solid-mechanics

2D plane-stress finite element solver in Python, built around the 8-node serendipity element. Verified by a mesh convergence study: measured L2 and energy rates of 3 and 2 match theory.

Classical FEM for 2D truss problems

Numerical solution of truss structures using sparse linear algebra, constraint methods and scalability analysis.

流固耦合数值模拟 × 钢结构涂层多场耦合老化

ResNets learn the stress–strain laws of three unknown materials, then probe them to reveal anisotropy and plasticity; a neural classifier certifies truss designs at 97.5% accuracy.

Solid dynamics supervised exercices @ Polytech Annecy engineering school

A C++ library to triangulate polygons, that actually works.

beginners' documentation of PetIGA, a code for isogeometric analysis

examples and tutorials that run with https://github.com/avigliotti/AD4SM.jl

2D plane-stress FEM (Q4 and incompatible-mode QM6) verified against the exact Timoshenko-Goodier cantilever solution

TENSORA — open-source 2D computational mechanics / 开源二维力学计算软件. FEM/FEA, TRI3 and ZZ adaptive meshing, structural/solid/rock mechanics, constitutive models, blast and gas–solid dynamics; experimental GNN mesh learning. Local Windows UI, C++/Node.js, Python/PyTorch.

Implicit return-mapping J2 plasticity in NumPy: Armstrong-Frederick kinematic + power-law isotropic hardening, thin-walled tube under nonproportional axial-torsion loading, load-history effects

Curated list of resources on Machine Learning for Computational Models

C++20 research FEA / continuum-mechanics engine: Quad4 elements, linear elasticity, Neo-Hookean hyperelasticity, J2 plasticity, Newton–Raphson, sparse assembly, and verification-focused demos.

MATLAB analytical analyzer for simply supported beam stress, shear, moment, and deflection.

Códigos desenvolvidos quando cursei a disciplina de Introdução a Modelagem Computacional na Universidade Federal de Juiz de Fora.

Mechanical Engineering research paper covering foundations, design, thermodynamics, manufacturing, robotics, AI integration, sustainability, figures, tables, and future directions.

This simple project was developed during my graduation holidays. The objective of this project is the centroid calculation of figures on the Cartesian plane.

Demo project for ML-driven optimization of steel beam cross sections in Python