Because of its excellent compatibility with polyamide resin, HIMILAN™ work as a polymer modifier to improve moldability and impact resistance by blending with polyamide resin.
Polyamides are expected to undergo various types of degradation—such as thermal degradation, fatigue degradation, and oxidative degradation—depending on their application and operating environment. Moreover, as polyamide resin easily absorb moisture due to hydrophilicity of its amide groups, it is reported that recycled polyamide by material recycling shows changes in physical properties and significant change in dynamic viscoelasticity of temperature spectrum when more than 5wt% of moisture absorbance.
Blending HIMILAN™ as a polymer modifier can be a solution for such technical issues of recycle polyamide resin.
Improved moldability (melt viscosity modification), impact resistance, and pinhole resistance of recycled polyamide
As a compatibilizer for Polyamide +PE blend systems
HIMILAN™as a Polymer Modifier for Polyamide
Because of its excellent compatibility with polyamide resin, HIMILAN™ work as a polymer modifier to improve moldability and impact resistance by blending with polyamide resin.
Polyamides are expected to undergo various types of degradation—such as thermal degradation, fatigue degradation, and oxidative degradation—depending on their application and operating environment. Moreover, as polyamide resin easily absorb moisture due to hydrophilicity of its amide groups, it is reported that recycled polyamide by material recycling shows changes in physical properties and significant change in dynamic viscoelasticity of temperature spectrum when more than 5wt% of moisture absorbance.
Blending HIMILAN™ as a polymer modifier can be a solution for such technical issues of recycle polyamide resin.
Improved moldability (melt viscosity modification), impact resistance, and pinhole resistance of recycled polyamide
As a compatibilizer for Polyamide +PE blend systems
By maximizing the types of HIMILAN™, the dispersibility of HIMILAN™ in PA can be lowered.
Viscosity rises at a low shear rate, improving processability at low shear.
Impact resistance is improved around 3-fold at both normal temperature and low temperature.
