https://www.avient.com/resources/safety-data-sheets?page=4682
PVC SAFETY YELLOW
PVC SAFETY BROWN
PVC SAFETY GREY
https://www.avient.com/resources/safety-data-sheets?page=4381
PVC TAN 38
PVC BRONZE 52
PVC TAN 44
https://www.avient.com/news/beyond-acrylic-new-resilience-ls-materials-polyone-boost-led-lens-performance
Resilienceä LS Frost PVC offers equivalent properties and material performance to acrylic (PMMA) at a notably lower cost, depending on volume and profile size.
Resilience™ LS High Reflectance PVC performs on par with metallized plastics, such as polycarbonate (PC) and acrylonitrile butadiene styrene (ABS), and offers higher light reflectance without metallization.
PHOTO CAPTION: Resilience™ LS High Reflectance PVC, one of two new grades from PolyOne, offers higher light reflectance and other performance benefits than typical metalized PC
https://www.avient.com/sites/default/files/2021-06/fl.datasheet-strengthmembers.pdf
STRENGTH MEMBERS FIBERS PROCESSES PRODUCTS
FIBER OPTICAL CABLES
MOVING HIGH PERFORMANCE FIBERS FORWARD
Key Features
• Dielectric strength members
• Sizes Available: 0.175 mm – 18.00 mm
• Available Forms:
Flat, Twisted, Cords, Rovings, & Jacketed
• Shapes: Flat or round
FIBER-LINE® FIBERS
FOR STRENGTH MEMBERS
• Kevlar® Para-Aramid
• Vectran® Liquid Crystal Polymer (LCP)
• Zylon® Polybenzyloate (PBO)
• Carbon Fiber
• Ultra High Molecular Weight Polyethylene
(UHMWPE)
• PET Polyester
• Fiberglass
• Nylon Polyamide
• Technora®
FIBER-LINE PERFORMANCE
ADDING POLYMER JACKETS
• LDPE, MDPE, HDPE**
• PP**
• ETFE**
• Polyurethane**
• PVC**
• PFA**
• PVDF**
• EPC**
Overview
FIBER-LINE® develops, produces, and markets a full line of high
performance strength members.
https://www.avient.com/products/vinyl-formulations/vinyl-powder-coating-and-dip-molding/core-vinyl-powder-coating-formulations
These dry blends of suspension PVC resins are plasticized for flexibility.
CORE™ Vinyl Powder Coatings are dry blends of suspension PVC resins that are plasticized for flexibility
https://www.avient.com/sites/default/files/2021-10/microbial-susceptibility-of-various-polymers-and-evaluation.pdf
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.
https://www.avient.com/resources/safety-data-sheets?page=5621
X-96 WHITE PVC
DESIGNER WHITE PVC
PVC GREY 3700
https://www.avient.com/resources/safety-data-sheets?page=2599
POLAR WHITE PVC
1000 WHITE PVC
UV GRAY PVC
https://www.avient.com/resources/safety-data-sheets?page=4259
PVC DESIGNER WHITE UV
PVC SILVER UV
GRAY PVC
https://www.avient.com/resources/safety-data-sheets?page=5957
UV WHITE REGRIND PVC
PVC IVORY SENC CMSENC P
VEKA WHITE PVC