AgentFEM ร DENIM ยท Material Memory Lab
Material memory meets physics-structured neural models
Start with interactive demos. Build with open simulation datasets, neural constitutive models, and finite-element learning examples.
Material memory meets physics-structured neural models
Note START HERE โ Explore why the same strain can produce different stress after different loading histories. Bilingual interactive material-memory demo.
Same load. Less material. Explore weight and stiffness.
Note EXPLORE โ Compare lighter support structures under load. The browser demo uses recorded candidates; the downloadable model is linked separately.
Note LEARN MATERIAL MEMORY โ 3,788 synthetic loading trajectories across staged releases, including multiaxial paths and prospectively sealed tests.
Note RUN A NEURAL CONSTITUTIVE MODEL โ Conditional DENIM v2.2 combines explicit mechanics with learned hardening. Start with capability_v4.
Note FORECAST DIFFERENT FUTURES โ 64 thermal scenarios, each branching into three control histories. Full fields, sensors, controls, and scenario-grouped splits.
Note LEARN GEOMETRY-TO-FIELD MAPS โ Parameterized 3D bracket elasticity data for structural surrogate experiments; use the documented geometry-grouped protocols.
Note REPRODUCE A STRUCTURAL SURROGATE โ GINO-based bracket models, comparison baselines, and learning-curve results. Model cards report both strengths and limits.
Note Programmable rods: 216 scenarios, three actuation families, equilibrium branches, mesh checks and native AgentFEM validation.
Note Branch-conditioned shape prediction, a mechanics corrector, and bounded inverse-design examples with reproducible tests.
Design flexible rods with live mechanics and inverse design.
Note DRAW A TARGET โ Explore quasi-static rod inverse design in the browser: https://lab.haoming-luo.com/morph/ . Mechanics and optimization run in the demo.
Build pipes and solve expansion, supports and vibration.
Note BUILD AND COMPARE โ Assemble a pipe and examine the effect of a damper. Direct browser access: https://lab.haoming-luo.com/open-science/pipe-lab/
Note THERMAL RESEARCH โ Steady temperature fields, controlled transients and layered thermal bending; choose the task before choosing the data.
Note DYNAMICS โ Synthetic vibration measurements, full-field targets and state-space reconstruction baselines.
Note PIPE RESEARCH โ The interactive assembly lab, component data and reduced-order solver in one place.
Note SOFT RODS โ Explore target shapes, then use branch-labelled data and numerical or neural baselines.