kmolyuan / egui Goto Github PK

Made with Krita. (Copyright 2021-)

• Optimal Design
• Linkage Mechanisms
• Computer Vision
• Machine Learning

• Game 0 A.D. (en-US → zh-TW)

• four-bar: Planar four-bar linkage mechanism simulation and mechanical synthesis system.
  • type: GUI, WebAssembly GUI
  • techniques: Rust (Actix, egui, wasm-bindgen), JavaScript
• efd: Elliptical Fourier Descriptor (EFD) implementation in Rust.
  • type: Library
  • techniques: Pure Rust
• metaheuristics-nature: A collection of nature-inspired metaheuristic algorithms for benchmarking different optimization methods.
  • type: Library
  • techniques: Pure Rust
• reveal-yaml: Create a Reveal.js presentation simply via a YAML file and some local resources. (CLI)
  • type: CLI, remade from Python
  • techniques: Rust (Actix), JavaScript (jQuery), CSS, HTML
• Pyslvs-UI: Planar linkage mechanism simulation and mechanical synthesis system.
  • type: GUI, kernel selectable (main library: pyslvs)
  • techniques: Python (PyQt), Cython, C++
• Python-Solvespace: Python wrapper for the kernel of Solvespace, which is CAD software.
  • type: Wrapper, library
  • techniques: Python, Cython
• apimd: A Python API compiler for universal Markdown syntax.
  • type: CLI
  • techniques: Pure Python
• yaml-peg: A YAML 1.2 parser using a greedy parsing algorithm with PEG atoms.
  • type: Library
  • techniques: Pure Rust
• latex-paper: LaTex template for National Taiwan University Thesis.
  • type: Template
  • techniques: ShellScript, LaTex (pandoc CLI)
• My Gists

• Rust
• Python (PyQt, PyTorch, Cython)
• C99^/C++11^
• ShellScript / Makefile / CMake / Batch file
• Matlab
• JavaScript / TypeScript (HTML / CSS)
• OCaml

Work platform: Kubuntu / Windows

• 2024, Path Synthesis of Planar Four-bar Linkages for Closed and Open Curves Using Elliptical Fourier Descriptors
• 2024, Atlas-Based Path Synthesis of Planar Four-Bar Linkages Using Elliptical Fourier Descriptors
• 2022, A generative model for path synthesis of four-bar linkages via uniform sampling dataset
• 2021, Design of a Monolithic Constant-Force Compliant Mechanism for Extended Range of Motion and Minimal Force Variation