Planned lunar missions promise to bring a host of new robotic and human explorers to the moon. Today, the wireless connectivity needs of these assets would be largely unmet. And given the cost of deploying infrastructure on the moon, a centralized approach (such as a cellular-style network) may not be feasible for some time.
Instead, we imagine a distributed graph of network agents, running on a variety of lunar assets. Since this network won’t be supported by permanent infrastructure, the range of each agent will be relatively small and their time in contact with one another will be largely unpredictable.
Importantly, these agents will intelligently work to optimize the network. We’re exploring how agents can make physical movement and data routing decisions to better facilitate the transfer of data within the network.
We published a workshop paper about a novel routing algorithm that considers the physical movement of network agents and their radios. To this end, we build an agent-based model that simulates many agents on the lunar surface.
Now we’re working on a simulator that correctly models RF propagation, consider factors like reflection and diffraction. We hope to be able to train learning-based algorithms that make movement and routing decisions based on the RF environment.