Barrier technologies that preserve the shelf-life and quality of food, beverages, medicine and other perishable goods through high-performance materials that require less plastic PolyOne employs approximately 6,900 associates, is certified ACC Responsible Care® and Great Place to Work®, and is a founding member of the Alliance to End Plastic Waste. 

Barrier technologies that preserve the shelf-life and quality of food, beverages, medicine and other perishable goods through high-performance materials that require less plastic PolyOne employs approximately 5,600 associates, is certified ACC Responsible Care® and Great Place to Work®, and is a founding member of the Alliance to End Plastic Waste. 

Examples include: •    Barrier technologies that preserve the shelf-life and quality of food, beverages, medicine and other perishable goods through high-performance materials that require less plastic •    Light-weighting solutions that replace heavier traditional materials like metal, glass and wood, which can improve fuel efficiency in all modes of transportation •    Breakthrough technologies that minimize wastewater and improve the recyclability of materials and packaging across a spectrum of end uses Avient employs approximately 9,100 associates and is certified ACC Responsible Care® and a founding member of the Alliance to End Plastic Waste.  

Examples include: •    Barrier technologies that preserve the shelf-life and quality of food, beverages, medicine and other perishable goods through high-performance materials that require less plastic •    Light-weighting solutions that replace heavier traditional materials like metal, glass and wood, which can improve fuel efficiency in all modes of transportation •    Breakthrough technologies that minimize wastewater and improve the recyclability of materials and packaging across a spectrum of end uses Avient employs approximately 9,100 associates and is certified ACC Responsible Care® and a founding member of the Alliance to End Plastic Waste.  

While most batteries are traditionally metal-based, there are significant advantages to using polymers (plastics) instead, especially with recent advancements in polymer science that make using these materials in electric vehicle batteries possible. Design and Processing Flexibility: The versatility of plastic opens up new avenues for battery design and integration within electric vehicles.

They completed the metal-to-plastics transition in less than four months – bringing production in-house while using the same tooling. In 2013, the Mars LED assembly was honored as a finalist in the annual Automotive Innovation Awards competition of the Society of Plastics Engineers (SPE).

The USP 661 regulation is in place to support safety of pharmaceutical packaging, and specifically plastic packaging. The revision process for the plastics packaging chapters of the USP-NF, including USP 661, has been underway for several years.

Take, for instance, using FEA for a metal-to-plastic conversion. FEA allows a nonlinear analysis in plastic part design that provides a more accurate representation and can help to eliminate potential field failures or what might be unanticipated part performance.

While most batteries are traditionally metal-based, there are significant advantages to using polymers (plastics) instead, especially with recent advancements in polymer science that make using these materials in electric vehicle batteries possible. Design and Processing Flexibility: The versatility of plastic opens up new avenues for battery design and integration within electric vehicles.

While most batteries are traditionally metal-based, there are significant advantages to using polymers (plastics) instead, especially with recent advancements in polymer science that make using these materials in electric vehicle batteries possible. Design and Processing Flexibility: The versatility of plastic opens up new avenues for battery design and integration within electric vehicles.