
Over eight months, contributed to the UBC-Snowbots/Chassis repository by designing and iterating on modular rover hardware, including wheel systems, suspension architectures, and safety-critical components. Leveraged SolidWorks and CAD modeling to deliver manufacturable assemblies such as Rocker-Bogie suspensions, rack-and-pinion mechanisms, and E-stop systems, focusing on reliability, printability, and integration with robotics platforms. Applied mechanical engineering principles to optimize part fit, stability, and assembly workflows, while maintaining thorough documentation and version control. Enhanced system safety and maintainability through iterative design validation, simulation, and hardware-in-the-loop testing, resulting in robust, production-ready mechanical subsystems for field deployment and rapid prototyping.
June 2026 — UBC-Snowbots/Chassis: Delivered the Mini Rover E-Stop Holder redesign to enhance safety by integrating nut holes for secure fastening. This hardware improvement reduces risk during emergency stops and simplifies assembly. No major bugs fixed this month. Impact: safer, more reliable hardware enabling safer field tests and easier maintenance. Technologies/skills: mechanical design optimization, safety-focused hardware integration, CAD/documentation, Git version control.
June 2026 — UBC-Snowbots/Chassis: Delivered the Mini Rover E-Stop Holder redesign to enhance safety by integrating nut holes for secure fastening. This hardware improvement reduces risk during emergency stops and simplifies assembly. No major bugs fixed this month. Impact: safer, more reliable hardware enabling safer field tests and easier maintenance. Technologies/skills: mechanical design optimization, safety-focused hardware integration, CAD/documentation, Git version control.
In May 2026, delivered two core chassis features for UBC-Snowbots/Chassis: Rack and Pinion integration with testing artifacts and the Emergency Stop (E-stop) system design and safety refinements. The work focused on enabling hardware-in-the-loop validation, safety-critical functionality, and design verification through CAD-driven artifacts. Key outcomes include CAD assembly files for rack-and-pinion testing, E-stop CAD/slicing refinements, and dimensional updates to critical components (e.g., 7mm middle screw) to ensure robust, compliant operation. These efforts reduce integration risk, accelerate test readiness, and strengthen chassis safety and reliability.
In May 2026, delivered two core chassis features for UBC-Snowbots/Chassis: Rack and Pinion integration with testing artifacts and the Emergency Stop (E-stop) system design and safety refinements. The work focused on enabling hardware-in-the-loop validation, safety-critical functionality, and design verification through CAD-driven artifacts. Key outcomes include CAD assembly files for rack-and-pinion testing, E-stop CAD/slicing refinements, and dimensional updates to critical components (e.g., 7mm middle screw) to ensure robust, compliant operation. These efforts reduce integration risk, accelerate test readiness, and strengthen chassis safety and reliability.
April 2026 monthly summary for developer work focusing on key deliverables and impact. Spotlight on the Robotics Chassis Design Integration in UBC-Snowbots/Chassis, aligning chassis design with the latest mainline changes and hardware integration updates to enable faster hardware testing and platform readiness.
April 2026 monthly summary for developer work focusing on key deliverables and impact. Spotlight on the Robotics Chassis Design Integration in UBC-Snowbots/Chassis, aligning chassis design with the latest mainline changes and hardware integration updates to enable faster hardware testing and platform readiness.
March 2026 – UBC-Snowbots/Chassis: Key delivery across mechanical, sensing, power, and safety domains. Consolidated MiniRover Core Mechanical Assemblies, delivering standardized components (MOVELATERE-stopmount, ball joints, Connecting Rods, Base Plate, MiniBogieFrame, MiniDifferential System, and related updates), enabling faster iteration and reliable integration. Implemented GPS and IMU modules for in-system sensing, plus DriversBusbarPlate_MiniRover for robust power distribution. Updated URDF/assembly models with UpdatedMiniRoverBaseplate, UpdatedMiniRover, UpdatedMiniRover2.urdf, and URDF variants (V8) to improve simulation-to-deployment alignment. Expanded suspension geometry with new parts (d-profile collar clamps, suspension DXF, coordinate system enhancements) and updates to MOVELATERE-stopmount and PanelMountBearing. Conducted suspension testing, fixed lever in the E-Stop mechanism, and delivered safety enhancements including E-Stop Mount, clamps, split holder and updated differential clamp, plus sliced models for E-Stop components. Merged main branch into batch to synchronize workstreams.
March 2026 – UBC-Snowbots/Chassis: Key delivery across mechanical, sensing, power, and safety domains. Consolidated MiniRover Core Mechanical Assemblies, delivering standardized components (MOVELATERE-stopmount, ball joints, Connecting Rods, Base Plate, MiniBogieFrame, MiniDifferential System, and related updates), enabling faster iteration and reliable integration. Implemented GPS and IMU modules for in-system sensing, plus DriversBusbarPlate_MiniRover for robust power distribution. Updated URDF/assembly models with UpdatedMiniRoverBaseplate, UpdatedMiniRover, UpdatedMiniRover2.urdf, and URDF variants (V8) to improve simulation-to-deployment alignment. Expanded suspension geometry with new parts (d-profile collar clamps, suspension DXF, coordinate system enhancements) and updates to MOVELATERE-stopmount and PanelMountBearing. Conducted suspension testing, fixed lever in the E-Stop mechanism, and delivered safety enhancements including E-Stop Mount, clamps, split holder and updated differential clamp, plus sliced models for E-Stop components. Merged main branch into batch to synchronize workstreams.
February 2026 (UBC-Snowbots/Chassis) — Delivered essential mechanical design updates to enable robust Mini Rover collar clamp integration and improved wheel hub stability, with multiple revisions and manufacturing-ready files prepared for chassis assembly. Focus areas included collar clamp redesign across v3.1–v3.5 (CAD models and 3MF exports) and nut-hole optimization to enhance seating and reliability, enabling faster integration and scalable design iterations.
February 2026 (UBC-Snowbots/Chassis) — Delivered essential mechanical design updates to enable robust Mini Rover collar clamp integration and improved wheel hub stability, with multiple revisions and manufacturing-ready files prepared for chassis assembly. Focus areas included collar clamp redesign across v3.1–v3.5 (CAD models and 3MF exports) and nut-hole optimization to enhance seating and reliability, enabling faster integration and scalable design iterations.
January 2026 monthly summary for UBC-Snowbots/Chassis focused on advancing the rover chassis by delivering a modular Rocker-Bogie suspension design, expanding wheel/hub fabrication capabilities, enabling collar compatibility, and enhancing manufacturing readiness. Work emphasized business value through improved stability, easier manufacturing, and better design validation, while maintaining a strong CAD-centric engineering discipline.
January 2026 monthly summary for UBC-Snowbots/Chassis focused on advancing the rover chassis by delivering a modular Rocker-Bogie suspension design, expanding wheel/hub fabrication capabilities, enabling collar compatibility, and enhancing manufacturing readiness. Work emphasized business value through improved stability, easier manufacturing, and better design validation, while maintaining a strong CAD-centric engineering discipline.
November 2025 focused on delivering hardware design improvements for the UBC-Snowbots/Chassis platform to enhance Mini Rover reliability and terrain handling. Implemented wheel/hub system upgrades, introduced a V1 bogie suspension redesign, and completed chassis mounting/interface adjustments to improve mounting reliability and cross-component compatibility. While no critical bugs were reported, the design iterations reduced future maintenance risk and positioned the rover for field testing and deployment. The work demonstrates strong CAD modeling, version control, and a clear alignment with business value through reliability and maintainability.
November 2025 focused on delivering hardware design improvements for the UBC-Snowbots/Chassis platform to enhance Mini Rover reliability and terrain handling. Implemented wheel/hub system upgrades, introduced a V1 bogie suspension redesign, and completed chassis mounting/interface adjustments to improve mounting reliability and cross-component compatibility. While no critical bugs were reported, the design iterations reduced future maintenance risk and positioned the rover for field testing and deployment. The work demonstrates strong CAD modeling, version control, and a clear alignment with business value through reliability and maintainability.
October 2025 performance summary focused on delivering a modular, manufacturable MiniRover wheel system for the 2025 Chassis. The work encompassed comprehensive CAD development across multiple parts, assemblies, and export assets to support rapid prototyping and production readiness. Key outcomes include end-to-end design and integration of wheel components with alignment to the Snowbots chassis requirements, iterative design improvements to enhance printability and manufacturability, and consistent documentation through commit history. While explicit bug-fix incidents aren’t listed in the scope of the data, the month delivered multiple design corrections and refinements to ensure compatibility between hub, clamp, and wheel components and to optimize STL exports for 3D printing.
October 2025 performance summary focused on delivering a modular, manufacturable MiniRover wheel system for the 2025 Chassis. The work encompassed comprehensive CAD development across multiple parts, assemblies, and export assets to support rapid prototyping and production readiness. Key outcomes include end-to-end design and integration of wheel components with alignment to the Snowbots chassis requirements, iterative design improvements to enhance printability and manufacturability, and consistent documentation through commit history. While explicit bug-fix incidents aren’t listed in the scope of the data, the month delivered multiple design corrections and refinements to ensure compatibility between hub, clamp, and wheel components and to optimize STL exports for 3D printing.

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