Linked from
The 15 pages that link to Crystallinity, each with the reason it gives.
PolyethyleneRelated: Polyethylene’s crystalline regions affect stiffness, density, transparency, and melting behavior.
NylonRelated: Ordered regions in nylon fibers help determine stiffness and durability.
PolyesterRelated: Chain order in polyester affects stiffness, transparency, and resistance to solvents.
Polyethylene terephthalateRelated: PET’s crystalline regions affect its stiffness, transparency, and resistance to heat.
Synthetic fiberRelated: Polymer crystallinity affects synthetic fibers’ strength, density, and resistance to heat.
PolyamideRelated: Polyamide crystallinity affects stiffness, strength, heat resistance, and dimensional stability.
Organic semiconductorRelated: Ordered regions can improve transport, while boundaries and disorder can impede it.
PolytetrafluoroethyleneRelated: PTFE’s crystalline regions influence stiffness, strength, and dimensional behavior.
Nylon 6Related: Nylon 6's crystalline regions contribute to stiffness, strength, and resistance to solvents.
FluoropolymersRelated: Backbone structure and processing determine crystallinity, affecting strength and thermal behavior.
Synthetic polymerRelated: Ordered regions influence stiffness, density, and permeability in many synthetic polymers.
KevlarRelated: Kevlar’s ordered regions contribute to stiffness and tensile strength.
Polylactic acidRelated: PLA’s crystalline regions affect stiffness, transparency, heat resistance, and breakdown rate.
CrystalliteRelated: It measures the presence of crystalline order, not the size of each crystallite.
PolyoxymethyleneRelated: POM’s high crystallinity contributes to its stiffness, strength, and dimensional stability.