# NASA Launches 2027 Student Challenge for Lunar Communications Tech Collegiate teams compete to design resilient Moon communication systems for Artemis missions. - **Source:** [NASA](https://www.nasa.gov) - **Published:** 2026-09-29 - **Topic:** [Business](https://brifing.si/c/business) - **Original article:** - **On Brifing:** https://brifing.si/s/8a2ffc1b-1179-423d-9953-e4217798d1d5 ## Critical need for lunar comms NASA's 2027 Human Lander Challenge targets a key gap in Artemis program infrastructure: reliable communications for long-term Moon operations. Unlike Earth, the lunar environment lacks atmospheric and ionospheric layers that facilitate radio transmissions, creating unique challenges. The agency seeks student innovations to connect astronauts, rovers, habitats, and Earth teams through resilient systems capable of handling the Moon's extreme temperature swings, dust interference, and lack of infrastructure. ## Three solution categories NASA has identified priority areas for proposals: hardware (space-rated wireless networks, antenna signal modeling), software (data efficiency optimization, network management), and architecture (surface and orbital system designs). While teams can suggest alternative approaches, these categories address core technical hurdles like maintaining signal integrity across the Moon's mountainous terrain and during prolonged lunar nights lasting 14 Earth days. ## Competition structure The challenge follows a two-phase selection process. Teams must submit notices of intent by October 15, followed by comprehensive proposal packages by March 4, 2027. Phase 1 will select up to 12 finalists, each receiving $9,000 to refine their designs. Finalists will present at NASA's Marshall Space Flight Center in June 2027, with top three teams splitting an $18,000 prize pool. ## Artemis program context This challenge directly supports NASA's Moon-to-Mars objectives under Artemis, where communications will enable sustained surface operations. Current lunar missions rely on direct-to-Earth links, but future bases require localized networks. The winning solutions must be implementable within 3-5 years, aligning with planned 2028 crewed landings and subsequent infrastructure buildup. ## Academic partnership model Administered by the National Institute of Aerospace, the challenge continues NASA's tradition of crowdsourcing innovation from universities. Similar past competitions have yielded technologies later adapted for operational use. The Human Landing System Program Office sponsorship ensures solutions meet actual mission requirements rather than remaining theoretical exercises. ## Technical constraints Proposed systems must address the Moon's 2.5-second communication delay to Earth, limited bandwidth availability, and need for autonomous operation during lunar night periods. Solutions should consider interoperability with existing NASA assets like the Lunar Gateway and compatibility with future commercial lunar infrastructure being developed by SpaceX and other partners. ## Judging criteria Evaluations will prioritize technical feasibility, innovation level, and implementation timeline. NASA particularly seeks solutions that demonstrate scalability from initial Artemis missions to permanent bases. The agency has emphasized designs that minimize mass and power consumption—critical factors for lunar payloads where every kilogram costs approximately $1.2 million to deliver. ## Strategic importance Beyond immediate mission needs, this challenge cultivates workforce skills for the emerging lunar economy. Winning teams gain direct exposure to NASA's engineering processes while contributing to infrastructure that will support scientific research, in-situ resource utilization, and eventual Mars mission rehearsals—establishing precedents for off-world communications standards. ## Sources covering this story - https://www.nasa.gov/directorates/esdmd/artemis-campaign-development-division/human-landing-system-program/nasa-opens-2027-human-lander-challenge-for-lunar-communications/ — --- _Summary written by Brifing from the original reporting. Copyright in the original article belongs to its publisher; read the full piece at the link above._