
Worked on the newton-physics/newton repository, delivering features and fixes across simulation, robotics, and visualization over seven months. Developed differentiable simulation suites and enhanced cloth and brick stacking demos, focusing on gradient-based optimization and physics fidelity using C++ and Python. Improved model import flexibility, stabilized multi-threaded performance, and addressed memory management for GPU state resets. Refined UI/UX by anchoring visualization windows and streamlining user interactions. Tackled concurrency and dependency management, implemented robust error handling, and expanded unit testing coverage. The work emphasized simulation stability, test reliability, and demonstration accuracy, resulting in a more maintainable and user-friendly simulation framework.
May 2026 highlights for newton-physics/newton: Delivered reliability, stability, and UX improvements across GPU state management, physics algorithms, and UI. Implemented configurable edge clamp for marching cubes with associated threading fixes in nut_bolt_hydro, enhanced stability under various solvers, and resolved significant memory management issues. Improved user experience and simulation fidelity with UI and physics fixes.
May 2026 highlights for newton-physics/newton: Delivered reliability, stability, and UX improvements across GPU state management, physics algorithms, and UI. Implemented configurable edge clamp for marching cubes with associated threading fixes in nut_bolt_hydro, enhanced stability under various solvers, and resolved significant memory management issues. Improved user experience and simulation fidelity with UI and physics fixes.
April 2026 (2026-04): Delivered stability-focused improvements to the Newton physics stack, emphasizing test reliability, simulation stability, and demo fidelity. Key changes include pinning the cbor2 dependency to prevent test regressions, enhancing error messaging and configuration, adding a configurable clamp for viewer picking force to prevent instability on light objects, and correcting the COM-reference Jacobian in the cloth_franka demo with adjustments to base height and gripper orientations to improve reachability and cloth interaction. These changes reduce flaky tests, increase runtime stability, and enhance demonstration quality, delivering tangible business value through more reliable releases and clearer, safer demos.
April 2026 (2026-04): Delivered stability-focused improvements to the Newton physics stack, emphasizing test reliability, simulation stability, and demo fidelity. Key changes include pinning the cbor2 dependency to prevent test regressions, enhancing error messaging and configuration, adding a configurable clamp for viewer picking force to prevent instability on light objects, and correcting the COM-reference Jacobian in the cloth_franka demo with adjustments to base height and gripper orientations to improve reachability and cloth interaction. These changes reduce flaky tests, increase runtime stability, and enhance demonstration quality, delivering tangible business value through more reliable releases and clearer, safer demos.
March 2026 — Monthly summary for the newton-physics/newton repository focusing on stabilizing 3D visualization and strengthening inertia validation to improve simulation reliability and model finalization.
March 2026 — Monthly summary for the newton-physics/newton repository focusing on stabilizing 3D visualization and strengthening inertia validation to improve simulation reliability and model finalization.
February 2026 monthly summary for newton-physics/newton focusing on delivering flexible import capabilities, stabilizing core simulation tasks, and hardening concurrency. The work reduces model integration friction, improves simulation reliability, and lays groundwork for safer multi‑threaded performance. Business value is reflected in broader model compatibility, fewer flaky tests, and lower maintenance risk.
February 2026 monthly summary for newton-physics/newton focusing on delivering flexible import capabilities, stabilizing core simulation tasks, and hardening concurrency. The work reduces model integration friction, improves simulation reliability, and lays groundwork for safer multi‑threaded performance. Business value is reflected in broader model compatibility, fewer flaky tests, and lower maintenance risk.
January 2026 was focused on UX simplification in the Newton physics project, delivering a feature that streamlines user interaction during cube stacking simulations. The change disables GUI picking in the cube stacking example to prevent unnecessary interactions during simulation, improving usability and reliability for demos and automated runs.
January 2026 was focused on UX simplification in the Newton physics project, delivering a feature that streamlines user interaction during cube stacking simulations. The change disables GUI picking in the cube stacking example to prevent unnecessary interactions during simulation, improving usability and reliability for demos and automated runs.
December 2025 monthly summary focusing on key accomplishments for the Newton framework. The standout delivery was a new demonstration feature that enhances realism and testing of inverse-kinematics (IK) scenarios. The work aligns with our goals of expanding the demonstration toolkit, accelerating user onboarding, and enabling more robust IK pipelines.
December 2025 monthly summary focusing on key accomplishments for the Newton framework. The standout delivery was a new demonstration feature that enhances realism and testing of inverse-kinematics (IK) scenarios. The work aligns with our goals of expanding the demonstration toolkit, accelerating user onboarding, and enabling more robust IK pipelines.
In August 2025, contributed to the Newton physics library with tangible improvements in physics fidelity and differentiable simulation capabilities, validated by tests and aligned with downstream usage. Major features introduced include a configurable triangle-contact toggle in cloth simulation and a new differentiable simulation (diffsim) suite with multiple reference examples, documentation, and tests. These changes create new avenues for optimization, design iteration, and robust simulation in downstream projects.
In August 2025, contributed to the Newton physics library with tangible improvements in physics fidelity and differentiable simulation capabilities, validated by tests and aligned with downstream usage. Major features introduced include a configurable triangle-contact toggle in cloth simulation and a new differentiable simulation (diffsim) suite with multiple reference examples, documentation, and tests. These changes create new avenues for optimization, design iteration, and robust simulation in downstream projects.

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