{"href":"https://api.simplecast.com/oembed?url=https%3A%2F%2Fenvalior.simplecast.com%2Fepisodes%2Fmass-balance-enables-circularity-at-scale-1Wf0qXt5","width":444,"version":"1.0","type":"rich","title":"Mass balance enables circularity at scale","thumbnail_width":300,"thumbnail_url":"https://image.simplecastcdn.com/images/d0c5733a-f34f-4670-a2f5-b391d836b944/71214f22-fa70-41fb-99dc-a916e38e1fd6/cropped_1792052674368.jpg","thumbnail_height":300,"provider_url":"https://simplecast.com","provider_name":"Simplecast","html":"<iframe src=\"https://player.simplecast.com/1965b96f-2d34-4445-94c5-9ca97e19035e\" height=\"200\" width=\"100%\" title=\"Mass balance enables circularity at scale\" frameborder=\"0\" scrolling=\"no\"></iframe>","height":200,"description":"Discover how chemical recycling and mass balance help achieve circularity targets while maintaining the quality and performance required for demanding applications.\n\nCircular economy targets are accelerating across industries, driven by the need to reduce dependency on fossil feedstocks. Mechanical recycling remains an important part of this transition, however it alone cannot deliver the volume, consistency, or virgin-equivalent performance required for many engineering applications. Modern polymers are highly engineered materials formulated with specialized additives, reinforcements, fillers, and performance characteristics. Maintaining consistent material quality through mechanical recycling alone becomes increasingly difficult. This podcast explains why circular economy targets can be achieved by a combination of chemical recycling and mass-balance - not through mechanical recycling alone.\n"}