
Technology
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Space Robotics
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YC W26
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Valuation:
Undisclosed

Last Updated:
March 24, 2026

Builds autonomous robotic systems that perform laboratory and manufacturing tasks in microgravity, removing the human crew bottleneck for scalable in-orbit research and production.
General Astronautics builds robotic systems that handle laboratory work: pipetting, sample prep, plate handling, reagent mixing, with the precision and autonomy to operate without crew. The goal is to make microgravity research and manufacturing scalable, not bottlenecked by how many people you can put in orbit. Near-term ground and on-orbit demonstrations. Targeting commercial research and manufacturing customers.
RL-based adaptive controllers and computer vision for microgravity manipulation. Partnerships with commercial space stations (Axiom, Vast) likely. SBIR/STTR proposals for DoD on-orbit logistics possible. Team from SpaceX, Caltech, and Carnegie Mellon.
AI-driven robotic arms autonomously execute complex laboratory protocols—pipetting, sample prep, and reagent mixing—in microgravity without human intervention.
A robot in space runs science experiments around the clock so astronauts don't have to.
It's like replacing a Michelin-star chef who can only cook one meal at a time with a tireless robot line cook that follows every recipe perfectly, 24/7, while floating.
Deep-learning pose estimation enables robotic arms to identify, track, and safely capture tumbling or uncooperative objects in orbit for servicing or debris removal.
The robot figures out exactly how a spinning piece of space junk is tumbling so it can grab it without crashing.
It's like teaching a goalkeeper to catch a spinning, oddly shaped ball they've never seen before, in the dark, with a strobe light—except the ball is a $500 million satellite.
Reinforcement learning agents trained in high-fidelity microgravity simulators transfer directly to physical robotic arms, enabling adaptive manipulation without costly on-orbit trial-and-error.
Robots practice thousands of times in a virtual zero-gravity lab so they get it right the first time in actual space.
It's like a pilot logging thousands of hours in a flight simulator so realistic that when they finally sit in the real cockpit, they fly perfectly on day one—except the cockpit is floating in space.
Bram Schork is a Caltech mechanical engineer who built hardware reliability systems for SpaceX's Starlink Lasers, shipped industrial autonomous robots, and developed optical tracking systems at SBIR-funded startups. Shibo Zhou studied CS & Robotics at Carnegie Mellon. Together they combine SpaceX flight hardware experience with deep robotics and autonomous systems expertise, bridging the gap between traditional space manipulators and modern AI-driven automation.