From a product-type viewpoint, flexible polyvinyl chloride (PVC) and poly(urethane)-foam-based applications have used biocides for decades.[8,9] PVC is especially vulnerable to attack from fungi and bacteria due to extensive plasticizer usage in flexible applications.[ 10] Poly(urethane) foams are another notable consumer of biocides because of their porous nature, which pro- vides an ideal environment for microbes to grow.[11,12] Therefore, it is not surprising that many applications based on these two materials have significant usage of biocides; commonly, oxybisphenoxarsine or lower toxic- ity alternatives such as zinc pyrithione (ZPT) antimicro- bials are employed.[10] Specific example applications include kitchen and bath accessories, swimming pool liners, carpet backing, sleep solutions like mattresses and pillows, roofing membranes, and tiles. To reduce the incidence of device-associated infections, antimicrobial technologies have been utilized in a variety of ways ranging from bulk-imbedded additives to sur- face grafting techniques.[13,14] In particular, silver-based additive technologies are frequently explored for healthcare applications due to their favorable toxicological profiles and broader regulatory approvals, while silver nanoparticles with controlled, long-term release profiles continue to be a very active and promising area of biomedi- cal research.[15-19] In textile segments such as sports active- wear, biocides are used to prevent the growth of odor- causing bacteria from perspiration.[20,21] Additionally, high-end recreational products such as boats utilize bio- cides to preserve the aesthetics of PVC products used for seat covers since bacterial growth may lead to pink staining caused by specific bacterial metabolites.[22,23] With respect to the mechanism of action, many antimicrobial products work by attacking enzymes common to a variety of microbes, interfering with membrane transport processes (e.g., importing environmental copper into the cells) as well as interfering with iron metabolism pathways.[24,25] Herein, an assortment of both rigid and flexible resins/ compounds will be evaluated for susceptibility to determine whether particular resin chemistries or compounds are inherently vulnerable to microbial growth and subsequent degradation or other deleterious effects. Samples were prepared via extrusion utilizing a Leistritz ZSE 27 mm co-rotating twin-screw extruder (Leistritz Advanced Technologies Corp., Nuremberg, Germany), followed by injection molding of 5 � 600 (12.7 � 15.24 cm) plaques, 0.12500 (3.175 mm) thickness using a Milacron™ Roboshot™ S2000i.1 For antimicro- bial testing, specified test specimens were prepared from the aforementioned plaques.

SILICONE DISPERSION TECHNOLOGIES Colorant and additive dispersions that provide enhanced performance and color consistency WE’RE HERE TO HELP With our broad portfolio of color and additive silicone dispersions, we can provide the value, consistency and reliability needed to get products to market quickly and successfully. We specialize in color and additive technologies, offering both standard and customized solutions across all silicone platforms: High Consistency Rubber (HCR), Liquid Silicone Rubber (LSR), Room Temperature Vulcanization (RTV), as well as many other thermoset carrier systems. Additive technologies include: • Heat stabilizers • Acid acceptors • Mold release agents • Phosphorescent • Flame retardant • Tensile modifiers • Antioxidants • Peroxides • Viscosity modifiers • Electrically conductive systems • Thermally conductive systems • Radio-opacity • Self-bond TYPICAL USES Silicone dispersions are used in a wide range of applications: • Automotive – spark plug boots, ignition cables, gaskets/seals, O-rings, overmolded parts • Rollers – industrial, copiers • Fabric Coating – welding curtains, air bags, belts • Cookware – bakeware, spatulas, gloves • Consumer Goods – goggles, glasses, cell phone covers, grips • Healthcare – sterilization pads, catheters, grips, tubing, grommets, prosthesis • Military and Aerospace – gas masks, clip straps, jet starter hose • Wire & Cable/Power Transmission – jackets, sleeves, insulators • Infant Care – nipples/pacifiers, toys • Extrusion – architectural, O-ring cords, gaskets, spacers, profiles Manufacturing locations: Massillon, OH, USA LaPorte, IN, USA Eindhoven, Netherlands Learn more about our silicone dispersions at 1.844.4AVIENT (1.844.428.4368) or visit www.avient.com.

Avient Announces First Quarter 2022 Results in Connection with Announcement to Acquire DSM Protective Materials (Dyneema®)... Avient Announces Agreement to Acquire DSM Protective Materials (Dyneema®) and Plans to Explore Sale of Distribution...

Avient Announces First Quarter 2022 Results in Connection with Announcement to Acquire DSM Protective Materials (Dyneema®) Avient Announces Agreement to Acquire DSM Protective Materials (Dyneema®) and Plans to Explore Sale of Distribution

Avient to Debut Dyneema® Fiber at JEC World 2023 Avient to debut Dyneema® Fiber at JEC World 2023 To download a high-resolution image, please click here: FOR MEDIA USE ONLY   PARIS, Fran

In addition, the CAMX exhibit will feature the following composite technologies: Thermoplastic Composites: Dyneema®, the world’s strongest fiber™, enables unmatched levels of performance and protection for end-use applications, including ballistic personal protection, marine and sustainable infrastructure and outdoor sports Unique technologies that improve the recyclability of products and enable recycled content to be incorporated, thus advancing a more circular economy

Customers can rely on Avient’s technology development and testing capabilities to get the most out of its recycled-content-containing materials as they move towards a more circular manufacturing model.” Dyneema®, the world's strongest fiber™, enables unmatched levels of performance and protection for end-use applications, including ballistic personal protection, marine and sustainable infrastructure and outdoor sports Unique technologies that improve the recyclability of products and enable recycled content to be incorporated, thus advancing a more circular economy

The innovative hybrid product technology is developed to replace die-cast or machined metals to deliver both the look and weighted feel of metal in premium brand high-impact applications. Dyneema®, the world’s strongest fiber™, enables unmatched levels of performance and protection for end-use applications, including ballistic personal protection, marine and sustainable infrastructure and outdoor sports Unique technologies that improve the recyclability of products and enable recycled content to be incorporated, thus advancing a more circular economy

Technology Manager, LATAM Color, Additives, and Inks, at Avient, will speak on additives and the future of plastics in flexible packaging at 2 p.m. Dyneema®, the world’s strongest fiber™, enables unmatched levels of performance and protection for end-use applications, including ballistic personal protection, marine and sustainable infrastructure and outdoor sports Unique technologies that improve the recyclability of products and enable recycled content to be incorporated, thus advancing a more circular economy

Besides relying on the verified halogen-free technology of all flame-retardant reSound TPEs, Avient’s new low-PCF HFFR formulations include two reSound BIO grades with up to 45% bio-based content and one reSound REC FR grade with up to 30% PCR content. Dyneema®, the world’s strongest fiber™, enables unmatched levels of performance and protection for end-use applications, including ballistic personal protection, marine and sustainable infrastructure and outdoor sports Unique technologies that improve the recyclability of products and enable recycled content to be incorporated, thus advancing a more circular economy