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Dec 6, 2025
Rovers Die on the Moon
A $100M rover dies in 14 days because energy isn't there. Solar panels only work in sunlight, batteries drain in the lunar night (-173C). We asked: what if we could deploy energy nodes for opportunity charging?
Chinese lunar rover
Dec 2025
Induction Is The Way
Researched how to charge on the Moon. Found that induction is the best method: no connectors to jam with regolith dust, no moving parts. Discovered Astrobotic's wireless charging research in thermal vacuum testing, confirming the approach.
Astrobotic wireless charging TVAC test
Dec 2025
LEN: Lunar Energy Node Network
Designed the Lunar Energy Node concept: small, deployable charging modules buried in regolith for thermal protection. Nodes form a mesh network with AI-assisted routing, creating the first multi-node lunar energy grid.
Lunar Energy Node mesh network
Jan 2026
LEN-P: The Projectile Battery
Designed the LEN-P: a rugged cylindrical battery with wireless charging dock, 1-2 kWh storage, shock absorbers, thermal management, and ground-penetration anchoring. Engineered to survive impact.
LEN-P cutaway design
Jan 2026
LEN-P Prototype Roadmap
Mapped out the prototype development phases: from core electronics (Phase 1) to V0 cylinder, shock buffer, embed/penetrator, charging box, and finally the full-scale 1 kWh form factor. Physical prototypes at each stage.
LEN-P prototype development phases
Jan 5, 2026
Energy Delivery: Projectile Prototype
3D-printed the LEN-P projectile at 1/3 scale (155mm form factor reference). Researched artillery shell aerodynamics and impact resistance. The idea: catapult energy to the Moon. Drop it from orbit, it lands and becomes a charging node.
3D printed LEN-P projectile prototype
Jan 6, 2026
Building the V0: Robot + Conductive Charger
Pivoted from Moon to Earth to validate the core technology. Built Spark-E from scratch and our first conductive charging station. The team at the Artifact lab in SF, hands-on hardware.
Team with V0 robot Building the V0 hardware
Jan 2026
Spark-E + Autonomous Conductive Charging
First autonomous charging demo. Spark-E with NVIDIA Jetson, LiDAR, depth camera detects the ArUco marker, navigates to the conductive pad, and charges itself. Zero human intervention.
Spark-E with conductive charging pad
NVIDIA Jetson ROS 2 LiDAR SLAM + Nav2 ArUco Detection
Feb 2026
Navigation Becomes Orchestrator
Evolved the navigation system into a charging orchestration layer. The robot detects low battery, plans route to nearest charger, docks with precision, charges, and resumes its mission. Full autonomous loop.
Feb 2026
Induction Charger: 5W to 100W
Built our own induction charging pads. Started at 5W, scaled to 100W. Custom 3D-printed enclosures with copper coils. Wireless, no connectors, no dust issues. The same technology for the Moon works on Earth.
100W induction charging pads Spark-E with inductive charging V1
Feb 2026
Chargebotic V1: Full Stack
Chargebotic V1 complete. Mecanum-wheel robot + LiDAR + depth camera + induction charging station + autonomous navigation + charging orchestration. End-to-end autonomous charging loop, fully operational.
Chargebotic V1 complete system
Now
Full Stack Complete. Finding PMF.
Robotics platform + battery + charging infrastructure + orchestration software. Now talking to fleet operators across all verticals to find where to deploy first. Stay tuned.