方向二:Data-Driven Design

1. Evolutionary De-homogenization Framework

This research develops data-driven multifidelity design methods for complex solid-porous structures. Compact low-fidelity control fields are transformed into precise and manufacturable geometries through de-homogenization, while high-fidelity simulations evaluate local stress and structural performance. Evolutionary optimization and generative models are then used to explore the design space, improve candidate diversity, and connect optimized results with CAD-compatible geometric representations.

Projection-based evolutionary de-homogenization for solid-porous infill structures

1.1. Projection-Based Evolutionary De-homogenization 专攻方向

Data-driven multifidelity optimization of hybrid solid-porous infill structures using projection-based geometric mapping, high-fidelity stress analysis, evolutionary selection, and generative candidate design.

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Phasor-based evolutionary de-homogenization result

1.2. Phasor-Based Evolutionary De-homogenization 专攻方向

Phasor and wave-function representations generate spatially oriented, coherent porous patterns from optimized control fields while retaining geometric continuity and manufacturable feature control.

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