
Contributed to the HEPLean/PhysLean repository by building formalized mathematical and physical models in Lean, focusing on quantum mechanics and rigid body dynamics. Developed features such as reflectionless potentials, creation and annihilation operators, and formalizations of the hyperbolic tangent function, emphasizing rigorous proof engineering and code consistency. Enhanced the codebase through systematic refactoring, code linting, and documentation updates, improving maintainability and onboarding. Addressed code quality by fixing linter errors and resolving bugs, ensuring stable builds and reliable CI. Leveraged skills in formal verification, mathematical physics, and functional programming to create reusable abstractions that support future theoretical development and collaborative research.
October 2025: Strengthened the PhysLean library with formalization of rigid body dynamics and improved core physics code quality. Delivered a formalization including coordinate systems, degrees of freedom, velocity decomposition, angular momentum, and rotational motion equations, with accompanying documentation. Implemented extensive bug fixes and linting improvements to ensure stable builds and cleaner, more maintainable codebase.
October 2025: Strengthened the PhysLean library with formalization of rigid body dynamics and improved core physics code quality. Delivered a formalization including coordinate systems, degrees of freedom, velocity decomposition, angular momentum, and rotational motion equations, with accompanying documentation. Implemented extensive bug fixes and linting improvements to ensure stable builds and cleaner, more maintainable codebase.
September 2025 was productive for HEPLean/PhysLean, delivering two major features that strengthen theoretical foundations and future research potential. The work emphasized formal correctness, readability, and scalable abstractions that will support ongoing development and collaboration.
September 2025 was productive for HEPLean/PhysLean, delivering two major features that strengthen theoretical foundations and future research potential. The work emphasized formal correctness, readability, and scalable abstractions that will support ongoing development and collaboration.
August 2025 monthly summary for HEPLean/PhysLean focusing on delivering foundational features for reflectionless potentials, formalizing tanh-related properties, and cleaning up the Lean codebase. The work enhances modeling fidelity for quantum potentials and demonstrates strong formal verification capabilities.
August 2025 monthly summary for HEPLean/PhysLean focusing on delivering foundational features for reflectionless potentials, formalizing tanh-related properties, and cleaning up the Lean codebase. The work enhances modeling fidelity for quantum potentials and demonstrates strong formal verification capabilities.
July 2025 performance summary for HEPLean/PhysLean: Delivered Lean formalization of reflectionless potentials in 1D quantum mechanics, including definitions of the potential structure and a concrete function V(x); Implemented reflectionless potential support in Lean; Fixed linter errors to improve CI hygiene; Contributed groundwork for formal proofs and theoretical development; This work strengthens the codebase, enabling rigorous verification of quantum mechanical properties and accelerating future research.
July 2025 performance summary for HEPLean/PhysLean: Delivered Lean formalization of reflectionless potentials in 1D quantum mechanics, including definitions of the potential structure and a concrete function V(x); Implemented reflectionless potential support in Lean; Fixed linter errors to improve CI hygiene; Contributed groundwork for formal proofs and theoretical development; This work strengthens the codebase, enabling rigorous verification of quantum mechanical properties and accelerating future research.

Overview of all repositories you've contributed to across your timeline