impact of a product offering. </video:description>
      <video:publication_date>2008-12-23</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=163</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=163</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=163</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/163/150-what-is-this-plastic.jpg</video:thumbnail_loc>
      <video:title>Utilizing FTIR, DSC, TGA and Ash to Identify Polymer Types</video:title>  
      <video:description>This video deals with the basic identification of plastics by the use of FTIR analysis, DSC, TGA, and muffle furnace ash.   

The operation of each instrument is explained, as are the results that can be obtained and the conclusions that can be drawn from each of the tests.   

Spectra are displayed showing similarities and differences between polymers. Thermograms showing melting points, crystallinity points, and glass transition temperatures are also shown. 
  
Advantages and limitations of each instrument will also be discussed.</video:description>
      <video:publication_date>2008-12-22</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=162</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=162</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=162</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/162/150-bioplastic-360.jpg</video:thumbnail_loc>
      <video:title>Bioplastics 360° tour - Make sure you are heading down the right path</video:title>  
      <video:description> 
 Course Objective:    
Clarify where bioplastics stands in terms of capability &amp; competition allowing you to:   
 Define your R&amp;D strategy and prioritize your projects   
 Develop new products within the 'green' trend   
 Keep up-to-date with latest innovations and get inspiration for further developments  </video:description>
      <video:publication_date>2008-12-22</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=161</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=161</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=161</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/161/150-Twin-Screw-Biopolymers.jpg</video:thumbnail_loc>
      <video:title>Twin-Screw Extrusion Design Enhancements for Processing Heat-Sensitive and Shear-Sensitive Biopolymers</video:title>  
      <video:description>The use of High Speed Energy Input (HSEI) co-rotating and counter-rotating twin-screw extruders has become the method of choice for processing many biobased polymer compounds.  

 Applications include compounding, reactive processing, devolatilization, and foaming. The final product can be pellets for subsequent forming processes or a direct extrusion of fiber/film/sheet or profile.   

Recent design enhancements to the HSEI twin-screw extruder offer the benefits of higher torque, improved heat transfer (cooling), and more free volume.   

This video will compare the traditional HSEI twin-screw extruder and the enhanced-design extruder, with examples for processes limited by torque and feed volume, along with the corresponding melt-temperature ramifications.   

Various system configurations will also be presented for PLA, TPS, and other biobased materials as part of pelletizing, profile, sheet, and foaming extrusion systems.</video:description>
      <video:publication_date>2008-12-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=160</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=160</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=160</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/160/150-bioplastic-intro.jpg</video:thumbnail_loc>
      <video:title>Bioplastics introduction</video:title>  
      <video:description>Bioplastics are either alternative materials made from renewable resources such as corn or wood (cellulose) OR plastic materials that can biodegrade or be composted. Many (not all!) bioplastics are both.   

This video will cover the basics of bioplastics, possible applications, end-of-life scenarios, and some political and ethical considerations.  


The introductory section will answer: Why bioplastics? What are bioplastics? What different types are available? What capacities are installed? Will enough bioplastics be available?  

The processing and applications section will cover how different bioplastics are already being used, in packaging (films, bottles, thermoforming), automotive, consumer electronics (injection molding), and more.  

End-of-life scenarios will discuss options such as recycling, composing, waste-to-energy, etc.   

And the political/ethical section will cover questions such as food vs. biofuels/bioplastics, 2nd-generation bioplastics (i.e., those made from non-food-sources), political conditions, and so on.</video:description>
      <video:publication_date>2008-12-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=159</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=159</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=159</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/159/150-Biomaterials.jpg</video:thumbnail_loc>
      <video:title>Advances in Plastic Biomaterials: Ag-fillers and New Processes</video:title>  
      <video:description>The use of renewable feedstock has been a major subject of recent research activities, as industry seeks to develop sustainable environmental practices.   

The plastics industry can benefit by using renewable feedstock in the form of chemicals, fibers, or fillers. Byproducts of crops like wheat, soy, or corn can be used as fillers in the automotive, packaging, and construction sectors.   

This video will discuss recent advances in the development of agricultural fillers, which represent an opportunity for both environmental and economical sustainability.   

Several methodologies are being investigated in order to identify materials with the right balance of properties and cost. Manufacturing the filler includes harvesting at the farm, drying, particle-size reduction, and transportation to the compounder.   

Then, formulation and processing conditions play important roles in determining the final physical properties.</video:description>
      <video:publication_date>2008-12-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=158</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=158</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=158</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/158/150-smart-additives.jpg</video:thumbnail_loc>
      <video:title>Smart Additives 2008 Review</video:title>  
      <video:description>Get an expert overview of smart addtives from our expert Don Rosato who will cover state of the art functional fillers and specialty additives and help you identify opportunities to achieve the right cost-performance balance for your plastic.  
You'll save research time by attending this review and get ahead of your peers by not missing out on the latest developments related to specialty additives.</video:description>
      <video:publication_date>2008-12-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=157</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=157</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=157</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/157/150-agricultural-film.jpg</video:thumbnail_loc>
      <video:title>The Effectiveness of Biodegradable Poly(Hydroxy Butanoic Acid) Copolymers in Agricultural Mulch Film Applications</video:title>  
      <video:description>MirelTM poly(hydroxy butanoic acid), or PHB copolymers, and their products are known to biodegrade in soil and compost sites and in freshwater and seawater environments. Because they biodegrade in soil, PHB copolymers are very well suited for agricultural mulch film applications.   

Vegetable-crop growth with PHB copolymer mulch films in various environments has been shown to be considerably better than bare-ground crop growth and similar to crop growth with polyethylene mulch films.  

PHB copolymers readily disintegrate through microbial action even at ambient temperatures. The subject mulch films were ploughed into the soil after crop harvest; the buried fragments of mulch film were shown to completely biodegrade. Incineration and landfill disposal are the most commonly used means of disposing of polyethylene mulch films, so natural biodegradation of ploughed-in film is both an eco-friendly alternative and a considerably more efficient farming practice.  

 In addition, MirelTM PHB copolymers are based largely on renewable resources (corn sugar), unlike petroleum-based polyethylene.</video:description>
      <video:publication_date>2008-12-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=156</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=156</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=156</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/156/150-pla-extrusion.jpg</video:thumbnail_loc>
      <video:title>Can I Run PLA on My Existing Extruders? A Practical Application Guide</video:title>  
      <video:description>PLA (polylactide resin) is a bioplastic that has found some product applications and that seems to be an extrudable material of growing interest.   

Any polymer that is made from a renewable resource and is degradable and/or environmentally friendly can gain favor in some markets, especially if it can be processed on existing machinery.   

This video will discuss the requirements for efficiently extruding PLA on a single-screw extruder with optimum screw design and processing conditions. Different sizes of extruders will be considered.</video:description>
      <video:publication_date>2008-10-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=155</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=155</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=155</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/155/150-nano-film-packaging.jpg</video:thumbnail_loc>
      <video:title>Nanocomposite Polypropylene Film for Food Packaging Applications</video:title>  
      <video:description>This video details an investigation of processing monolayer blown and cast films of polypropylene nanocomposites for consideration for food-packaging structures.   

The polypropylene nanocomposite is then extruded as a skin layer in blown and cast multilayer structures with EVOH as the barrier layer.   

The  researchers were able to extrude films with significant improvements over neat films in thermal, barrier and mechanical properties, both before and after exposure to high-temperature sterilization process, known as retort processing.</video:description>
      <video:publication_date>2008-10-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=154</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=154</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=154</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/154/150-pvc2.jpg</video:thumbnail_loc>
      <video:title>A Look at the Global PVC Market</video:title>  
      <video:description>The PVC market is no longer driven by regional supply/demand and cost factors, but rather by global supply/demand and cost factors.   

The shift in the global balance of trade has resulted from: 
- China’s increasingly supplying its own PVC demand through domestic production;   
- Strong growth in demand worldwide (5%/yr, 2007 to 2012), especially in developing countries, which do not have sufficient capacity to meet their needs;  
- North America’s regaining an advantaged cost position versus other world regions (except for the Middle East).
  

Finally, PVC prices have increased as a result of a fundamental shift (increase) in raw-material costs. Even though PVC pricing will be higher in the future, it will remain a leading product in infrastructure building.</video:description>
      <video:publication_date>2008-10-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=153</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=153</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=153</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/153/150-conductive-polymers2.jpg</video:thumbnail_loc>
      <video:title>Cutting Edge Technology &amp; Trends in Conductive Polymers</video:title>  
      <video:description> 
The range of applications of electrically conductive polymers is evolving at a fast pace with both filled thermoplastics and inherently conductive polymers. As many electronic innovations, conductive polymers are also likely to spread in new areas such as consumer goods or toys – you surely don’t want to be left behind!
 

 
With this video, review in a short space of time what new applications have arisen from latest conductive polymers development. 
 
 
This video will provide you with all the tools needed to make good decisions relative to conductive polymers. This will lead to strategically market positioned, best practice, and cost performance optimized conductive polymer products.
 </video:description>
      <video:publication_date>2008-10-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=152</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=152</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=152</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/152/150-flame.jpg</video:thumbnail_loc>
      <video:title>Achieving Sustainability with Flame Retardants</video:title>  
      <video:description>This video aims to deliver an understanding of the types, mechanisms, advantages and limitations of the different types of flame retardant technologies available in the light of current situations and requirements.
  
It will help attendees make educated choice when selecting flame retardants and avoid evaluation of inappropriate products.
  
It will deal with general principles rather than specific substances and will address many of the common questions encountered. After having viewed this video, a participant should be able to  select types of flame retardant which are likely to be effective in a specific application  and feel confident in asking relevant questions to the appropriate suppliers.  This should minimize resource wasted in evaluating inappropriate products.  
  
IMPORTANT NOTICE: please be aware that the sound of this video is of poor quality during the 10 first minutes.  </video:description>
      <video:publication_date>2008-10-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=151</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=151</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=151</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/151/150-nano_hope_hype.jpg</video:thumbnail_loc>
      <video:title>Nanopolymers – the hope and the hype</video:title>  
      <video:description>By better understanding what nanomaterials are and what they offer, attendees will be able to make an informed decision as to whether their company should be involved.   
This video contains a case study developed by major companies on a systematic method for finding the right dispersant and a cost/performance comparison for thermoplastics.
  
	The video will show what nanocomposites and nanoparticles can provide relative to conventional polymers and filled polymers. 
	This will enable you to  decide when it makes sense to use a nano material  and when another material is preferable.  Much time 
	and money can be saved  if one knows where to focus resources.  

A  unique case study  will be presented showing you a  method for finding the right dispersant . You will also have access to a  cost/performance comparison  for virtually every polymer that will help you  make the right decisions .</video:description>
      <video:publication_date>2008-10-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=150</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=150</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=150</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/150/150-REACH-SPE.jpg</video:thumbnail_loc>
      <video:title>Reach: Keeping it Manageable…Keeping it Strategic</video:title>  
      <video:description>We are in the pre-registration phase of what has been called the most intrusive legislation ever confronted by the chemical industry: REACH (Registration, Evaluation and Authorization of Chemicals).   

It might appear monumentally frustrating and discouraging to small and medium-sized non-European manufacturers. However, compliance with REACH is quite manageable, and close attention to market activity can be of great strategic value.   

Pre-registration is not difficult, and it allows sales to continue while an accompanying market watch can influence or drive future REACH decisions.   


This video is not a typical list of “do’s and don’ts” regarding the legislation. Instead, it will focus on the business of REACH and will explore the business process that determines the REACH value equation.</video:description>
      <video:publication_date>2008-10-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=149</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=149</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=149</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/149/150-litigation.jpg</video:thumbnail_loc>
      <video:title>Serving as an Expert in Litigation-Oriented Projects</video:title>  
      <video:description>Some litigated matters involve complex issues related to materials science and analytical chemistry, and can include allegations of patent infringement, theft of trade secrets, industrial espionage, product failure, and contamination, for example.   

Each party in a court case needs a technical expert who can understand the issues, suggest an approach for making science-based conclusions, and teach the concepts to the jury so that the jury can make their decision.   

This video will offer an experienced-based perspective of the various aspects of serving as a consulting expert, rebuttal expert, and testifying expert in cases related to materials science. Choosing the right expert for your case can sometimes be hard to do.   

This video will suggest the attributes to look for in a potential expert witness, present issues to consider when deciding to serve as an expert witness, and offer some ways to find expert-witness opportunities.</video:description>
      <video:publication_date>2008-10-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=148</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=148</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=148</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/148/150-pla_packaging.jpg</video:thumbnail_loc>
      <video:title>Improving the Heat Resistance of Polylactide (PLA) Biopolymer in Thermoformed Packaging Applications</video:title>  
      <video:description>Polylactide (PLA) biopolymers are currently enjoying strong commercial interest as sustainable alternatives to commodity petroleum-based plastics in a wide variety of thermoformed packaging applications.   

Typically, the properties of unmodified PLA resins are sufficient to meet the performance requirements of these applications, providing the temperature-performance requirement remains less than about 50°C.   

For higher-temperature applications, the heat resistance of neat PLA resin is largely constrained by two fundamental physical limitations: a moderately low temperature glass transition (in the vicinity of 60°C) and a fairly slow crystallization rate. 
  

This video discusses the results of a development effort within NatureWorks LLC to improve the practical temperature resistance of IngeoTM PLA sheet in thermoformed packaging applications through modification of polymer composition, crystal nucleation, and the thermoforming process.</video:description>
      <video:publication_date>2008-10-02</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=145</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=145</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=145</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/145/150-composite-adhesion.jpg</video:thumbnail_loc>
      <video:title>Improving Adhesion Performance Between Low-Surface-Tension Composites and Dissimilar Substrates</video:title>  
      <video:description>The growing demand for high-performance plastic components for automobile, aerospace, medical, and electronic applications has made the job of formulating paints, adhesives, and coatings more challenging. Because many of the composite plastics selected for these components have low surface energies, adhesion to their surfaces has been a problem.   

This video illustrates how adhesion is being improved, in composites and in dissimilar materials, by atmospheric pretreatment technologies.</video:description>
      <video:publication_date>2008-09-16</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=144</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=144</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=144</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/144/150-thermal-analysis.jpg</video:thumbnail_loc>
      <video:title>Polymer Thermal Analysis</video:title>  
      <video:description>An understanding of the thermal properties of polymers is critical to successful processing. Further, the end-use of the processed part can depend on the thermal properties of the resin and the part itself.   

This video will cover the basics of polymer thermal properties and address how they vary with structure, use temperature, processing conditions, etc. Applicable and relevant methods of measuring the thermal properties will also be covered.</video:description>
      <video:publication_date>2008-09-16</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=143</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=143</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=143</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/143/150-plastic-future.jpg</video:thumbnail_loc>
      <video:title>The Future of the Plastics Industry: Decline or Growth?</video:title>  
      <video:description>In 2006-2007, General Electric decided to divest its plastics operations as insufficiently profitable. Since GE has been an industry pioneer for close to a century, one has to ask, “Just what is the future of our industry?” Will plastics continue to grow faster than the overall economy, or is this growth now all in the past?   

This video will examine the question from a global and a national perspective, and also go into why GE has taken plastics out of its own view of the future. How this turmoil will affect the members of the industry and what measures are needed to survive and prosper in the 21st century will be examined.</video:description>
      <video:publication_date>2008-09-16</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=142</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=142</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=142</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/142/150-REACH-cornelia.jpg</video:thumbnail_loc>
      <video:title>REACH: setting-up a winning methodology for pre-registration</video:title>  
      <video:description>REACH pre-registration has started as of June 1, and no matter the amount of information on REACH principles &amp; major deadlines, the  remaining &amp; critical hurdle to be compliant on time is to practically define a structured approach .   
 
This video will provide you with  a concentrated summary of the most important steps needed to answer REACH requirements : proper identification of your obligations under REACH through substances inventory, adequate information you should collect and when, and how to name your substances.  Some time will be dedicated to borderline cases of substances, preparations &amp; articles.   

WHAT WILL BE COVERED?  
1.0 How to build up the data collection 
2.0 Definition of own role 
3.0 Exemptions from registration 
4.0 Borderline cases for substances, articles and preparations 
5.0 Naming of substances   </video:description>
      <video:publication_date>2008-08-13</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=141</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=141</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=141</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/141/150-Pressure_Viscosity.jpg</video:thumbnail_loc>
      <video:title>Effects of Long-Chain Branching, Concentration of Supercritical CO2, and Pressure on the Viscosity of Linear and Branched Polypropylenes</video:title>  
      <video:description>Supercritical fluids (SCF) such as carbon dioxide and nitrogen are of interest as physical blowing agents in the manufacture of plastic foam and as plasticizers to reduce melt viscosity during processing. The processor must know the combined effects of dissolved SCF, pressure, and temperature on the rheological properties of the melt in order to achieve optimum processing conditions.   

To produce good foam products, polymer blends are sometimes used, for example, linear polypropylene with branched polypropylene. Reliable models for predicting the physical properties of these materials in the presence of a solvent are not available, so experimental data are necessary to evaluate candidate resins.   

Five polypropylenes were chosen for study: one linear and one branched, plus three blends of the two. For purposes of comparison, data using high-density polyethylene is also presented. The pressure-volume-temperature (PVT) behavior of the samples was determined, to establish their basic phase behavior. To determine the combined effects of blend composition, SCF concentration, pressure, and temperature, a high-pressure sliding-plate rheometer (HPSPR) and two rotational rheometers were used.   

In the HPSPR the shear deformation, temperature, pressure, and SCF concentration were all uniform. A shear-stress transducer sensed the stress in the center of the sample to avoid edge effects. It was possible to use shift factors for temperature, pressure, and SCF concentration to obtain a master curve.   

The effect of temperature could be described by the Arrhenius equation, and the effect of pressure was described by the Barus equation. The effect of concentration of CO2 could be modeled using the Fujita-Kishimoto equation. The relative effects of concentration, pressure, and temperature on the viscosity were quantified.</video:description>
      <video:publication_date>2008-08-13</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=140</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=140</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=140</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/140/150-Nanoplatelet.jpg</video:thumbnail_loc>
      <video:title>Exfoliated Graphite Nanoplatelet (xGnP) /Polypropylene Nanocomposites</video:title>  
      <video:description></video:description>
      <video:publication_date>2008-08-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=139</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=139</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=139</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/139/150-Halloysite.jpg</video:thumbnail_loc>
      <video:title>Applications of Halloysite Nanotubes in Polymer Composites</video:title>  
      <video:description>Polymer nanocomposites are an area of intense research and development, due to their ability to provide stronger and lighter materials.   

 Despite the improvements in weight and strength obtained in typical platy clay nanocomposites, they are difficult to process, as a result of the laminar structure of the clay.  Conventional nanoclays require exfoliation to separate the layers and obtain the dispersion needed for uniform properties in the nanocomposite material.      

Halloysite nanotubes (HNTTM) do not require exfoliation, making it possible to obtain  stronger, lighter materials without the complexity and processing cost associated with exfoliation .  Halloysite is a naturally occurring aluminosilicate clay with a tubular structure believed to be the result of hydrothermal alteration, or surface weathering, of aluminosilicate minerals.    

Our results for nylon/HNT and polypropylene/HNT polymer nanocomposites indicate that an increase in modulus and strength is obtained with little reduction in elongation.  Typical HNT nanocomposites exhibit improvements in flexibility and fatigue, relative to conventional fiber reinforced composites.  Well-dispersed HNT polymer concentrates, called PleximerTM, have been prepared at HNT concentrations as high as 30%.  Additionally, acrylic polymer latex/HNT dispersions are stable up to concentrations as high as 30% HNT.    

Coatings made from these latex formulations exhibit a ten fold increase in storage modulus, while maintaining key properties such as transparency and tack.  It is also possible to fill HNTs with active agents to impart unique properties to nanocomposite materials.  Active agents can include antimicrobial compounds, lubricants, and fragrances.</video:description>
      <video:publication_date>2008-08-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=138</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=138</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=138</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/138/150-polymer-history.jpg</video:thumbnail_loc>
      <video:title>Polymers - Taking Stock of the Past, a Look at the Present, and Pondering Future Growth and Challenges</video:title>  
      <video:description>The speaker will review the field of polymeric materials– polymers, plastics and rubbers - from its origins to the present: from the introduction of natural rubber to the West by the colonizing countries during the First Globalization period (1492 – 1800);   

- to the genesis and establishment of 19th Century, post-industrial revolution, extensive Rubber, Cellulosics and Phenolics industries and technologically important products, during a period referred to as the start of the Second Globalization;   

- to the 20th Century first awareness of the macromolecular nature of plastics, which gave birth to the fields of polymer chemistry, science and engineering; to the post WWII “Golden Age of Plastics”, a period of phenomenal growth of plastics as indispensable consumer and technological products, establishment of a “complete” multinational chemical/polymer industry, professional plastic societies, and the creation of a first-rate global industrial-academic-government research and education establishments.   

The speaker will focus on the national and global technical and economic “drivers” at work during this entire period.  He will consider and discuss the emerging and future plausible “drivers” which may influence the direction and growth of the field in the current Third Globalization period, when the world has become fiber-connected, web-enabled, tiny , and a “flat” global playing field.   

The unprecedented growth in computing power, electronic materials, and instrumentation is enabling the “multi-scale” examination of nature in the physical and life sciences. Polymers, as a multi-disciplinary field, will become inextricably connected to the macromolecular, cellular and micro(organism) hierarchical levels of life, through polymer nano- and micro-devices.   

Finally, the global imperative of “Going Green”, where the technological avenues to “get there” will be life-process imitating, will also put polymers in the “eye of the storm”.</video:description>
      <video:publication_date>2008-08-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=137</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=137</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=137</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/137/150-micromolding.jpg</video:thumbnail_loc>
      <video:title>Micromolding Processes</video:title>  
      <video:description>Micro molding has emerged as an effective method for net-shape mass production of micro components. In the fast growing telecommunication, electronic, biomedical and biochemical industries, micro molding is becoming a routinely used method for microfabrication.   

With micro molding techniques (e.g., micro injection molding, hot embossing, casting, and other hybrid processes), micro parts and parts with microfeatures can be fabricated in a cost-effective way, and a variety of engineering materials including polymers, metallic alloys, and ceramics can be processed.   

The consideration of process setup, tooling, material structure, and simulation in micro molding, however, is quite different from that in conventional molding. Due to the so-called size effect, some proven strategies in conventional molding need to be modified for the successful adaptation into the micro world. 

  Recent advances in micro molding related to processing, tooling, materials, modeling, and process control will be highlighted in this video.</video:description>
      <video:publication_date>2008-08-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=136</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=136</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=136</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/136/150-fillers_nanocomposite.jpg</video:thumbnail_loc>
      <video:title>Melt dispersion of Fillers for Nanocomposite Applications</video:title>  
      <video:description>The success of filler enhanced polymer nanotechnology is highly dependent on the extent of filler dispersion in the polymer matrix. However, many of us already experienced the difficulty of such a task. 
  
The expected learning outcome of this video is to gain a better understanding of the key issues involved in filler dispersion and to use the knowledge gained to design successful nano-dispersion technology.   

Don't miss this opportunity to hear about nano-fillers dispersion best practices... It could prevent you from having to invest in a PhD internship and doing three years of research to achieve the same goal!
  
What will be covered in this video: 
- The needs for filler dispersion  
 
 - The difference between nanotechnology and traditional micro-dispersion technology  
 - Strategies of nano-dispersion according to filler structure  
 - Thermodynamic and kinetic considerations of filler dispersion   
 - The key factors for filler dispersion in processing</video:description>
      <video:publication_date>2008-08-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=135</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=135</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=135</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/135/150-bioplastic_compounding.jpg</video:thumbnail_loc>
      <video:title>Bioplastics: Additives, Modifiers and Compounding</video:title>  
      <video:description>The use of Bioplastics is currently limited by the narrow range of properties available to product designers and manufacturers of products. This video will explore the ways in which the properties can be expanded to provide performance tailored to new durable and degradable product markets without compromising the fundamental characteristics associated with bioplastics.  

This video will benefit professionals within the plastics industry. It is ideally suited to designers, engineers, technicians and staff who are currently already familiar with plastics materials and compounding operations. It will show how to move into bioplastics with the best possible performance to meet the needs of designers and material suppliers and open fresh markets for brand owners .   

WHAT WILL YOU GET FROM THIS VIDEO? 
  
1. Clear understanding of the key commercial bioplastics and their limitations  
2. Knowledge of which properties are easily enhanced to create new performance limits  
3. How to select specific additives to modify the properties and how they perform  
4. How to process bioplastics and gain maximum performance an minimum property loss  
5. How to ensure the compostablity of bioplastics is not compromised.</video:description>
      <video:publication_date>2008-08-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=134</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=134</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=134</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/134/150-spc.jpg</video:thumbnail_loc>
      <video:title>Statistical Process Control:
Will Your Process Make Products Meeting Customer Specifications?</video:title>  
      <video:description>The ultimate goal when developing a product is to achieve a part / formulation that can be produced at a larger scale where systematic controls for specification compliance are not feasible. At the same time, companies need to be able to ensure their customer that the product will meet their requirements. 

  At the development stage, Statistical Process Control provides the means, via analysis of samples, to assure that the industrial process will be capable and stable and later that the product coming out of production lines meets specification.</video:description>
      <video:publication_date>2008-08-11</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=133</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=133</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=133</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/133/150-REACH3.jpg</video:thumbnail_loc>
      <video:title>REACH: Getting Ready for Pre-Registration</video:title>  
      <video:description>REACH STATUS:   

- REACH, the new EU Regulatory Framework for Registration, Evaluation, Authorization &amp; Restriction of Chemicals entered into force on June 1, 2007  

.- On June 1st, 2008 the European Chemicals Agency in Helsinki/Finland will be fully operational and the need to register with the Agency comes into force.   

- June 1st 2008 marks also the start of the pre-registration for phase-in chemicals - the pre-registration period is from June 1st - November 30th, 2008.  

It is the time for the industry to decide about which phase-in substances to pre-register and how to approach the succeeding step, registration.   
Watch this video and get valuable advice on how to perform your REACH compliance responsibilities AND get a clear roadmap of actions to take to get ready on time.</video:description>
      <video:publication_date>2008-07-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=132</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=132</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=132</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/132/150-pvc.jpg</video:thumbnail_loc>
      <video:title>Status of Poly Vinyl Chloride (PVC) in europe, 2008</video:title>  
      <video:description>The aim of this presentation is to give an overview and update of technical trends in the market for PVC (both rigid and flexible applications) in Europe in recent years.   

A particular emphasis on the effect of regulations will be given, including the potential effect of the REACH regulation and the development of specific regulations in certain markets such as interior and automotive applications and food packaging.   

There will also be some discussions of industry efforts to achieve sustainable development objectives.  

Get up to date on the market developments and better knowledge of forthcoming regulatory pressures!   

- Innovation continues in the PVC industry: new additives continue to be developed and PVC can meet new challenges.   

- New geographic markets for flexible PVC has resulted in the development of new products and formulations.  

- Every company involved in the production or import of plastics will be affected by the REACH regulation.   

- PVC can meet the regulatory challenges of 21st Century geographic markets for flexible PVC have driven new developments in formulation.   

- The PVC industry is closely involved with sustainable development.</video:description>
      <video:publication_date>2008-07-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=131</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=131</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=131</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/131/150-Sealantplasticizers.jpg</video:thumbnail_loc>
      <video:title>Plasticizers in Caulks and Sealants</video:title>  
      <video:description>Plasticizers are used primarily to soften PVC, but other significant applications also require their use.   

In this presentation, the basics of plasticizer technology, the types of plasticizers available, and plasticizer selection will be discussed.   

The discussion will then address specific performance examples: a plastisol sealant used in automotive applications; polysulfide sealants used by the insulating glass industry; and latex caulks. Types of plasticizers used in these applications will be discussed, as well as the effect of plasticizer selection on product performance.   

This e-Live presentation will in general address formulating with plasticizers.</video:description>
      <video:publication_date>2008-07-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=130</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=130</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=130</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/130/150-sixsigma.jpg</video:thumbnail_loc>
      <video:title>12 Steps to Six Sigma - Robust Product Development Process</video:title>  
      <video:description>Faced with increasing demands from the market and regulatory agencies, manufacturers must establish a robust product-development process that incorporates sound engineering.   

A systematic approach, one that is logical and scientific, leads to cost reduction, reduced time to market, prevention of premature failures, and minimal rework loops.   

This presentation focuses on traditional vs. systematic approaches to product design and development, concurrent engineering practices, and 12 critical steps to follow to minimize cost overruns and project delays.   

The discussion centers on basic part design, material selection, structural analysis, mold-flow analysis, importance of rapid prototyping, design reviews, single-cavity prototyping, tolerance analysis, establishing tooling protocols, navigating through the mold-construction phase, mold sampling and pilot runs, DOE/CPK studies, establishing process parameters, and final part evaluation and acceptance.</video:description>
      <video:publication_date>2008-07-18</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=129</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=129</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=129</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/129/150-birefringence.jpg</video:thumbnail_loc>
      <video:title>Rheological Methods for Fingerprinting Polyolefin Processing Behavior</video:title>  
      <video:description>Rheology is a powerful tool that can be used to relate polyolefin rheological behavior to molecular structure and, furthermore, to “fingerprint” polyolefin behavior during processing.   

This presentation will demonstrate the power of rheology in polyolefin characterization. In particular, extensional flow measurements generate highly directional flow fields that are very sensitive to the molecular structure of a polymeric system. In one case, extensional flow and peel results in the melt state provide insight into the origins and mechanisms of flow instabilities such as melt fracture.   

Shear rheology (linear viscoelasticity) is also a useful tool for studying structure-property relationships.   

Finally, capillary rheology can be utilized to study polyolefin idiosyncrasies in processing.   

A surprising example will be presented: capillary rheology was able to detect the presence of long-chain branching, whereas shear and extensional rheology could not.</video:description>
      <video:publication_date>2008-07-18</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=128</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=128</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=128</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/128/150-Bioplasticspe.jpg</video:thumbnail_loc>
      <video:title>Bioplastics - New Generation Polymer Materials for Reducing Carbon Footprint and Improving Environmental Performance</video:title>  
      <video:description>Bioplastics from renewable resources offer the intrinsic value proposition of a carbon neutral footprint and in complete harmony with the natural biological carbon cycle. This presentation explains the fundamental principles on which this is based.   

To be classified as “bio” or biobased, the bioplastic or bioproduct must be organic and contain recently fixed (new) carbon from annually renewable resources. Identification and quantification of bio (biobased) content is based on the radioactive C-14 signature associated with (new) bio carbon and is measured as the percent weight of bio carbon to the total organic carbon present in the product. This approach has been codified in ASTM standard D6866, and forms the basis of U.S. Federal law mandating the procurement of biobased products.   

This presentation explains the principles of this test method, and provides examples of the experimental and theoretical calculations. However, one has to be careful that the intrinsic value proposition of a zero carbon footprint in using bio/renewable feedstocks is not negated during the conversion to product and ultimate use and disposal.   

This presentation reviews how to compute a product’s carbon and environmental footprint using LCA (life cycle assessment) tools and illustrate it with starch foam and poly(lactic acid) products as examples.
Biobased and biodegradability are not the same -- not all biboased products are biodegradable, and not all biodegradable products are biobased. Complete biodegradability in conjunction with disposal systems like composting, anaerobic digestors provides an ecologically sound end-of-life option by ensuing complete removal of the product from the environment through the microbial food chain. However it is very important to ensure that any degraded fragments generated are completely consumed by the microorganisms within a short time in the specified disposal environment, otherwise there are serious environmental and health consequences.</video:description>
      <video:publication_date>2008-07-18</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=127</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=127</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=127</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/127/150-Polyolefin_Elastomers.jpg</video:thumbnail_loc>
      <video:title>High Melt Strength Polyolefin Elastomers - An Enabling Technology for TPOs</video:title>  
      <video:description>High-melt-strength polyolefin elastomers with long-chain branching enable processors to expand the use of thermoplastic polyolefins (TPOs) in processes such as thermoforming, profile extrusion, injection molding, and blow molding, where conventional elastomers have previously had difficulty. The numerous benefits of long-chain branching include increased melt strength, reduced gloss, and enhanced shear thinning (for extrusion and injection molding), and these benefits have been demonstrated with polypropylene blends for both hard and soft TPOs.   
This presentation demonstrates the key performance features of TPE-olefin compositions that use these high-melt-strength elastomers.</video:description>
      <video:publication_date>2008-07-02</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=126</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=126</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=126</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/126/150-inmold_labelling.jpg</video:thumbnail_loc>
      <video:title>An Introduction to In-Mold Labeling (IML)</video:title>  
      <video:description>Interest and applications for In-Mold Labeling (IML), which is primarily used for packaging applications, are rapidly increasing in the U.S., although it has been well established in Europe for many years.   
There are several technical considerations in terms of the label, mold, automation, and machine, but the process can be quite cost-effective for the small or large processor because of the flexibility the technology offers.   
This presentation will examine the various requirements and options for IML for a range of molded products and will include discussion about the key system components. Examples of actual IML applications will be used to demonstrate the ease-of-use and reliability today’s technology offers.</video:description>
      <video:publication_date>2008-07-02</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=125</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=125</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=125</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/125/150-Datasheet.jpg</video:thumbnail_loc>
      <video:title>Material Selection and Datasheet Interpretation</video:title>  
      <video:description>For most designers and Plastics engineers, optimum material selection for a given application remains one of the most difficult and daunting task. After all there are over fifty thousand grades of plastics in existence today. Material selection job is further complicated by standardization issues, difficulty in comparing reported data on equal basis, lack of availability of multi-point measurement data, disconnect between test data and real-world conditions and so on.   

The presentation will focus on how to improve the understanding of the data sheets provided by the material suppliers, application of test data to practical use, guidelines for selecting materials using supplier data sheets, how to interpret the reported test data and more importantly how to understand the limitations of the test data, basic material selection process and how to take advantage of the computerized material selection using plastics material database.</video:description>
      <video:publication_date>2008-07-01</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=124</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=124</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=124</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/124/150-polyolefin_stabilization.jpg</video:thumbnail_loc>
      <video:title>Polyolefins Stabilization: Food contact and organoleptic focus</video:title>  
      <video:description>Problems of stabilizers selection for your polyolefin products when it comes to organoleptic and food contact properties?  

C. Totelin will share his experience during this one hour and half online course and help you to optimize the performance/cost ratio of your formulation with a wiser range of stabilizer available</video:description>
      <video:publication_date>2008-06-30</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=123</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=123</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=123</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/123/150-carbon_footprint.jpg</video:thumbnail_loc>
      <video:title>Carbon Footprints - Who cares and why...</video:title>  
      <video:description>There is a need in the industry to find a consistent way for carbon messages and brand communications, because ultimately brand credibility is at risk.  

Go beyond the environmental arguments and analyze the business value for climate change initiatives with this e-training session.</video:description>
      <video:publication_date>2008-06-30</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=122</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=122</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=122</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/122/150-end_of_lile.jpg</video:thumbnail_loc>
      <video:title>Impact of the End of Life Vehicle Directive on your Business: Implications for the supply chain and eco-design strategies</video:title>  
      <video:description>This course has been especially designed to help you find ideas for future material development to be the winner automotive supplier: what product to develop to stay competitive.  

Attend this course and be able to:  
- Measure the impact of 'producer responsibility' regulation on your design strategies and material selection 
- Start applying the principles of 'clean design' and 'design for disassembly' 
- Optimize your material selection and R&amp;D strategies to stay competitive</video:description>
      <video:publication_date>2008-06-30</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=121</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=121</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=121</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/121/150-injmolsc.jpg</video:thumbnail_loc>
      <video:title>Scientific Processing for Injection Molding</video:title>  
      <video:description>The molding process consists of several variables. Each of these variables has an effect not only on the final quality of the part but also on the efficiency of the production run.   

It is imperative that the molding process parameters be optimized to produce an acceptable part. The final goal in any molding operation must be to have
 (i) Shot to shot consistency and 
 (ii) Run to run consistency.   

A process that needs constant tweaking from shift to shift and/or run to run is an unstable and unoptimized process. Mold trial iterations not only cost a lot of money but also take away valuable time.   

The speaker will discuss ways and means to achieve optimized robust processes. The topics will include: 
1) What is Scientific Processing? 
2) Drying and ‘Overdrying’ of Plastics 
3) Scientific Molding 
a) In-Mold Rheology 
b) Cavity Balance 
c) Pressure Drop in the mold 
d) Process Window 
e) Gate Seal 
f) Cooling time optimization 
4) Post Mold Shrinkage Studies 
5) Process Documentation 
6) Further improvements using proven supplementary technologies</video:description>
      <video:publication_date>2008-06-02</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=119</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=119</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=119</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/119/150-plasticselec2.jpg</video:thumbnail_loc>
      <video:title>Plastics in Electronics Devices - Part 2/2: Application &amp; Development Challenges</video:title>  
      <video:description>Matchless plastics property balances together with design/processing methods often provide economical solutions that justify their supremacy in the electronics market. R&amp;D is underway using advanced plastics and plastics related materials to develop new approaches to electronic devices.   
In less than 2 hours, benefit from a snapshot of what is going on in the electronic plastics: application and development challenges. This course will be highly practical with references to several case studies. Attendees will come away with all the tools needed to make good decisions relative to plastics in electronics. This will lead to strategically market positioned, best practice, and cost performance optimized plastics in electronics products.</video:description>
      <video:publication_date>2008-06-02</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=118</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=118</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=118</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/118/150-plasticselec1.jpg</video:thumbnail_loc>
      <video:title>Plastics in Electronics Devices - Part 1/2: Material Technologies &amp;amp; Trends</video:title>  
      <video:description>Matchless plastics property balances together with design/processing methods often provide economical solutions that justify their supremacy in the electronics market. R&amp;D is underway using advanced plastics and plastics related materials to develop new approaches to electronic devices.   
In less than 2 hours, benefit from a snapshot of what is going on in the electronic plastics: technology, materials and trends. This course will be highly practical with references to several case studies. Attendees will come away with all the tools needed to make good decisions relative to plastics in electronics. This will lead to strategically market positioned, best practice, and cost performance optimized plastics in electronics products.</video:description>
      <video:publication_date>2008-06-02</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=117</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=117</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=117</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/117/150-mold-shrinkage.jpg</video:thumbnail_loc>
      <video:title>In-Mold Part Shrinkage Rate Measurement</video:title>  
      <video:description>An on-line technique for characterizing part shrinkage rate in the mold
has been developed. This work was done to support the development of new
polyolefin-based elastomers for injection molded toy applications.  The
technique consists of measuring post-hold cavity pressure decay rate
inside the mold during the injection molding process.  The technique has
been validated using a range of materials including a semi-crystalline
polymer, an amorphous polymer, and formulated materials of varying
complexity.  It is believed that this technique can be a valuable tool
for application development when a precise match of processing
characteristics is desired for inter-polymer replacement.</video:description>
      <video:publication_date>2008-05-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=116</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=116</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=116</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/116/150-purging-compound.jpg</video:thumbnail_loc>
      <video:title>Myths and Realities of Purging for Extruders and Blow Molders</video:title>  
      <video:description>Despite the efforts of the makers of high-quality purging compounds, a number of myths persist regarding their usefulness and effectiveness. This presentation debunks three of the most damaging of these myths and discusses the realities that underlie them:  
1) “All purging compounds are alike.”  
2) “Purging compounds just don’t work.”  
3) “Purging compounds are too expensive for regular use.”   

We will explore why you should scrap everything you think you know about purging and adopt a changed view of this product class.</video:description>
      <video:publication_date>2008-05-19</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=115</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=115</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=115</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/115/150-risk1.jpg</video:thumbnail_loc>
      <video:title>Define your Risk Assessment Strategy - Part 1: Human Health</video:title>  
      <video:description>Attend this course and better understand the impact of "Risk Assessment" on your day-to-day work. Mel Cooke will discuss the regulatory framework and give you grounds for the risk assessment strategy so that you can tackle simple risk assessments, and understand when you need specialist help.</video:description>
      <video:publication_date>2008-04-28</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=114</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=114</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=114</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/114/150-energy1.jpg</video:thumbnail_loc>
      <video:title>Energy Management in Plastics Processing</video:title>  
      <video:description>If you see energy usage as fixed and uncontrollable and don’t know where to start to reduce the costs then this course is for you. Technical expert Robin Kent will help you reducing costs through using less - far more profitable.  
During the first session of this course, you will:   
 - Take control of energy costs and drive reduction efforts within the company.  
- Evaluate your competitive position in energy use at both the site and machine levels.</video:description>
      <video:publication_date>2008-04-28</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=113</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=113</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=113</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/113/150-plastic_selection.jpg</video:thumbnail_loc>
      <video:title>Plastics Material Selection</video:title>  
      <video:description>Materials selection is fundamental to the success of a new product, design, or application.  Today's engineer is faced with a myriad of design
considerations, coupled with an extraordinary number of available resin
grades when selecting the optimum material candidate for a functional
product.  The problem lies in fully knowing what will be required of the
product in a wide range of use / abuse environments along with understanding the true functional behavior of the polymer.
  
Topics included in this session include:
  
Review of polymer basics. 
Considerations in material selection.. 
Case studies of material selection and replacement.. </video:description>
      <video:publication_date>2008-04-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=112</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=112</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=112</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/112/150-plastic_bonding.jpg</video:thumbnail_loc>
      <video:title>Fundamentals of Plastics Bonding</video:title>  
      <video:description>Plastics bonding with adhesives raises different challenges from those found in metals bonding. With increasing interest in bonding plastics to themselves and to other materials comes a need for understanding the special needs of plastics bonding.   

In cooperation with the Adhesive and Sealant Council, this course addresses considerations affecting plastics bonding: surfaces and surface preparation, joint design, application processes, allowance for environmental stresses, and selection of proper adhesives for given substrates. It will be of interest to design engineers, manufacturing engineers, materials engineers, process engineers, and engineering managers who wish to develop a basic understanding of the needs and applicability of plastics bonding using adhesives.</video:description>
      <video:publication_date>2008-04-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=111</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=111</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=111</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/111/150-automotive_plastic2.jpg</video:thumbnail_loc>
      <video:title>What Happened Last Year in Automotive Plastics? 
Part 2/2: Application &amp; Development Challenges</video:title>  
      <video:description>Have you heard about Hyundai´s Eco and Safety Focused "QarmaQ" Concept Car, Natural Fiber Composite for Mercedes-Benz Spare Tire Cover or Horizontal Body Panel Thermoplastic Composites?  

This session is a second part of a two-part e-Training Course which covers and analyzes basic and applied R&amp;D on various advances in automotive plastics trends, application developments, and material/processing technologies.  

Please be aware that you can follow this course without attending the first part.</video:description>
      <video:publication_date>2008-04-08</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=110</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=110</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=110</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/110/150-automotive_plastic.jpg</video:thumbnail_loc>
      <video:title>What Happened Last Year in Automotive Plastics? 
Part 1/2: Material Technologies &amp; Trends</video:title>  
      <video:description>This two-part e-Training Course will cover and analyze basic and applied R&amp;D on various advances in automotive plastics trends, application developments, and material/processing technologies.</video:description>
      <video:publication_date>2008-04-08</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=109</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=109</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=109</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/109/150-stress-cracking.jpg</video:thumbnail_loc>
      <video:title>Environmental Stress Cracking and Other Solvent Effects</video:title>  
      <video:description>If you deal with plastic components, then “Environmental Stress Cracking and Other Solvent Effects” will provide you with information that will enhance your understanding of the interaction between chemicals and plastic resins, and help prevent premature failure. Topics covered during this session include introduction to environmental stress cracking and other solvent effects and explanation of the failure mechanisms characteristic of chemical/plastic interaction. Case studies of several common polymeric failure modes associated with chemical interaction will be presented.</video:description>
      <video:publication_date>2008-03-25</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=108</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=108</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=108</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/108/150-patent3.jpg</video:thumbnail_loc>
      <video:title>Patent Law Fundamentals for Scientists, Engineers &amp; Managers, Part 3</video:title>  
      <video:description>Learn the parts of a U.S. patent including the information page, the drawing, the written description, and the claims. You will also learn how to read the parts of a patent and the important criteria included in each part with a particular emphasis on the claims. Steps in preparing a patent application and how inventors can best assist the patent attorney drafting the patent application will be reviewed. Finally, steps in prosecuting a patent application to get it granted and how inventors can best assist the patent attorney prosecuting the patent application will be reviewed</video:description>
      <video:publication_date>2008-03-25</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=107</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=107</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=107</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/107/150-digital_ink.jpg</video:thumbnail_loc>
      <video:title>Promoting Digital Ink Adhesion on Non-Porous Substrates</video:title>  
      <video:description>The aim of this course is to help you understand the adhesion issues presented by digital ink technologies, overcome current impediments to adhesion with low polarity substrates, and increase productivity with the potential of avoiding primer costs.   

Digital printing inks are gradually being introduced to an ever-widening array of substrates such as resin-coated papers, boards, fabrics, plastic films, metalized products, as well as three-dimensional objects for automotive parts and medical devices.  

However, these introductions have not been without adhesion problems. Materials such as rigid PVC and acrylics, for example, have required solvent-based primers to promote adhesion between energy-curable digital inks and these low polarity surfaces.   

This presentation describes the surface-to-digital ink dynamics relative to ink quality and viscosity, surface tension, the fine line between adhesion and ink cure, and suggests solutions for digital ink adhesion issues.</video:description>
      <video:publication_date>2008-03-11</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=106</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=106</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=106</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/106/150-weee.jpg</video:thumbnail_loc>
      <video:title>Understanding the WEEE and RoHS Directives</video:title>  
      <video:description>Are you interested in a better understanding of the impact of the WEEE and RoHS Directives on your business? Join SpecialChem expert Vic Clements for this online course  

The legislative background to these directives will be presented and their interrelationship will be discussed, in particular in regard to interpretation of scope.  

The course will then examine who is responsible for complying. The differences in implementation of the WEEE directive between member states will be identified as well as the impact this has had on compliance systems. The basic requirements of each directive will be presented and the compliance processes will be discussed.   

Finally the possible enforcement actions will be reviewed and the actions needed to comply with each directive will be summarised.</video:description>
      <video:publication_date>2008-03-11</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=105</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=105</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=105</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/105/150-patentspe2.jpg</video:thumbnail_loc>
      <video:title>Patent Law Fundamentals for Scientists, Engineers, and Managers - Part 2</video:title>  
      <video:description>With this second part, you will learn the fundamentals of patent searching using the United States Patent and Trademark Office web site and other free web sites. In particular, the types of patent searches, and searching by classification, text and citations will be reviewed. Attendees will also learn the requirements for patentability, including patentable subject matter, utility, novelty and non-obviousness. Finally, formalities associated with U.S. application filing including the duty of disclosure, the information disclosure statement, the oath/declaration and the assignment will be reviewed.</video:description>
      <video:publication_date>2008-02-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=104</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=104</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=104</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/104/150-patentspe.jpg</video:thumbnail_loc>
      <video:title>Patent Law Fundamentals for Scientists, Engineers, and Managers - Part 1</video:title>  
      <video:description>The first part of this program is an introduction to trade secrets and patents and the important differences between these two forms of intellectual property protection. Attendees will also learn the basics of U.S. inventorship law, and how inventorship is determined relative to a new invention. Attendees will also learn the importance of documenting inventions in a lab notebook and in an invention disclosure form. Finally, the 3 types of patents (utility, design, and plant) available in the U.S. will be reviewed in detail.</video:description>
      <video:publication_date>2008-02-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=103</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=103</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=103</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/103/150-aircraft.jpg</video:thumbnail_loc>
      <video:title>Flammability Requirements for Commercial Airplanes</video:title>  
      <video:description>Flammability requirements for commercial airplanes will be reviewed.
Government certification requirements including vertical &amp; horizontal
burn, heat release, smoke generation, and radiant panel tests will be
discussed. Manufacturer's requirements including toxic gas emissions,
and additional smoke requirements will also be covered.</video:description>
      <video:publication_date>2008-02-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=102</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=102</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=102</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/102/150-doe_pic.jpg</video:thumbnail_loc>
      <video:title>Introduction to the Design of Experiment Process</video:title>  
      <video:description>DOE is probably one of the most widely recognized and least implemented of the experimental tools available to researchers and engineers. The purpose of this course is to introduce the fundamentals of DOE through discussion of the underlying principles and to go through examples demonstrating how to conduct a basic DOE experiment.  

Additionally, a discussion of the experimental practices that are needed to design a DOE Experiment will highlight the requirements for an optimal DOE design selection and conducting the DOE project.</video:description>
      <video:publication_date>2008-02-12</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=101</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=101</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=101</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/101/150-plastic-failure.jpg</video:thumbnail_loc>
      <video:title>Plastic Parts Failure Analysis and Product Liability</video:title>  
      <video:description>This presentation has been designed to highlight the principles of Failure Analysis, Failure Prevention and Product Liability as it relates to plastic parts. Understanding why plastic parts fail will help you correct and prevent premature failures and develop safe, successful, cost-effective products.   

The workshop will focus on the main reasons behind part failures and how to solve the most common and troublesome problems facing the designers, manufacturers and end-users of plastic products. Product Liability lawsuits can have devastating effect on businesses. Major objective of this workshop is to teach attendees how to take proactive approach to prevent such lawsuits by designing a well documented quality program.</video:description>
      <video:publication_date>2008-01-29</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=100</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=100</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=100</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/100/150-Plasticating-Extruders.jpg</video:thumbnail_loc>
      <video:title>Flow Surging in Single-Screw, Plasticating Extruders</video:title>  
      <video:description>Flow surging is defined as the oscillatory change in the output rate of an extruder while maintaining constant set point conditions. Flow surging can originate from many different sources including improper solids conveying, melting instabilities, and improper control algorithms. Surging in most cases results in lower production rates, higher scrap rates, material degradation, and higher labor costs. In this presentation numerous case studies along with diagnostic methods are presented for processes that flow surged.</video:description>
      <video:publication_date>2008-01-29</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=99</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=99</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=99</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/99/150-packaging-recycling.jpg</video:thumbnail_loc>
      <video:title>High Performance Recycling of Plastic Packaging</video:title>  
      <video:description>If you are dealing with plastic packaging, this course will be of interest for you. Don't miss this opportunity to join our expert Edward Kosior to discuss one of the hotest topic in the packaging industry: SUSTAINABILITY.</video:description>
      <video:publication_date>2008-01-14</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=98</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=98</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=98</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/98/150-REACH_Compliance.jpg</video:thumbnail_loc>
      <video:title>REACH - Defining Compliance Strategies</video:title>  
      <video:description>This course has been developed to help you define your compliance strategies with regards to REACH.   

It will focus on the practical approach for the different application areas (Coatings &amp; Inks - Polymer - Cosmetics &amp; Toiletries) and will highlight where the European Chemicals Agency (ECHA) and the REACH implementation projects (RIPs) have made further clarifications.   
This course will also give a short summary on the background and the basic principles of the REACH.</video:description>
      <video:publication_date>2008-01-14</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=95</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=95</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=95</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/95/150-bioplastic_2.jpg</video:thumbnail_loc>
      <video:title>Advances in Bioplastics Part 2/2: Application &amp; Development Challenges</video:title>  
      <video:description>The development, clarification and application of an effective marketing strategy are the most important steps for any firm planning a serious investment in bioplastics. While growth in the bioplastics industry is assured there are various factors to consider.

With this 2-part online course, Don Rosato will guide you with your bioplastics development strategy: jump on board for the bioplastics development tour of the year! 

After reviewing the different bioplastics material technologies in the first part, Don's focus in Part 2 will be on the end-use market applications for each of those bioplastic materials.</video:description>
      <video:publication_date>2007-12-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=94</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=94</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=94</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/94/150-bioplastic_1.jpg</video:thumbnail_loc>
      <video:title>Advances in Bioplastics Part 1/2: Material Technologies &amp; Trends</video:title>  
      <video:description>Many producers are manufacturing blends of degradable materials either to improve the properties of these materials or to reduce product costs. Increased interest in reducing polymer production dependence upon petroleum is also leading to the development of new bioplastics. 

The development, clarification and application of an effective marketing strategy are the most important steps for any firm planning a serious investment in bioplastics. While growth in the bioplastics industry is assured there are various factors to consider.

With this 2-part online course, Don Rosato will guide you with your bioplastics development strategy: jump on board for the bioplastics development tour of the year! 

Part 1 will present the bioplastics market as well as a complete picture of the different material technologies (genetically modified biomolecules, PHA or PHB, PLA, and starch-based polymers, etc...).</video:description>
      <video:publication_date>2007-12-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=93</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=93</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=93</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/93/150-thermoforming.jpg</video:thumbnail_loc>
      <video:title>The Process of Thermoforming: Where Are We? Where Are We Going?</video:title>  
      <video:description></video:description>
      <video:publication_date>2007-12-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=92</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=92</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=92</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/92/150-metallization.jpg</video:thumbnail_loc>
      <video:title>Metallization Technology of Polymer Products</video:title>  
      <video:description>Polymers are metallized by several processes ranging from vapor deposition to electroplating. This presentation reviews the metallizing technologies existing today and discusses advances in the science, technology and materials used to produce metallized polymers and the various end uses for them.</video:description>
      <video:publication_date>2007-12-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=91</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=91</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=91</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/91/150-Breathable-Polymers.gif</video:thumbnail_loc>
      <video:title>Breakthrough in Breathable Polymers: Morphology, Properties, and Performance</video:title>  
      <video:description>Ethylene copolymers have been widely used in packaging applications. The ethylene ionomers achieve unique property characteristics through development of network morphology which imparts outstanding clarity, drawability, toughness, and abrasion resistance. In this presentation we discuss the development of ionomers with novel performance: that is, selective gas transmission is greatly increased while mechanical properties are maintained. We show the effect of composition on morphology and demonstrate the utility of these novel compositions in packaging applications requiring high selective breathability.</video:description>
      <video:publication_date>2007-11-22</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=90</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=90</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=90</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/90/150-laser_marking2.jpg</video:thumbnail_loc>
      <video:title>Laser Marking of Plastics and Coatings: 
Advanced Techniques for Achieving High Contrast Quality &amp; Speed</video:title>  
      <video:description>Industry recognized expert, Scott Sabreen, will present new "state-of-the-art" for
Laser Marking of Plastics and coatings (liquid &amp; powder applied). This conference
presents numerous advanced technical updates for plastics laser marking to achieve
unprecedented high quality marking contrast and fine line edge detailed results.
Major emphasis pertains to specific product applications and the selection of the
optimal laser marking system. This new presentation builds upon the first conference
on "Advanced Technologies for Laser Marking of Plastics".</video:description>
      <video:publication_date>2007-11-22</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=89</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=89</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=89</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/89/150-shrink-film.jpg</video:thumbnail_loc>
      <video:title>Characterization of Crosslinked Heat-Shrinkable Packaging Films by Wei Zhang, Virginia Polytechnic Institude and State University</video:title>  
      <video:description>The characteristic features of polyolefin films that have been irradiation crosslinked prior and after orientation have been studied using two types of tests: free shrink and shrink force tests. The results from these two tests have been correlated to provide a novel analysis method for manufacturing process control and provide key parameters for application of the heat-shrink films. The shrink behavior can be described using various graphical tools generated from these tests in the term of tendency of shrink (shrinkage stress) and extent of shrink (unconstrained recoverable elastic strain). The residue energy calculated from the synthesized stress-strain plots provides insight into the mechanism heat shrinkable films.</video:description>
      <video:publication_date>2007-11-07</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=88</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=88</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=88</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/88/150-Twin-Screw.jpg</video:thumbnail_loc>
      <video:title>Recent Trends and Developments in Twin-Screw Processing, Stuart Kapp, American Leistritz Extruder Corporation</video:title>  
      <video:description>The twin screw extruder has been the primary device used in the plastics industry for continuous mixing of polymers, additives, and fillers for over 60 years. As with most modern-day plastics processing machinery, advancements in metallurgy, machining techniques, and machine controls have opened up new avenues for novel processes, resulting in even greater versatility for the end user. Mr. Kapp will share his 17 years industry experience and review many of the recent advancements leading to today’s state-of-the-art technology. Topics discussed will include twin screw extruder design basics, terminology, mixing mechanisms, importance of related auxiliary equipment, and various applications from within and outside of the plastics industry.</video:description>
      <video:publication_date>2007-11-06</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=87</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=87</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=87</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/87/150-nanocop_design.jpg</video:thumbnail_loc>
      <video:title>Chemical and Engineering Issues in Polymer Nanocomposites Design by Sadhan Jana, University of Akron</video:title>  
      <video:description>The field of polymer nanocomposites has reached a certain level of maturity and we are in a position to design a number of polymer nanocomposite products to deliver certain desired properties. In this presentation, several examples will be presented where basic engineering principles are applied to design nanocomposite products of thermoplastic polyurethanes and blends of polyamide 6/polypropylene and polypropylene/polystyrene.</video:description>
      <video:publication_date>2007-10-22</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=86</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=86</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=86</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/86/150-syringe-pills.jpg</video:thumbnail_loc>
      <video:title>Improve Joining &amp; Adhesion of Medical Plastics Using Atmospheric Discharge Pre-treatment of Adherents</video:title>  
      <video:description>Many experiments have been performed globally to investigate ways of improving adhesion to structural polymers. This presentation discusses the specific types of polymers and adhesives used in the medical industry. It also addresses the principles of atmospheric plasma discharge surface pre-treatment devices and their benefits in promoting the joining and adhesion of medical plastics. An experimental design and key results will be shared, as well as specific solution propositions for enhancing structural plastic adhesions.</video:description>
      <video:publication_date>2007-10-22</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=85</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=85</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=85</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/85/150-plastic-megatrends.gif</video:thumbnail_loc>
      <video:title>Megatrends Affecting Plastics Manufacturing &amp; What Molders Can Do</video:title>  
      <video:description>The future for U.S. plastics manufacturing harbors different business conditions than the last several decades. “Megatrends Affecting Plastics Manufacturing &amp; What Molders Can Do” reflecting 2 years of research and analysis into fundamentals, looks at several major external trends, assesses their broad possible impact over the next several decades, and reviews major strategy choices for molders to consider. The trends discussed include potential energy supply limits, GDP trends in the context of economic 1st principles of Adam Smith (invisible hand) and David Ricardo (comparative advantage), globalization, and U.S. fiscal and demographic trends.</video:description>
      <video:publication_date>2007-10-01</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=84</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=84</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=84</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/84/150-plastic-recycling.gif</video:thumbnail_loc>
      <video:title>So you want to recycle plastics ?</video:title>  
      <video:description>Plastics are often made to be around a long time. It seems a shame, therefore, to use them in disposable applications such as packaging. So what’s the answer? Recycle of course. But is it always? Economic, political and environmental considerations as to why and how plastics are recycled will be discussed in this introduction to plastic recycling. Processes used by the plastics recycling industries will also be explored.</video:description>
      <video:publication_date>2007-10-01</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=83</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=83</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=83</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/83/150-Conductive-Polymers2.gif</video:thumbnail_loc>
      <video:title>Cutting Edge Technology &amp; Trends in Conductive Polymers - Part 2/2: Materials, Applications, and Strategy</video:title>  
      <video:description>Plastics, traditionally regarded as insulators, have in fact been extensively used by the electronics industry for this very property. Now, accelerated advances in the development of inherently conductive polymers (ICPs) are rapidly changing this narrow perspective, creating new application areas for plastics, because of their inherently conductive properties, including the growing microelectronics area.</video:description>
      <video:publication_date>2007-09-13</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=81</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=81</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=81</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/81/150-extrusion-ps.jpg</video:thumbnail_loc>
      <video:title>Extrusion Problems and Solutions</video:title>  
      <video:description>The instructor has worked in extrusion for over 50 years, written several practical books on this topic, and has given over 400 seminars (Introduction to Extrusion, Troubleshooting Extrusion) in one- and two-day formats since 1979. The discussion will focus on problems that affect most all extrusions.</video:description>
      <video:publication_date>2007-09-13</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=80</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=80</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=80</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/80/150-REACH-principles-compli.gif</video:thumbnail_loc>
      <video:title>REACH - Basic Principles &amp; Compliance Strategies</video:title>  
      <video:description>REACH STATUS 
June 1, 2007 is an important date for the Global Chemical Industry and its Users in the Supply Chain: The new EU Regulatory Framework for Registration, Evaluation, Authorization &amp; Restriction of Chemicals - REACH will enter into force.   
WHY REACH?  
The existing EU legislative framework for chemical substances comprises different rules for "existing" and "new" chemicals. With it, the overall information obtained about effects of chemicals on human health and the environment was insufficient. Also, the system hampered research and innovation.</video:description>
      <video:publication_date>2007-09-07</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=77</loc>
    <video:video>
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      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=77</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/77/150-surf-mod-auto.jpg</video:thumbnail_loc>
      <video:title>Surface Modification Techniques for Optimizing Adhesion to Automotive Plastics</video:title>  
      <video:description>You will get insights on the latest innovations in three-dimensional surface treating technologies for plastics finishing which address the need to:
- Advance adhesion properties for coating, printing &amp; decorating of automotive parts  
- Increase product quality (i.e. antistatic properties) 
- Achieve environmental objectives within the automotive industry
 
The innovations that will be discussed include advanced thermal and non-thermal discharge treatment processes for raising the polarity of surfaces to be painted, bonded, decorated, laminated, printed or to have tape applied. 

Solve all your issues related to decoration of car’s body panels, door handles, trim, instrument panels,… with this video!</video:description>
      <video:publication_date>2007-07-26</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=76</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=76</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=76</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/76/150-nanocomposites.gif</video:thumbnail_loc>
      <video:title>NanoTechnology Part 1: Explore the Possibilities of Nanostructuring by Gunter Beyer</video:title>  
      <video:description>Nanostructuring represents the beginning of a revolutionary new age in our ability to manipulate materials. The synthesis &amp; control of materials in nanometer dimension can generate totally new material properties &amp; device characteristics. To help you understand the opportunities offered by Nanostructuring, SpecialChem has invited Dr. Gunter Beyer, an internationally recognised expert for his contributions to nano-scale innovation, to give an online presentations that will expertly inform you of preparation techniques, key properties, potential markets &amp; trends, &amp; flame retardant applications for organoclay based nanocomposities.</video:description>
      <video:publication_date>2007-01-01</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=75</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=75</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=75</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/75/150-commercial-development.gif</video:thumbnail_loc>
      <video:title>The Commercial Development Process by William Tuszynski, White Eagle Group</video:title>  
      <video:description>This online course provides an overview of the critical elements needed to implement a successful corporate growth initiative. These factors are the same for initiatives based on organic growth, alliances or joint venturing or on merger &amp; acquisition activity. The first part of the course will focus on the importance of the strategic context as the framework for driving the growth initiative. We will then examine the tactical considerations used to manage commercial development projects. Finally, the pros &amp; cons of several organizational structures &amp; related "soft" factors in influencing success will be discussed.</video:description>
      <video:publication_date>2004-03-04</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=74</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=74</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=74</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/74/150-vented-barrier.gif</video:thumbnail_loc>
      <video:title>The Vented Barrier Screw by Stephen Derezinski, Extruder Tech, Inc.</video:title>  
      <video:description>The barrier screw concept has been modified to provide for venting (devolatilizing) of polymer through a bore in the drive-end of the screw. The melt channel of a typical barrier screw was redesigned to include a vent hole in the melt-channel root to release gasses through the bore. The screw design was tested &amp; shown to process &amp; devolatilize PET powder, PET pellets, &amp; PEN pellets at greater rates &amp; with less power than a conventionally vented two-stage screw in the same extruder with the very same polymers.</video:description>
      <video:publication_date>2005-12-01</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=73</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=73</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=73</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/73/150-asia-tooling1.gif</video:thumbnail_loc>
      <video:title>Asia Tooling &amp; Molding: How to be Successful by D. B. "Dusty" Rhodes, Waypoint Bellwether, Inc.</video:title>  
      <video:description>Today companies are faced with the reality that they must investigate global sources. Doing business in Asia for American tool shops &amp; molders has changed from a curiosity to necessity for many companies. Understanding the differentiation of mold construction standards in Asia vs. the U.S. is critical to being successful. There are different considerations if the mold will be used in Asia or shipped to the U.S to be run. It is important to know how to communicate effectively &amp; what your expectations should be. This presentation will take you through how to avoid pitfalls &amp; do the research necessary to be successful in Asia which will put money on the bottom line.</video:description>
      <video:publication_date>2006-03-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=72</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=72</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=72</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/72/150-chaotic-blending.gif</video:thumbnail_loc>
      <video:title>Formation of Barrier Plastic Materials by Chaotic Blending by Dave Zumbrunnen, Clemson University</video:title>  
      <video:description>Barrier plastics have been produced such as extruded films consisting of volumetrically distributed &amp; mechanically interlocked thin internal layers. Such barrier films do not require tie layers &amp; offer new opportunities for producing films with a combination of desirable physical properties. Inorganic nano-platelets have also been selectively placed &amp; aligned to give nanocomposites with multiple nano-layers favorable to barrier &amp; mechanical property enhancements. Because structuring occurs in a smart blender upstream of attached dies, chaotic blending is applicable to extrusions of various profiles &amp; can find application to injection molding. In this presentation, methods &amp;  smart blenders will be described &amp; examples of polymeric &amp;  nanocomposite barrier films will be shown.</video:description>
      <video:publication_date>2005-11-10</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=71</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=71</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=71</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/71/150-bonding-plastics2.gif</video:thumbnail_loc>
      <video:title>Bonding Plastics with Non-structural Adhesives by Edward Petrie</video:title>  
      <video:description>Plastic substrates generally present problems for adhesives due to their dynamic character, low surface energy, &amp; unique physical &amp;  chemcial properties. However, many plastics can be joined effectively with adhesives to provide structural products for use in abusive service environments.</video:description>
      <video:publication_date>2006-06-22</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=70</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=70</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=70</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/70/150-bonding-plastics.gif</video:thumbnail_loc>
      <video:title>Bonding Plastic Substrates with Structural Adhesives by edward Petrie</video:title>  
      <video:description>Plastic substrates generally present problems for adhesives due to their dynamic character, low surface energy, &amp; unique physical &amp;  chemcial properties. However, many plastics can be joined effectively with adhesives to provide structural products for use in abusive service environments.</video:description>
      <video:publication_date>2006-06-08</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=69</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=69</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=69</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/69/150-welding-plastics.gif</video:thumbnail_loc>
      <video:title>Welding Plastics: Cost- effective Solutions for Faster &amp; More Reliable Assembly by Edward Petrie</video:title>  
      <video:description>Whether in large industrial applications, medical devices, or hand-held electronics, consumer concerns like aesthetics, durability, &amp; cost keep designers constantly looking for new means to join thermoplastics in a fast, simple, &amp; reliable way. Heat welding continues to respond to the challenge, but needs to be understood in order to fully take advantage of it.</video:description>
      <video:publication_date>2005-09-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=66</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=66</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=66</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/66/150-patent-claim.jpg</video:thumbnail_loc>
      <video:title>Patent Claim Reading for Technical Personnel by Tim Pearson</video:title>  
      <video:description>Beginning a product development with a good understanding of the "prior art" in a particular field is critical to avoiding problems with "freedom to operate" problems later on in a development where the cost of failure can be much higher</video:description>
      <video:publication_date>2007-06-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=65</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=65</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=65</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/65/150-TPEreplacement2.gif</video:thumbnail_loc>
      <video:title>Thermoplastic Elastomer Applications Replacing Older Materials - Part 2: TPE Replacements for Rubber by Kenneth Kear </video:title>  
      <video:description>What are the opportunities to improve material selection with TPE? How do TPEs process advantages make the case for Rubber replacement? How do I select the right TPE for my system? How does the TPE choice affect processing, properties &amp; cost? What are the latest trends in TPEs replacing Rubber? </video:description>
      <video:publication_date>2007-06-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=64</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=64</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=64</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/64/150-TPEreplacement1.gif</video:thumbnail_loc>
      <video:title>Thermoplastic Elastomer Applications Replacing Older Materials - Part 1: PVC Replacement with TPE by Kenneth Kear </video:title>  
      <video:description>What are the opportunities to improve material selection with TPE? What characteristics in PVC applications dictate a TPE choice? How do I select the right TPE for my system? How does the TPE choice affect processing, properties &amp; cost? What are the latest trends in TPEs replacing PVC? </video:description>
      <video:publication_date>2007-06-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=62</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=62</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=62</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/62/150-nanoplastics.jpg</video:thumbnail_loc>
      <video:title>Latest Developments &amp; Trends in NANOPLASTICS &amp; POLYMER NANOCOMPOSITES by Don Rosato</video:title>  
      <video:description>Nanoplastics or polymer nanocomposites are formed from blends of nanometer sized fillers with either thermoplastic or thermoset polymers. The properties of polymer nanocomposites are remarkably different from those of conventional materials. These altered properties include improved strength, toughness, heat distortion temperature, UV resistance, barrier properties, thermal &amp; electrical conductivity. </video:description>
      <video:publication_date>2007-06-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=61</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=61</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=61</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/61/150-bioplastics.jpg</video:thumbnail_loc>
      <video:title>CUTTING EDGE BIOPLASTICS -Technology &amp; Trends by Don Rosato</video:title>  
      <video:description>The demand for bioplastics is being driven by a variety of social &amp; economic drivers. The record high prices of oil &amp; natural gas, the raw materials basis for many consumer products, are breathing new life into initiatives to produce plastics from renewable resources. </video:description>
      <video:publication_date>2007-06-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=60</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=60</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=60</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/60/150-blowmolding2.jpg</video:thumbnail_loc>
      <video:title>GOOD PRACTICES FOR PET BLOW MOLDING Part 2: Preform Design Optimization for PET containers by Ottmar Brandau</video:title>  
      <video:description>The main reason for an optimized preform design is an optimal bottle. That means a bottle that will withstand or exceed all the testing that is done to ensure product safety &amp; package integrity during transport, storage, &amp; use. Most of this is achieved by having the optimal wall thickness distribution in the bottle.</video:description>
      <video:publication_date>2007-05-11</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=59</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=59</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=59</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/59/150-blowmolding1.gif</video:thumbnail_loc>
      <video:title>GOOD PRACTICES FOR PET BLOW MOLDING Part 1: Shelf Life Limitations &amp; Acetaldehyde Migration Troubleshooting by Ottmar Brandau</video:title>  
      <video:description>PET has taken the packaging industry by storm. This presentation will explore the reasons behind this phenomenal success story &amp; will focus on 2 major issues encountered by PET containers: the shelf life limitations &amp; the migration of acetaldehyde from the bottle to the contents.</video:description>
      <video:publication_date>2007-04-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=58</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=58</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=58</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/58/150-lasermarking.gif</video:thumbnail_loc>
      <video:title>LASER MARKING: Advanced Technologies for Laser Marking of Plastics  by Scott Sabreen</video:title>  
      <video:description>The newest generation of laser-additive material science &amp; laser equipment is driving strong industry demand for indelible, high speed laser marking to replace conventional ink printing for variable alphanumeric text, graphics, serialization, &amp; product security codes. As manufactured, lasers of equivalent wavelength (for example Nd:YAG) may amplify light similarly relative to atomic absorption &amp; emission. However, not all lasers are created equal!</video:description>
      <video:publication_date>2007-06-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=57</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=57</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=57</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/57/150-reactive-extrusion.gif</video:thumbnail_loc>
      <video:title>REACTIVE EXTRUSION - Fundamentals &amp; Good Practices  By Raphael Mestanza</video:title>  
      <video:description>Reactive extrusion (REX) is an extrusion-conducted process which allows the chemical and/or the structural modification of polymers. This technology is mainly used to control polymers' rheology (melt flow, melt strength), to functionalize polyolefins, compatibilize polymers blends, crosslink, recombine polymer backbones &amp; even to polymerize. It is generally flexible &amp; can avoid long &amp; costly development of new polymers.</video:description>
      <video:publication_date>2007-06-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=56</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=56</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=56</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/56/150-Screw-Threads.jpg</video:thumbnail_loc>
      <video:title>The Impact of Screw Threads on Cost Cutting &amp; Performance: High Performance Compound Angle Design by Russell D. Hendee, Semblex Corporation </video:title>  
      <video:description>What causes a plastic boss to break or crack during fastening? What allows a boss to be molded smaller in diameter or shorter in height? Why do screws back out of applications or joints loosen over time? What permits you to design out an insert &amp; still have a functional application for multiple reinsertions? The answer to the questions listed above revolves around the screw’s thread. Develop a better understanding regarding the benefits of High Performance Compound Angle Design (HPCAD) screw threads. Learn how to obtain the greatest amount of manufacturing assembly safety during installation along with cause &amp; effect principles. Find out what type of assembly data can now be computer generated assisting in faster ramp-up designs &amp; reduced engineering time. History &amp; misunderstood assembly procedures have all had a direct negative impact on failed applications. A strong foundation in these principles will help you achieve success in your mold designs &amp; assembly.</video:description>
      <video:publication_date>2006-04-20</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=55</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=55</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=55</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/55/150-Shape-Memory.jpg</video:thumbnail_loc>
      <video:title>Shape Memory Polymers: New Materials &amp; Methods by Patrick T. Mather, Case Western Reserve University</video:title>  
      <video:description>Recently, polymer-based soft actuators have witnessed tremendous activity prompted by their expanding range of potential end-use applications, especially towards the development of smart &amp; compliant biomedical engineering tools, such as artificial muscles, stents, &amp; catheters, among others. Many polymeric systems offer unique properties for biomedical actuators, including a close matching to mechanical &amp; chemical properties of biological tissues, as well as large &amp; reversible deformations. In the recent past, the presenters focused principally on two distinct approaches - shape memory polymers &amp; liquid crystalline elastomers - to prepare &amp; understand such soft actuators with diverse compositions selected for prescribed properties. The presentation will compare &amp; contrast these two approaches to reveal relative merits &amp; pitfalls. On one hand, we recently designed a series of new thermo-stimulated shape memory polymers (SMPs) based on crosslinked poly(cyclooctene) (PCO). In this system, temporary fixing of gross &amp; arbitrary deformations (>200 %) in a rubbery state is afforded by crystallization that is controlled by the level of crosslinking. Strain recovery on melting the semicrystalline elastomer is rapid &amp; capable of mechanical work consistent with that performed prior to shape fixing. Another synthetic route to obtain SMPs was to prepare a miscible blend of amorphous thermoplastics with semi-crystalline polymers yielding comparatively stiff SMPs. Both the thermo-mechanical properties &amp; the shape memory effects of these systems will be presented. Our second approach toward soft actuators is based on synthesizing liquid crystalline elastomer (LCE) films, which, under certain conditions, are capable of reversible deformations up to a great extent (>100%), but with relatively low modulus compared to SMPs. We have synthesized siloxane-based main-chain smectic LCEs &amp; segmented polyester nematic LCEs, both featuring dramatic shape memory effects that will be discussed.</video:description>
      <video:publication_date>2006-04-18</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=53</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=53</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=53</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/53/150-Testing-Polymers.jpg</video:thumbnail_loc>
      <video:title>Standardization of High Strain Rate Tensile Testing of Polymers by Susan I. Hill, University of Dayton</video:title>  
      <video:description>The results of an interlaboratory test program conducted to assess the precision of the Practice Guide for High Strain Rate Testing of Polymers are summarized. Five polymers, PC ABS, TPO, HDPE, 30% short glass fiber-filled PA, &amp; 40% long glass fiber-filled PP, were tested at nominal plastic strain rates of 40/s &amp; 400/s. The test results were used to generate repeatability &amp; reproducibility statistics that were incorporated into a precision statement for the practice guide. </video:description>
      <video:publication_date>2005-09-08</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=52</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=52</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=52</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/52/150-Warpage-Simulation.jpg</video:thumbnail_loc>
      <video:title>The Warpage Simulation With In-mold Constraint Effect in Injection Molding, Best of ANTEC 2004, Dr. Venny Yang, CoreTech System Co., Ltd.</video:title>  
      <video:description>Warpage in injection molding is the result of unequal volumetric shrinkage of material throughout the geometry of the piece as it cools from a melt to a solid state. Before the part is ejected, the deformation of warpage has been developed inside the mold. The influence of in-mold constraint for warpage is different according to the time of in-mold period. In general the warpage will be smaller when the in-mold period is longer. The warpage with in-mold constraint effect is complicated phenomena. The contact behavior will be induced between rigid mold &amp; plastic part. The part can't shrink &amp; warp freely at in-mold stage due to the rigid mold. Besides, this contact behavior also induces the stress of part.</video:description>
      <video:publication_date>2005-03-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=43</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=43</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=43</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/43/150-Kinematics-Model.jpg</video:thumbnail_loc>
      <video:title>Kinematics Model of Solids Conveying for Extrusion ** Best of ANTEC 2004/2003 ** by Stephen J. Derezinski, Ph.D., Extruder Tech, Inc.</video:title>  
      <video:description>Traditionally, solids conveying has been modeled by assuming a separate friction factor for the screw &amp; the barrel. Many models have been developed, notably the original Darnell &amp; Mol model. However, such models are typically very unstable. That is, a small change (1%) in the value of either of the friction factors often drastically changes the result. Add to that the fact that there are two such parameters to consider, &amp; practical use of such models is difficult. Friction factor data, in themselves, are difficult to accurately determine &amp; repeat. The scatter in most friction factor data can cause models to produce an extreme range in results. However, actual extruder solids conveying typically functions more reliably than these models suggest. Therefore, one is lead to believe that there should be a different way to describe the performance solids conveying. An alternative approach presented here is based solely on the kinematics of the solids plug. A single solids conveying lead angle replaces the two friction factors as the governing empirical factor. The kinematics model describes solids conveying in cylindrical coordinates, &amp; it is easily applied to operating extruders. The calculations are stable, simple, &amp; mimic the actual performance of solids conveying very well. A detailed application to LDPE will be shown &amp; discussed.</video:description>
      <video:publication_date>2004-09-23</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=42</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=42</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=42</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/42/150-Plastics-Processing.jpg</video:thumbnail_loc>
      <video:title>Plastics Processing: A Changing Environment by Jack Avery, GE Plastics</video:title>  
      <video:description>The Plastics Industry has been hard hit in the past 3 years. A number of factors have contributed to this changing environment: ·Globalization ·Recession ·Political Uncertainty. The result is: more players fighting for a diminishing market in all segments: materials, tooling, processing &amp; machines. My premise is: The market as we knew it in the late 1990s will never return. The world has changed, so has the plastics industry. The question to be addressed is: How can we prosper in the new environment? This presentation will look as some of the factors that have come into play, &amp; discuss several technology approaches that may enable processors to add value to their customers. Techniques discussed include: ·Multi-material processing ·Plastic - metal molding ·In-Mold Decoration (IMD) ·Manufacturing cells The presentation will wrap-up with a business focused discussion on adding value to your customers. </video:description>
      <video:publication_date>2004-08-25</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=41</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=41</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=41</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/41/150-Extrusion-Screws.jpg</video:thumbnail_loc>
      <video:title>Extrusion Screws for Thermoplastic Composites by Tim Womer, Xaloy Inc.</video:title>  
      <video:description>The use of various fillers &amp; additives, which are compounded into thermoplastic resins, has become more &amp; more prevalent in recent years in the plastics industry. The addition of fillers such as talc, mica, calcium carbonate &amp; nanoclays can increase the stiffness and/or strength &amp; the utilization of various plastics. These fillers have also had an effect on the performance &amp; life of the equipment that processes them. This presentation will discuss some of the issues that these composites have on the screw design, plus screw &amp; barrel wear.</video:description>
      <video:publication_date>2005-11-08</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=40</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=40</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=40</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/40/150-Composite-Metal.jpg</video:thumbnail_loc>
      <video:title>Composite Metal Tooling by Randy Lewis, P.R. Lewis Consulting LLC</video:title>  
      <video:description>In the history of plastics molding, we molders have been cursed with having to mold with the mold at only one temperature, which is neither the best temperature for injection or cycle time. The mold temperature is chosen that is neither too detrimental to flow nor to long on closed time. A new process has been developed which allows injection with the mold at a more favorable temperature for filling the cavities that can reduce cycle as well. The result is higher quality parts &amp; faster cycles. This is accomplished by constructing a mold with extremely high thermal conductivity but without giving up the high strength &amp; wear resistance of tool steel. This mold is then coupled with a temperature controller capable of pumping 400º F water followed immediately by 40º water.</video:description>
      <video:publication_date>2006-01-10</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=39</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=39</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=39</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/39/150-Product-Design.jpg</video:thumbnail_loc>
      <video:title>Product Design from Concept to Development by Norman Lee, Attractive Design Limited</video:title>  
      <video:description>It is easy to talk about bringing a new product into production in an efficient manner; it is another thing to actually accomplish it. This presentation shows a method for doing this: ON TIME, ON COST, &amp; ON BUDGET. It deals with who is responsible for what: with phases, miles stones, activities, &amp; critical path. Diagrams are given that show a clear way on how to accomplish objectives by following the step-by-step approach. When viewed in it’s entirety, it looks so simple &amp; straightforward, &amp; that one is left with the thought: why don’t we do this? It takes commitment &amp; discipline by every one involved, from the top level to the newest participant. The method has been developed over years of experience by the presenter who can testify that when truly applied the objectives are achieved. The principles apply whether you are in a large or very small organization. At the very least the participant will be left with an overall insight as to what it takes to bring a new product to fruition.</video:description>
      <video:publication_date>2005-09-15</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=38</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=38</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=38</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/38/150-Plasma.jpg</video:thumbnail_loc>
      <video:title>Atmospheric Pressure Plasma - Enabling Technology for Reliable Bonding, Coating &amp; Printing of Plastics by Dr. Daniel A. Kaute, President, PlasmaTreat™ North America Inc., Toronto</video:title>  
      <video:description>World class manufacturing requires robust &amp; QS 9000 compliant process from beginning to end. Clean &amp; highly activated surfaces with reliable &amp; repeatable characteristics are the key to durable &amp; high performance bonding, coating, &amp; printing. Cost effectiveness, environmental friendliness &amp; work-place safety are added requirements. Openairtm plasma technology is an enabling technology that allows the overall manufacturing process to become fully automated with total quality control with QS 9000 compliance. It is the first truly industrial atmospheric pressure plasma surface preparation process that uses the high effectiveness of plasma for nano-scale cleaning &amp; surface activation. It is used in bonding, coating &amp; printing applications. As an example it enables a completely environmentally friendly, high performance, yet cost effective, &amp; compact paint process in conjunction with environmentally friendly UV light curable, or water based coatings. The latest research results on the fundamental functioning of Openairtm plasma technology are shown. Other applications on various low surface energy materials like polypropylene, polyethylene, thermoplastic olefins, thermoplastic elastomers, ethylene/propylene/diene &amp; silicone rubbers are shown.</video:description>
      <video:publication_date>2004-09-22</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=37</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=37</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=37</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/37/150-Molding-Dispersing.jpg</video:thumbnail_loc>
      <video:title>Molding, Dispersing, Flame Retarding Pigments &amp; Polymers Using Nano-Coupling &amp; Catalysis of Titanates &amp; Zirconates by Salvatore J. Monte, Kenrich Petrochemicals, Inc.</video:title>  
      <video:description>This is both an idea &amp; review e-Live presentation encompassing 125 PowerPoint slides bringing the latest developments in titanate &amp; zirconate technology to the SPE e-Learning attendee. New data, an inventor's insight, &amp; literature references demonstrate the titanate's universal interfacial coupling or bonding with organic &amp; inorganic pigments to optimize function &amp; performance -- as well as post-reactor polymer modification &amp; in situ metallocene-like catalysis effects to most polymers to allow faster processing at lower temperatures -- about 10% for most unfilled as well as filled thermoplastics to 100ºC lower for polycarbonates -- while increasing toughness, mechanical properties &amp; part appearance. These effects are achieved with only 2 parts of titanate per thousand parts of unfilled polymer. The titanate additive not only disperses the pigment to maximize function, but also converts the pigment to a catalyst for the polymer binder phase. The titanate also renders the filler/pigment/fiber/reinforcement hydrophobic &amp; organophilic to promote thermoplastic bonding. Additionally, methacrylic &amp; acrylic functional ligands may also convert the coupled substrate to a receptor of curative free radicals in thermosets to maximize pigment function in UV applications. The six functions of the titanate molecule are outlined to discuss &amp; demonstrate: monomolecular coupling to various inorganic &amp; organic pigments, fillers, nano-particulates &amp; fibers; in situ post-reactor catalysis in the melt using liquicolors or pellet masterbatches as the delivering medium; copolymerization &amp; regeneration of regrind in the melt; synergistic flame retardance to fillers such as Mg(OH)2, ATH - &amp; even CaCO3 or nitramine explosives; improved cell structure of AZO-foamed PVC plastisols &amp; thermoplastics by catalytic increase in the melt strength as the polymer bubbles are being formed; significant decrease in plasticizer levels or increase in pigment or filler loadings for all thermoplastics while maintaining or increasing elongation; improved lower temperature flexibility; application techniques for Henschel filler treatment; pigment &amp; nano-particulate dispersion in water &amp; thermoplastics; &amp; viscosity effects in Mineral Oil &amp; DOP plasticizer masterbatches. New &amp; novel zirconate based antistats that form bipolar layers of dissimilar organometallics will be shown to produce transparent, permanent, non-blooming &amp; non-moisture dependent thermoplastics that are then able to be produced as film or parts to any desired color.</video:description>
      <video:publication_date>2006-03-30</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=36</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=36</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=36</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/36/150-Green-Nanocomposites.jpg</video:thumbnail_loc>
      <video:title>Sustainable "Green" Nanocomposites from Bioplastic &amp; Layered Silicates by Dr. Amar Kumar Mohanty, Michigan State University</video:title>  
      <video:description>The new materials development is now transitioning between the petroleum based hydrocarbon chemistry &amp; the biomass derived carbohydrate chemistry. Renewable resource based bioplastics like cellulosic plastics; polylactic acid (PLA); polyhydroxybutyrate (PHB); &amp; soybean based plastics etc. need value-added applications to compete with the fossil fuel derived plastics.   
This video will give an overview of various renewable resource based green/bio-plastics &amp; their sustainable developments through blends, composites &amp; nanocomposites with a deep insight in to cellulose ester-layered silicate based 'green' nanocomposites.   
Nano reinforcements of biobased polymers are poised to create the next generation of value-added novel eco-friendly nanocomposites in greening the 21st century materials world. The developing biobased nanocomposites need to be sustainable to compete with the existing petroleum-based nanocomposites for applications in greener automotive parts, packaging &amp; consumer goods.   
Green nanocomposites have been successfully fabricated from renewable resource based cellulose acetate (CA) bioplastic, eco-friendly triethyl citrate (TEC) plasticizer &amp; organically modified clay through extrusion followed by injection molding processing. The processing conditions, such as mixing methods, pre-plasticizing times, retention times (RT), as well as the use of maleic anhydride grafted cellulose acetate butyrate (CAB-g-MA) compatibilizer affected the performance of these new developing nanocomposites. The morphologies of the nanocomposites were evaluated through X-ray diffraction (XRD), atomic force microscope (AFM), &amp; transmission electron microscopy (TEM) studies. Cellulosic plastic-based nanocomposites obtained using increased pre-plasticizing times &amp; RT showed better-exfoliated structures. Cellulosic plastic-based nanocomposites with 5 wt. % compatibilizer contents showed better exfoliated structure than the counterpart having 0 or 7.5 wt. % compatibilizer contents. Polygonal shape of exfoliated clay platelets was observed with 500 nm width, &amp; 800 nm length by AFM &amp; TEM imaging. The mechanical properties of these nanocomposites have been correlated with the XRD, TEM &amp; AFM observations. The sustainability issues of cellulose ester based green nanocomposites are analyzed &amp; discussed as compared to polypropylene-clay nanocomposites on the basis of their cost-performance &amp; environmental impacts.</video:description>
      <video:publication_date>2004-12-02</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=35</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=35</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=35</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/35/150-Biodegradable-Plastics.jpg</video:thumbnail_loc>
      <video:title>Biobased &amp; Biodegradable Plastics by Ramani Narayan, Michigan State University</video:title>  
      <video:description>Biobased &amp; biodegradable plastic products based on annually renewable agricultural &amp; biomass feedstocks can form the basis for a portfolio of sustainable products that are environmentally preferable, green alternatives to current materials based exclusively on petroleum feedstocks. The need for products to be fully biodegradable in a defined time frame in the selected disposal infrastructure as opposed to degradable or partially biodegradable will be reviewed. In this presentation, we review many new developments &amp; rationale in designing &amp; engineering biobased, &amp; biodegradable plastics. Technology exemplars from our laboratory like starch biofoams, biobased, &amp; biodegradable plastic products will be presented. Life Cycle Assessment (LCA's) of these biobased plastics show reduced environmental impact &amp; energy use when compared to petroleum-based materials.</video:description>
      <video:publication_date>2006-03-16</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=34</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=34</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=34</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/34/150-Lubrication-Mechanism.jpg</video:thumbnail_loc>
      <video:title>Lubrication Mechanism of Poly(Vinyl Chloride) Compounds: An Understanding of Lubricant Failure at Higher Processing Temperatures by James Summers, P3Consultants, Inc. </video:title>  
      <video:description>Poly(vinyl chloride) (PVC) compounds require metal lubrication &amp; polymer to polymer lubrication for good processing performance. Much of the mechanism for PVC’s lubrication has been elucidated over the years. One point has not been completely understood, that is the “lubricant failure” at higher processing temperatures where the compound becomes more brittle. This behavior is contrary to what might be expected with better PVC fusion (gelation). Data is presented on the fundamental mechanism involved. This data shows precisely where the lubricants are during the processing &amp; explains the loss in toughness.</video:description>
      <video:publication_date>2005-11-17</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=33</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=33</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=33</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/33/150-Green-Materials.jpg</video:thumbnail_loc>
      <video:title>Future Opportunities &amp; Challenges for ‘Green’ &amp; ‘Nano’ Materials by Lawrence T. Drzal, Michigan State University</video:title>  
      <video:description>The materials community has been significantly changed over the last few years by two external factors: the increasing desire for more environmentally friendly materials &amp; processes; &amp; the desire to take advantage of materials engineered at the ‘nano’ level. This has resulted in new ‘green’ &amp; ‘nano’ materials that are available commercially as well as new multifunctional materials that appear to be on the road to commercialization.  
Structural ‘biocomposites’ can be made by embedding natural/bio-fibers like Kenaf, Hemp, Flax, Jute, Henequen, Pineapple Leaf Fiber, Corn Stalk fibers &amp; Native grasses into petroleum-derived traditional plastics like polypropylene, unsaturated polyesters, &amp; epoxies as well as by embedding these biofibers into renewable resource-based bioplastics such as Polylactides (PLA), cellulosic plastics, soy-based plastics, bacterial polyesters &amp; urethanes produced from vegetable oil based polyols.  
Nanocomposites are also opening up ‘windows of opportunity’ for new applications of polymers to not only structural but also non structural areas by providing ways to tailor surface, electrical, thermal &amp; barrier properties. The choices of nanoreinforcements are growing ranging from carbon nanotubes to nanoclays &amp; cellulose nanowhiskers.   
Current &amp; new nanoreinforcements will be presented &amp; discussed form a physical property &amp; economics basis. Both of these developments can have important benefits for the automotive industry in terms of weight reduction, recyclability, &amp; environmentally friendly materials.  
This video will provide an overview of both the ‘green’ &amp; ‘nano’ materials fields with a focus on automotive needs. The current &amp; future potential of these materials for structural applications will be discussed as well as the challenges that must be overcome in order for them to achieve their potential in automotive applications.</video:description>
      <video:publication_date>2006-04-04</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=31</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=31</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=31</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/31/150-Carbon-Nanotubes.jpg</video:thumbnail_loc>
      <video:title>Carbon Nanotubes by Mike Foley, Cheap Tubes, Inc.</video:title>  
      <video:description>This presentation will attempt to convey to the attendees a general understanding about Carbon Nanotubes. It will cover the following topics:  
What are Carbon Nanotubes?  
How are CNTs made?  
What are the unique &amp; interesting properties of CNTs?  
What are the current &amp; future applications of CNTs?</video:description>
      <video:publication_date>2006-04-25</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=30</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=30</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=30</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/30/150-Plastics-Industry.jpg</video:thumbnail_loc>
      <video:title>The Plastics Industry in the 21st Century: The Rules Have Changed, Roger Jones, Franklin International, LLC</video:title>  
      <video:description>Over the past decade the acceleration of manufacturing productivity growth, globalization, the Information Age, the power of institutional investors &amp; governmental regulation have all changed the nature of the plastics industry. While these effects went relatively unnoticed during the bubble economy of the 1990s, they are now being revealed, &amp; they differ dramatically in one geographic region of the world from another. What has caused these changes? Are they what they appear to be? What is the outlook for the next decade? What management strategies offer promise for surviving &amp; growing under these conditions?</video:description>
      <video:publication_date>2005-08-04</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=29</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=29</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=29</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/29/150-Color-Trends.jpg</video:thumbnail_loc>
      <video:title>Color Trends &amp; Consumer Preferences by Patricia Verlodt, Color Services &amp; Associates, Inc. </video:title>  
      <video:description>Colors for products do not drop out of the sky, they are usually chosen by a color professional with great care &amp; purpose. Color trends can be predicted to some degree, making it easier for consumers to find products that coordinate with other items in there homes. Just think about everything you own, sell, manufacture or admire has a color associated with it &amp; someone had to pick out that color, are you sure your product is being produced in its most marketable color?</video:description>
      <video:publication_date>2006-01-17</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=28</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=28</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=28</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/28/150-Plastics-Testing.jpg</video:thumbnail_loc>
      <video:title>Introduction to Plastics Testing (with new information, 10/04/05) by Glenn Sime, Plastics Technology Laboratories, Inc.</video:title>  
      <video:description>The Introduction to Plastics Testing video will give an overview of equipment &amp; methods used to characterize polymeric materials used across a wide range of consumer &amp; industrial applications.   
Engineers, designers, &amp; processors will learn the basic terminology &amp; methods used to solve plastics problems, &amp; improve processing efficiencies.  
Besides determining the strength &amp; performance of plastics, this video will help you answer questions such as: 
What type of plastic is this?  
Is it contaminated?  
Why is my part cracking?  
How do I know if I have good incoming plastic raw material?  
Is my plastic compatible with a specific chemical?  
Which plastic material should I use for this application?   
The Introduction to Plastics Testing will show how testing can be applied to the many forms of plastic including the raw resin pellets, injection molded parts, or extruded film, sheet &amp; tube. Reference will be made to additional forms of polymeric materials such as composites, adhesives, &amp; coatings.</video:description>
      <video:publication_date>2005-10-04</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=25</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=25</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=25</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/25/150-Failure-Analysis-2.jpg</video:thumbnail_loc>
      <video:title>Failure Analysis of Plastics, Part 2</video:title>  
      <video:description>If you deal with plastic components, "Failure Analysis of Plastics" will answer many questions that arise when a failure occurs. Topics covered during this session include materials definition of failure &amp; why a failure analysis should be performed as well as the objectives of a failure analysis &amp; the typical sequence of steps taken. Examples &amp; case studies of several common polymeric failure modes such as ductile catastrophic overload, brittle fracture, molecular degradation, stress relaxation, fatigue, &amp; more are also discussed along with a review of how most polymeric failures occur. Included in the presentation are factors that affect plastic component performance including materials used, design, processing techniques, &amp; service conditions.</video:description>
      <video:publication_date>2005-08-09</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=24</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=24</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=24</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/24/150-Failure-Analysis-1.jpg</video:thumbnail_loc>
      <video:title>Failure Analysis of Plastics, Part 1</video:title>  
      <video:description>If you deal with plastic components, "Failure Analysis of Plastics" will answer many questions that arise when a failure occurs. Topics covered during this session include materials definition of failure &amp; why a failure analysis should be performed as well as the objectives of a failure analysis &amp; the typical sequence of steps taken. Examples &amp; case studies of several common polymeric failure modes such as ductile catastrophic overload, brittle fracture, molecular degradation, stress relaxation, fatigue, &amp; more are also discussed along with a review of how most polymeric failures occur. Included in the presentation are factors that affect plastic component performance including materials used, design, processing techniques, &amp; service conditions.</video:description>
      <video:publication_date>2005-08-02</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=23</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=23</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=23</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/23/150-Stress-Cracking.jpg</video:thumbnail_loc>
      <video:title>Environmental Stress Cracking &amp; Other Solvent Effects by Jeffrey Jansen, Stork Technimet, Inc.</video:title>  
      <video:description>If you deal with plastic components, then “Environmental Stress Cracking &amp; Other Solvent Effects” will provide you with information that will enhance your understanding of the interaction between chemicals &amp; plastic resins, &amp; help prevent premature failure. Topics covered during this session include introduction to environmental stress cracking &amp; other solvent effects &amp; explanation of the failure mechanisms characteristic of chemical/plastic interaction. Case studies of several common polymeric failure modes associated with chemical interaction will be presented.</video:description>
      <video:publication_date>2005-11-15</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=22</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=22</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=22</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/22/150-Adhesion-Failures.jpg</video:thumbnail_loc>
      <video:title>Adhesion Failures of Plastics Bonded to Various Materials by Myer Ezrin, Institute of Materials Science, University of Connecticut</video:title>  
      <video:description>Plastics are bonded in many applications to a wide variety of materials, including metals, ceramics &amp; the same or other plastics. The adhesive may be the plastic, such as bonding metal to metal. Failure of the adhesive bond may be due to (1) formulation additives migrating into the adhesive bond, (2) extraneous foreign contaminants, (3) environmental conditions such as water &amp; temperature, (4) physical effects of the bonded materials such as coating thickness. Differences in coefficient of thermal expansion, such as metal &amp; plastic, may stress the adhesive bond as temperature changes. Analytical methods to identify the cause of failure involving formulation additives &amp; contaminants are infrared spectroscopy &amp; thermal desorption gas chromatography/mass spectroscopy at &amp; below the surface. Case studies &amp; examples will illustrate a variety of adhesion failures.</video:description>
      <video:publication_date>2006-01-31</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=20</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=20</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=20</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/20/150-Flow-Behavior.jpg</video:thumbnail_loc>
      <video:title>The Investigation of Flow Behavior of Polymeric Melts in Water Assisted Injection Molding - Best of ANTEC 2004, Dr. Chao-Tsai Huang, CoreTech System Co., Ltd. </video:title>  
      <video:description>During the past decades, the industry has been looking for several media as the assistant for injection molding. Among them, water assisted injection molding (WAIM) has been proven to be a pretty good way to fabricate hollow or more complicated parts. Water is chosen because of its low cost. Further, water has significant thermal conductivity that can provide more effective cooling to reduce the cycle time of the process. In addition, it is similar to gas assisted that water also can provide packing/holding effect to reduce the shrinkage &amp; warpage to yield good quality products. Hence, several suppliers have been involved in developing this class of techniques &amp; equipments. However, to obtain better products, a number of questions regarding to the material properties &amp; process conditions, need to be fully understood. In this study, the complex flow behavior of melts under the assistance of injected water is conducted by examining the coupling effects of the process conditions &amp; the material properties numerically. Further, the verification is performed experimentally as well.</video:description>
      <video:publication_date>2005-03-24</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=19</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=19</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=19</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/19/150-Electric-Molding.jpg</video:thumbnail_loc>
      <video:title>State of the Art of Electric Molding 2005, M. Barr Klaus, Electric Injection Services, Inc.</video:title>  
      <video:description>A brief history of the important events in the evolution of electric injection molding technology since inception in 1985. The current state of the art is reviewed with attention to features, capabilities, &amp; unique offerings in the market today. Differences between electric &amp; hydraulic machine set up practices will be discussed with emphasis on necessary considerations to maximize effectiveness of electric technology. The presentation will wind up with a projection of future development &amp; competitiveness of electric molding technology.</video:description>
      <video:publication_date>2005-06-09</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=18</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=18</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=18</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/18/150-Molding-Process.jpg</video:thumbnail_loc>
      <video:title>Optimizing the Molding Process - Chapter from Plastics Technician's TOOLBOX by Jerry Golmanavich, Golmanavich Enterprises</video:title>  
      <video:description>How does one optimize an injection molding process? In this presentation we examine some of the criteria that will lead to the best productivity levels. Once the machine has started to spew out parts, the question becomes "What makes the best product, the fastest?" Is that even possible? Step by step we will examine injection molding machine settings &amp; look at establishing a benchmark. We will also reveal a most important facet of this activity- a Molding Data Record &amp; the significance of writing down the parameters.</video:description>
      <video:publication_date>2004-02-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=17</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=17</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=17</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/17/150-Injection-Woodfiber.jpg</video:thumbnail_loc>
      <video:title>Injection Molding of Woodfiber Plastics Composites, Michael Burgoyne</video:title>  
      <video:description>In this presentation, we will address a variety of those important factors which need to be taken into account when considering the injection molding of compounds based on natural, cellulose-based fillers in thermoplastic matrices. As well, we will examine the major hurdles to be overcome when molding these materials, &amp; offer some insight into how this can be done. Differences in the various species of filler will be briefly discussed, &amp; some of the more important factors to be considered in compounding these materials, as well as during the overall molding process will be addressed. A comparison of the effects on melt index, made by various filler compositions, will be presented.</video:description>
      <video:publication_date>2005-04-21</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=16</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=16</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=16</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/16/150-Gas-Process.jpg</video:thumbnail_loc>
      <video:title>Entrained Gas Process for Injection Molding by Jingyi Xu, Engel Machinery Inc.</video:title>  
      <video:description>Entrained gas injection molding, such as structure foam, microcellular foam, gas assistant processing, has some common technical issues &amp; safety concerns which are important to be understood fully for a safe system, &amp; acceptable processing conditions. Several common processing methods available in the market are analyzed for machine &amp; mold design, part design, &amp; processing requirements. Two typical entrained gas processes, gas assistant &amp; foaming, are discussed with both processability &amp; safety. A physical explaining for the safety rules is presented. The single phase solution is the key of all the foaming methods. All necessary modifications are addressed for better gas foaming process.</video:description>
      <video:publication_date>2004-09-08</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=15</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=15</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=15</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/15/150-Cell-Development-PA.jpg</video:thumbnail_loc>
      <video:title>Cell Development in Microcellular Injection Molded Polyamide-6 by Alexander Chandra, University of Wisconsin-Madison</video:title>  
      <video:description>The effects of nanoclay addition into polyamide-6 (PA-6) neat resin &amp; processing parameters on cell density &amp; size in microcellular injection molded components were investigated. The analyses were performed on the sprue section of standard ASTM D 638-02 tensile bars molded based on a fractional four factorial, three-level, L9 Taguchi design of experiments (DOE) with varying melt temperature, injection speed, super critical fluid (SCF) concentration, &amp; shot size. It was found that the presence of nanoclay greatly reduced the cell size &amp; increased the cell density when compared to neat resin processed under identical molding conditions. In addition, cell size distribution at the sprue center was, in general, the largest, gradually decreasing towards the skin for both neat resin &amp; nanocomposite. Finally, in contrast to neat resin, in which shot size &amp; injection speed were important to cell density &amp; all molding parameters affected cell growth, the cell size &amp; density for nanocomposite only depended strongly on shot size.</video:description>
      <video:publication_date>2004-06-03</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=14</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=14</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=14</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/14/150-Adhesion-Extrusion-Coating.jpg</video:thumbnail_loc>
      <video:title>Understanding Why Adhesion In Extrusion Coating Decreases With Diminishing Coating Thickness, Part I: Penetration of Porous Substrates by Barry A. Morris, DuPont</video:title>  
      <video:description>It is well known that in extrusion coating the adhesion of PE to paperboard &amp; other porous substrates decreases with decreasing thickness. Several hypotheses are proposed for the origin of this decrease, including a reduction in time for oxidation, faster cooling in the air gap &amp; more rapid quenching in the nip. A model of the penetration of the molten polymer into the substrate shows that the greatest effect is cooling in the nip; thinner coatings have less time to flow into the interstices of the substrate once contact with the chill roll is made. The model results agree well with experimental adhesion data from the literature &amp; lead to practical suggestions for improving adhesion performance.</video:description>
      <video:publication_date>2006-02-07</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=13</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=13</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=13</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/13/150-Blown-Film-Process.jpg</video:thumbnail_loc>
      <video:title>Understanding Blown Film Process Variables &amp; Bubble Geometry, by Professor Kirk Cantor, Pennsylvania College of Technology</video:title>  
      <video:description>Blown film extrusion is a process requiring a high level of operator skill. Producing film to geometric specification requires a good understanding of the dependence of bubble dimensions on the interrelationship of process variables. Dimensions include film thickness, bubble diameter, &amp; frost line height. Process variables for controlling these dimensions include screw speed, nip speed, cooling air speed, &amp; bubble air volume. An experienced operator understands that changing any one variable will affect all three dimensions, &amp; understands the change that will result. A highly realistic blown film extrusion simulator has been used to elucidate these interrelationships for all personnel.</video:description>
      <video:publication_date>2004-05-27</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=11</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=11</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=11</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/11/150-Barrier-Packaging.jpg</video:thumbnail_loc>
      <video:title>Development &amp; Utilization of Metallized &amp; Clear High Barrier Packaging Films by Eldridge M. Mount, III, EMMOUNT Technologies </video:title>  
      <video:description>The product design principles &amp; transport mechanisms important to the development of high moisture &amp; oxygen barrier film properties, in metallized &amp; clear barrier packaging films will be reviewed. A discussion of the relative importance of light barrier in relationship to the moisture &amp; oxygen barrier will be presented as well as the substrate films contribution to aroma barrier development. In addition, the converting &amp; package sealing techniques necessary for obtaining the best package barrier will be reviewed.</video:description>
      <video:publication_date>2006-02-14</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=10</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=10</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=10</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/10/150-Dynamic-Mechanical-Analysis.jpg</video:thumbnail_loc>
      <video:title>Introduction to Dynamic Mechanical Analysis of Rigid Plastics by R. James Galipeau, Plastics Technology Laboratories, Inc.</video:title>  
      <video:description>DMA (Dynamic Mechanical Analysis) is a useful tool for determining the viscoelastic behavior of plastics as a function of temperature. This video will focus on the basics of DMA analysis &amp; will give an understanding of the various terms, techniques &amp; test methods associated with DMA Analysis of rigid plastics.  
 Items to be covered include:   
- Properties generated by DMA;  
- Basics of how a dynamic mechanical analyzer works;  
- Types of apparatus used to perform Dynamic Mechanical Analysis;  
- The ins &amp; outs of the different test methods related to DMA testing &amp; how to choose the correct method from among ASTM D4065, D5279, &amp; D4440; 
- The common uses of DMA data; 
- Advantages of the DMA over other types of apparatus for determining important material properties such as glass transition temperature &amp; modulus.</video:description>
      <video:publication_date>2004-12-09</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=9</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=9</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=9</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/9/150-CAM.jpg</video:thumbnail_loc>
      <video:title>Controlled Architecture Materials (CAMs): New Additives for Interfacial Modification by Dr. James M. Nelson - Research Specialist 3M/Dyneon</video:title>  
      <video:description>The development of methodologies for the synthesis of controlled architecture materials (CAMs) has been an area of intense research over the past decade. However, despite the incredible activity in this area, few commercial applications for materials having a controlled molecular architecture have materialized to date. This presentation will overview: 1) Methodologies for controlling polymer architecture, 2) Commercial applications to date, &amp; 3) Current activity at 3M/Dyneon to more broadly offer CAMs for interfacial modifier applications.</video:description>
      <video:publication_date>2004-01-15</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=8</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=8</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=8</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/8/150-Woodfiber.jpg</video:thumbnail_loc>
      <video:title>Woodfiber/Plastics Composites – Introduction &amp; Overview by Frank W. Maine, Ph.D., P.Eng.</video:title>  
      <video:description>Woodfibre/Plastics Composites (WPC's) are the fastest growing area in both the plastics industry &amp; the construction industry. This has all happened in the last 10 years. This video will cover the markets &amp; the companies involved in this dynamic growth &amp; give an overview of the technology involved – both extrusion &amp; injection moulding.</video:description>
      <video:publication_date>2004-08-26</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=4</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=4</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=4</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/4/150-interiorauto.jpg</video:thumbnail_loc>
      <video:title>Introduction to Polymer Additives Part 2</video:title>  
      <video:description>Polymer additives play a vital role in modern plastics, from overcoming obstacles in processing, to increasing material durability, to helping product designers obtain the trendy looks, feel, &amp; performances their consumers demand for their applications. Additives can also be used to comply with local regulations.
Understanding the fundamentals behind polymer additives' use in thermoplastics &amp; understanding how they will help designers to fulfil future needs is critical for everyone in the industry needing innovation &amp; differentiation, regardless of their activity.</video:description>
      <video:publication_date>2007-01-18</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

  <url>
    <loc>http://www.omnexus.com/lod.aspx?preview=3</loc>
    <video:video>
      <video:content_loc>http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=3</video:content_loc>
      <video:player_loc allow_embed="yes">http://www.omnexus.com/common/etc/streaming/lodplayer.swf?previewid=3</video:player_loc>
      <video:thumbnail_loc>http://www.omnexus.com/documents/etc/3/150-plastics1.jpg</video:thumbnail_loc>
      <video:title>Introduction to Polymer Additives Part 1</video:title>  
      <video:description>Polymer additives play a vital role in modern plastics, from overcoming obstacles in processing, to increasing material durability, to helping product designers obtain the trendy looks, feel, &amp; performances their consumers demand for their applications. Additives can also be used to comply with local regulations.
Understanding the fundamentals behind polymer additives' use in thermoplastics &amp; understanding how they will help designers to fulfil future needs is critical for everyone in the industry needing innovation &amp; differentiation, regardless of their activity.</video:description>
      <video:publication_date>2007-01-11</video:publication_date>
      <video:tag>plastic</video:tag>
      <video:tag>plastics</video:tag>
      <video:tag>adhesion</video:tag>
      <video:tag>automotive</video:tag>
      <video:tag>blow molding</video:tag>
      <video:tag>extrusion</video:tag>
      <video:tag>formulation</video:tag>
      <video:tag>additives</video:tag>
      <video:tag>injection molding</video:tag>
      <video:tag>material testing</video:tag>
      <video:tag>materials</video:tag>
      <video:tag>new technologies</video:tag>
      <video:tag>packaging</video:tag>
      <video:tag>part design</video:tag>
      <video:tag>polymer processing</video:tag>
      <video:tag>regulations</video:tag>
      <video:tag>bioplastics</video:tag>
      <video:tag>technology overview</video:tag>
      <video:category>Plastics</video:category>
      <video:duration>300</video:duration>
    </video:video>
  </url>

</urlset>
