CEO and Founder
Rampey is a mobile robot designed to improve the independent accessibility and safety of public transport. Railways will operate faster and more efficiently, whilst saving on costly infrastructure upgrades
Rampey is a robotic ramp that automatically aligns to train doors before they open for passengers. It utilizes a mobile base, cameras, lidars, bump sensors, a motorized ramp, and computers to quickly and safely provide ramps to everyone who uses PT. Rampey allows governments and railways to automate the covering of gaps and steps, with no disruptions to services, and no high upfront costs.
Technology specialist
I've been helping Autonomous Ag design a new stainless steel safety bumper system to respond to low speed autonomous tractor collisions. I modelled the linkage system in Onshape (3D CAD) to help show the mechanism's motion. The system integrated radar sensors, proximity sensors, a low voltage junction box, cable and harness routing. The system required a lot of local part sourcing and fabrication and assembly. It's been fun participating in the field installations and testing of autonomous driving retrofit kits as well as Field Days for Fendt tractor distributors (Wimmera Field Days, Horsham, VIC).
Principal Mechatronic Engineer
Lead Mechatronic Design Engineer for Carter, the world’s first truly collaborative autonomous mobile robot. Key contributions:
Designed force-sensitive handlebars enabling users to physically steer and override motion, allowing Carter to function as both an assistive cart and an autonomous robot.
Prototyped and built two novel holonomic drivetrains for the next-gen model.
Managed contractors and direct reports across mechanical, electrical, simulation, and control subsystems.
Hackathon winner.
US Patent No. 12,204,350 B1 for "Autonomous Robot Double Drive Assembly" (Inventor: Jay S Davey, et al).
Staff Mechatronic Engineer
Reconfigurable Automation CartsAt Zymergen, I designed and built Reconfigurable Automation Carts (RACs), pioneering a flexible, modular, and scalable factory system still in use today. As the lead engineer, I pioneered the electro-mechanical design, prototyped the first units, and pitched the system to stakeholders and investors.
RACs are smart enclosures linked by a magnetic conveyor for microplate transport, integrating robotics and lab instrumentation (liquid handlers, plate readers, centrifuges, etc.). I programmed PLCs for robust automation, taught 6-axis robots, and designed custom end effectors and mechanical features like interlocked doors and instrument drawers.
As a mentor and tech lead, I grew a team of five Mechatronic engineers, expanding RAC capabilities. I managed timelines, product specs, and factory layouts, relocating the system seven times across five buildings in Emeryville, CA.
RACs have gone on to win design awards based on the architecture I originally created. These include:
International Design Award (IDA) 2024 https://www.idesignawards.com/winners/zoom.php?eid=9-54506-24
Good Design: Medical 2024
https://gooddesignawards.org/project/ginkgo-bioworks-racs-system-2022/
Member of Technical Staff (Automation engineer)
Throughput and Performance Enhancements for Cartesian Robot Manipulators:
Upgraded robot design to rotate SBS microtiter plates in transit, improving system throughput by up to 33%. Enabled multi-plate carrying for future software-driven gains.
Designed a gravity compensation mechanism using a constant force spring, allowing higher speeds, lower current draw, and improved trajectory tracking.
Improved automatic plate supply speed, ensuring sterile SBS microtiter plates are presented on demand for automation workflows.
Design and Characterization of the EP-Face Connector, Tarik Tosun, Jay Davey, Chao Liu, Mark Yim,, 2016 IEEE/RSJ International Conference on Intelligent Robots and Systems
Emulating self-reconfigurable robots-design of the SMORES system, J Davey, N Kwok, M Yim, 2012 IEEE/RSJ International Conference on Intelligent Robots and Systems
Self-assembly of a swarm of autonomous boats into floating structures, I O'Hara, J Paulos, J Davey, N Eckenstein, N Doshi, T Tosun, J Greco, 2014 IEEE International Conference on Robotics and Automation (ICRA), 1234-1240
Automated self-assembly of large maritime structures by a team of robotic boats, J Paulos, N Eckenstein, T Tosun, J Seo, J Davey, J Greco, V Kumar, IEEE Transactions on Automation Science and Engineering 12 (3), 958-968
ModLock: A manual connector for reconfigurable modular robots., J Davey, J Sastra, M Piccoli, M Yim, IROS 2012, 3217-3222
A personal robotic assistant
Self assembling robots playing 'ice hockey' (MEAM510 - Mechatronics @ UPenn)
Navigation, localization and mapping with a mobile robot
Weir Warman Competition 2007 National Final Winning run
An 18 DoF hexapod robot I built and programmed for kicks
A self-balancing balloon following robot
A guitar Playing Robot Lego Mindstorms NXT using only the pieces available with the standard LM2 kit
In Industrial Product Design (IPD501) We were required to regularly create a product in SolidWorks and use the CNC machines to build it ourselves.
Below are some of my results.
SolidCAM CNC machining software