Unleashing the Power of Topology Optimization in Computational Engineering Workflows

This research delves into the integration of topology optimization within structural design workflows, aiming to enhance computational design processes beyond form shaping. Topology optimization minimizes material usage while preserving structural integrity by adhering to design stresses and deflections within allowable limits—an essential aspect of sustainable structure design. The intricate morphologies resulting from topology optimization, however, pose challenges for widespread adoption and mass production. Despite advancements in manufacturing, the fabrication of these optimized forms remains intricate and resource-intensive, particularly in terms of operational carbon during manufacturing processes. The significance of our findings lies in demonstrating the integration of topology optimization into computational workflows, offering insights that complement traditional structural design methodologies instead of forming the design per se. This approach not only expands the spectrum of design possibilities but also accelerates simulation speed, thereby revealing potential structural efficiencies that might otherwise be overlooked in conventional design processes. The manuscript also provides a discussion on the findings and proposes the next investigation steps.