Micro rovers
Low-mass mobility for scout traverses, payload placement, inspection, and terrain sampling.
Surface systems at micro scale
Microlunar explores compact robotics, sensor networks, and modular payload architectures for resilient operations on the Moon.
Concept
The next layer of lunar infrastructure will not be one monolithic platform. It will be dense fields of small instruments, mobile helpers, relay points, and payload carriers that can be deployed, replaced, and upgraded in place.
Focus Areas
Microlunar works at the boundary between science instruments and practical infrastructure: sensing what matters, moving only what is needed, and surviving the environment with less mass.
Low-mass mobility for scout traverses, payload placement, inspection, and terrain sampling.
Thermal, seismic, radiation, dust, and localization packages for persistent surface context.
Reusable electrical, mechanical, and software interfaces for fast instrument integration.
Short-hop communication, timing, and autonomy layers for future power and logistics grids.
Research Notes
Microlunar treats lunar robotics as an infrastructure problem: every gram, joule, packet, and failure mode is part of a larger surface architecture.
We study how many simple, replaceable machines can outperform one complex vehicle when the objective is persistent coverage and graceful degradation.
Balancing hibernation electronics, thermal storage, duty cycles, and site selection for multi-day operations.
Turning rover deployment into repeatable placement, calibration, and verification routines.
Designing systems that can execute bounded tasks under delay, low bandwidth, and uncertain terrain.
Reducing exposure points and designing connectors, wheels, hinges, and optics around abrasive regolith.
Contact
For research collaborations, payload concepts, mission architecture studies, or early technical conversations, reach the Microlunar team.