📄️ Design Optimization
How deFlex uses AI-driven optimization to generate compliant mechanism designs from scratch.
📄️ Compliant Mechanisms
What compliant mechanisms are, why they matter, and how deFlex designs them.
📄️ Design Space
The design domain where deFlex's optimizer places material.
🗃️ Preserves
5 items
📄️ Pairs
Pairs link input preserves to output preserves with stiffness coupling in deFlex.
📄️ Preserve Modes
How Separate, Combined, and Metamaterials preserve modes change boundary condition layout in deFlex.
📄️ Paths
How linear and rotational paths define motion direction and magnitude for preserves in deFlex.
📄️ Obstacles
What obstacles are in deFlex, how part-based and hull-based obstacles work, and how they affect design optimization.
📄️ Volume Fraction
The material budget that controls how much of the design space the optimizer can fill.
📄️ Mesh and Resolution
How deFlex discretizes the design space into grid cells and how resolution affects results.
📄️ Convergence
How to tell when the solver has found its best design.
📄️ Results Interpretation
How to read and evaluate the design output from deFlex's solver.
📄️ Thermal Flexure
How deFlex designs thermally compensating compliant mechanisms for precision mounts.