December 8, 2025PolymersOpen Access

CFD-Based Evaluation of Stirred Tank Designs for High-Viscosity Copolymer Aramid Dope Mixing

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Mixing efficiency improved significantly through optimized baffle configuration in stirred tanks, promoting better flow behavior.
Simulation results revealed that four baffles effectively reduced swirling flows in high-viscosity polymer mixes.
Assessment using computational fluid dynamics clarified the roles of impeller designs on homogenization in stirred tanks.
Findings highlight the necessity for tailored design guidelines in processing high-viscosity polymers for industrial applications.

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Implication

Computational fluid dynamics demonstrates improved mixing efficiency in high-viscosity aramid polymer systems, indicating critical design roles of impellers and baffles.

Cite This Study

Jee-hyun Sim (2025) studied this question.

synapsesocial.com/papers/693624c34fa91c937236cb19 https://doi.org/10.3390/polym17233233

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Implication

Computational fluid dynamics demonstrates improved mixing efficiency in high-viscosity aramid polymer systems, indicating critical design roles of impellers and baffles.

CFD-Based Evaluation of Stirred Tank Designs for High-Viscosity Copolymer Aramid Dope Mixing

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Discussion

Implication

Cite This Study

CFD-Based Evaluation of Stirred Tank Designs for High-Viscosity Copolymer Aramid Dope Mixing

Key Points

Discussion

Implication

Cite This Study

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