Robot hardware
Robot hardware, sensing packages, CAD layouts, and prototype records that explain the main design decisions.
Mechanical Engineering Portfolio
Mechanical Engineering Portfolio
Mechanical Engineering Honours, UTS
I use this site to show CAD models, robot hardware, prototypes, testing, documentation, and sensor-integrated mechanical systems through concise project pages.
Portfolio focus
The work is organised around practical mechanical engineering: robot hardware, mechanical subsystem design, sensor integration, and clear documentation.
Robot hardware, sensing packages, CAD layouts, and prototype records that explain the main design decisions.
CAD packaging, prototypes, manufacturability, service access, testing plans, and user-aware constraints treated as part of the design work.
Current interest in linking measured behaviour, vibration, and operating state with validated data before making stronger claims.
Featured projects
Selected projects
| Code | Project | Domain | Material | Open |
|---|---|---|---|---|
| FN-01 | Cobot Prototyping Platform | Cobotics, HRI, robot hardware | Repository + project images | Open project |
| FN-02 | Confined-Space Inspection Robot | Robotics, mobile robot, robot hardware | Brief + prototype photos | Open project |
| FN-03 | UTS Motorsports Autonomous Hardware | Autonomous systems, motorsports, CAD | Repository + fabrication notes | Open project |
| FN-04 | Additive Manufacturing Plier Project | Additive manufacturing, topology optimisation, CAD | Repository + DfAM notes | Open project |
Current interests
Mechanical platforms where geometry, sensing, and system behaviour can be connected through practical prototypes and honest test notes.
Compact robot hardware designed around cameras, sensors, controllers, power layout, wiring paths, and access for fixes.
A current interest in using measured vibration and mechanical behaviour to understand health, performance, and operating state when validated data is available.
Human-centred robot hardware and mechanical subsystem work shaped by modularity, manufacturability, safe interaction, testing, and clear documentation.
How I work
Mechanical layout, interface geometry, mounting, access, fit, and tolerancing notes.
Printed, fabricated, assembled, and revised hardware records with makeability kept visible.
Sensor, controller, wiring, power, and robot-hardware integration.
Design notes, selected visuals, test planning, and records that explain decisions.