










Drive to sites the judges pick, collect soil and rock samples, run life-detection chemistry on them onboard in the field, then defend the findings to a panel of scientists.
About a kilometer of rough desert: find objects and “astronauts” from GNSS coordinates and visual cues, picking up and delivering items along the way. Teleoperated over our own radio link, no Wi-Fi.
Fine-motor work in the middle of the desert: plug in a USB cable, type on a keyboard, turn screws, and more, all with the arm.
The rover is sent to a series of GNSS coordinates and visual markers and has to find its own way, avoid obstacles, and signal each arrival on its own.

Pods pick their subassemblies. Radio and arm prototyping begin immediately.
Chassis and arm on the ground together. Link tested at range. First integrated drives.
Machined parts, autonomy, science module. Demo day for the Yale community in December. The rover that goes to Utah takes shape.

Fully built by early February. Then nothing but testing, drills, and recording. System Acceptance Review submitted late February.

Mars Desert Research Station. The trip is all paid for.




Free Cursor for the whole team, plus SpaceXAI credits to build with.
Onshape, Altium, Siemens, and our GitHub org.
SEAS, SpaceX, alumni, CT Space, and last year’s carry-over. Waterjet and machining in-house.
Four days at the Mars Desert Research Station in late May.






Tyler · lead

Filippo
Emir · lead
David · lead
Filippo


Tyler · lead




Filippo


Emir · lead


David · lead


Filippo

Mechanical
Life detection
Electronics
Comms & control
Autonomy
Drone





Record it, send it, keep moving.
WhatsApp, quick and constant. The lean startup approach.

When someone doesn’t show up for the others, we all suffer, and the whole mission suffers.

Tyler
Filippo
Filippo
Emir
David
Filippo





