A Two-Stage Generative Design Process for Lightweight Additively Manufactured High-Performance Cooling Manifolds for Power Electronics

The study presents a novel process to design lightweight, high-performance cooling manifolds for power electronics using generative design. The process begins with a baseline design that defines the constraints of the manifold with regard to the target cooling geometry and flow path. A flow optimization is then performed to optimize flow distribution and maximize convective efficiency. Once a final fluid volume is obtained, a structural optimization is conducted to minimize weight and material usage. The simulation results for the final design demonstrated a 40.1% increase in the average heat transfer coefficient, a 7.5% decrease in average chip temperature, a 76.6% improvement in temperature uniformity, and a 63.3% reduction in weight at the expense of a minimal 5.1% increase in pressure drop compared to the baseline design.

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Publication Details

Journal
Electronics
Published
2026-02-11
DOI
https://doi.org/10.3390/electronics15040765
Primary Topic
Heat Transfer and Optimization
Type
article
Field-Weighted Citation Impact
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article

A Two-Stage Generative Design Process for Lightweight Additively Manufactured High-Performance Cooling Manifolds for Power Electronics

Emmanuel Arriola, José Ignacio, Toni López, Ren Andrew Untalan et al.
Electronics
Heat Transfer and Optimization
article

A Two-Stage Generative Design Process for Lightweight Additively Manufactured High-Performance Cooling Manifolds for Power Electronics

Emmanuel Arriola, José Ignacio, Toni López, Ren Andrew Untalan, Abrey Angelo Arroyo, Rigoberto Advincula, Guo-Quan Lu
article en

Abstract

The study presents a novel process to design lightweight, high-performance cooling manifolds for power electronics using generative design. The process begins with a baseline design that defines the constraints of the manifold with regard to the target cooling geometry and flow path. A flow optimization is then performed to optimize flow distribution and maximize convective efficiency. Once a final fluid volume is obtained, a structural optimization is conducted to minimize weight and material usage. The simulation results for the final design demonstrated a 40.1% increase in the average heat transfer coefficient, a 7.5% decrease in average chip temperature, a 76.6% improvement in temperature uniformity, and a 63.3% reduction in weight at the expense of a minimal 5.1% increase in pressure drop compared to the baseline design.

ElectronicsVol. 15(4)
Joint Institute for Computational Sciences (US), Department of Science and Technology (PH), University of Tennessee at Knoxville (US), Virginia Tech (US)
Affordable and clean energy
Openalex Percentile: Top 59%
Heat Transfer and Optimization
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A Two-Stage Generative Design Process for Lightweight Additively Manufactured High-Performance Cooling Manifolds for Power Electronics — Emmanuel Arriola, José Ignacio, et al. · Electronics (2026) | TGRS Research Map | TGRS