Industry

How does the PFAS ban affect the plastics industry?

Many applications rely on PFASs and fluoropolymers, but not in all cases can they be substituted as quickly as the legislation requires.

PFASs are on their way to being prohibited in the European Union, and the U.S. will continue that policy. According to the European Chemicals Agency classification, most fluoropolymers fall into perfluoroalkylated and polyfluoroalkylated substances (PFAS), which justifies their ban. But what about applications that rely on them?

Switch to PFAS-free alternatives

Companies now have two options, try to switch to PFAS-free solutions or ask for an exemption, which could be temporary.

Since using PFAS as polymerization aids is the main cause of PFAS emissions related to the fluoropolymer life cycle, several additive companies have developed PFAS-free auxiliaries to comply with the looming ban.

Companies such as Avient, AMPACET, MOMENTIVE, BAERLOCHER, and GFL have developed different polymer processing aids with different chemistries. Depending on the application, one will be more suitable than another. These solutions directly solve problems such as melt fracture, matrix formation, energy consumption, dimensional and thermal stability, and flame retardancy.

Finding a substitute as quickly as the legislation requires

Other industries, such as biomedical, use fluoropolymers, especially PTFE, for a wide variety of products, from surgical instruments to guidewires and catheters. This is because PTFE has the lowest coefficient of friction of all polymers, and is self-lubricating and inert. Another concern is the rigorous regulation of medical devices, making material changes a lengthy and approval-intensive process.

The aerospace sector, also, may encounter challenges in substituting PFAS due to its need for standardized solutions, potentially extending the transition period.

But requesting an exception is, for many experts, an option to gain time to move to a PFAS-free solution. In the long term, this could create a crisis in the material supply chain, as some PFAS producers may choose to withdraw from the market in 2025.

By Juliana Montoya | November 28, 2023

Recent Posts

  • Energy Generation

Bithiazole-Based Polymers for Scalable Solar Hydrogen

Bithiazole-based polymers improve solar hydrogen production by linking backbone design, nanoparticle processing, and interfacial engineering.

19 hours ago
  • Sustainability

Biodegradability : Understanding What “Breaks Down” and What Doesn’t

Microorganisms metabolize polymer carbon into CO₂ or CH₄, proving actual biodegradation beyond physical or chemical…

2 days ago
  • Automotive & Transportation

Bcomp × Ather: Bio-Composites Redefining Electric Two-Wheelers

Redux highlights flax-based composites, redefining lightweight EV design with sustainable, high-performance materials.

5 days ago
  • Business

How Regionalization Is Reshaping Polymer Trade Flows

Rising costs and trade friction are splitting polymer networks: global scale remains vital for virgin…

6 days ago
  • Building & Construction
  • Business
  • Circular Economy
  • Education & Training
  • Industry
  • Materials
  • Microplastics
  • People
  • Process
  • Semi-Finished Products
  • Strategy
  • Sustainability
  • Thermoplastics
  • Trending

SC-PLA Nanospheres Revolutionize Smart Agrochemical Delivery

Engineers use stereo-complexed PLA nanospheres to halt pesticide waste and boost crop yields via precise,…

6 days ago
  • 3D Printing/Additive Manufacturing

Photothermal Curing Drives Advanced Thermoset Manufacturing

Engineers utilize photothermal conversion to 3D print thermoset composites, cutting oven curing and delivering robust…

7 days ago