PrimaLoft announced the launch of their first 100% recycled, biodegradable synthetic insulation which can be chemically recycled into its basic components and turned into new high-performance material, without compromising its integrity. The process produces a 95% yield rate giving PrimaLoft the ability to produce a fabric that supports a circular economy and supporting their Relentlessly Responsible™ Mission.
The first 100% recycled, biodegradable* synthetic insulation and fabric fibre proven to be renewable for use in a circular economy
PrimaLoft, Inc., experts in advanced material technology, today announces its PrimaLoft® Bio™ fibres are renewable in a circular economy. As a result of third-party testing, the polyester fibres have proven capable of being chemically recycled. This process breaks down polyester to its basic components so that it can be rejuvenated into a new high-performance material, without compromising its original integrity. PrimaLoft is the first brand to introduce a 100% recycled, biodegradable* synthetic insulation and fabric that support circularity.
“The intention of PrimaLoft Bio was always to address the eventual end of life of a garment in an impactful way, while finding a solution for the industry-wide microplastics issue,” said PrimaLoft president and CEO Mike Joyce. “Biodegradability is an end of life solution that works in harmony with the circularity model. With the ability to renew our fibres, we are changing the conversation to circularity. Circular economies are the next frontier in sustainability and we have proven our capabilities in this space.”
Third-party testing has shown that PrimaLoft Bio fibres can be chemically recycled with a 95% yield rate. After chemical recycling, PrimaLoft Bio fibres may be reused to produce new insulation or fabric fibres, while maintaining the same level of performance.
Circularity, or a circular economy, is an economic system aimed at minimizing waste and re-capturing usable resources to be utilised within the system. This eliminates the need to introduce new natural resources, creating a closed loop. A circular economy is a more sustainable alternative to a traditional linear economy, which relies on the “take, make, dispose” model of utilising resources.
Joyce continued, “More than 8.3 billion metric tons of plastic have been produced worldwide, since 1950, and less than 10% of those plastics have actually been recycled1. Those numbers are alarming and PrimaLoft is working on solutions to reduce the use of oil-based virgin polyester fibres. To that end, we have been using recycled polyester fibres sourced from plastic bottles in our products since 2007. Through this traditional mechanical recycling process, new high-performance material can be created. However, this method cannot be used repeatedly without eventually sacrificing the performance characteristics of the polyester and continuing to use additional natural resources. That’s why PrimaLoft searched for new ways to close the system.”
PrimaLoft® Bio™ fibres are made from 100% post-consumer recycled material and break down when exposed to specific environments – such as a landfill or the ocean. PrimaLoft has enhanced the to be more attractive to the naturally-occurring microbes found in these environments so that they eat away at the fibres at a faster rate, returning the fabric or insulation to natural elements. Fibres will only biodegrade when exposed to these naturally-occurring microbes in landfills or bodies of water, thus, the insulation or fabric remains highly durable throughout its usable lifecycle in a garment.
Biodegradable fibres provide a solution for the potential shedding of fibres throughout a garment’s usable life, as well as for garments that do end up in landfill or ocean water environments.
* 86.1% biodegradation in 499 days under ASTM D5511 conditions – Standard Test Method for Determining Anaerobic Biodegradation of Plastic Materials Under High-Solids Anaerobic-Digestion Conditions
* 57.4% biodegradation in 486 days under ASTM D6691 conditions – Standard Test Method for Determining Aerobic Biodegradation of Plastic Materials in the Marine Environment by a Defined Microbial Consortium or Natural Sea Water Inoculum