The goal of this project is to develop a next-generation CNC fixture that integrates AI-driven generative design, topology optimization, and predictive modelling to achieve exceptional performance in machining environments. The detailed objectives include:
To create a parametric and modular fixture design capable of accommodating a wide variety of prismatic workpiece geometries with minimal operator intervention.
To reduce fixture weight by 30–50% through topology optimization while preserving or improving stiffness and functional integrity.
To apply generative AI and LLM-assisted design refinement to identify efficient geometric configurations aligned with stress flow and manufacturability.
To evaluate structural behavior under realistic machining loads (1300–1500 N) using static and modal finite element analysis (FEA).
To develop a high-accuracy ANN surrogate model for predicting deformation, stress, and stiffness instantaneously without the need for repeated simulations.
To validate and compare ANN predictions with FEA outputs, quantifying accuracy through metrics such as R², MSE, and regression plots
To select the best-performing design iteration based on stiffness-to-mass ratio, stress distribution, modal stability, and manufacturability considerations.
To propose a future-ready framework supporting autonomous, AI-driven fixture design systems suitable for Industry 4.0/5.0 smart manufacturing.