NASA's NSTGRO initiative has selected thirteen research teams from leading universities to develop transformative technologies for deep space exploration and cislunar operations. The National Space Technology Grand Research Opportunities (NSTGRO) program funds high-risk, high-reward concepts that push beyond conventional spacecraft design.
The selected projects span propulsion systems, materials science, communications, and autonomous operations. Omar Alyousef at the University of Memphis leads research into Polycatenated Architected Materials (PAM) for origami-inspired docking ports. This work applies geometric principles from paper folding to spacecraft hardware, enabling compact docking mechanisms that expand during deployment. The approach reduces launch mass while maintaining structural integrity during docking operations, addressing a persistent constraint in cislunar logistics.
Cade Armstrong's team at the University of Texas at Austin is developing Intelligent Multi-Agent Constellations for Cooperative Cislunar Operations. This project designs autonomous spacecraft swarms capable of coordinated operations between Earth and Moon without constant ground control. Multi-agent systems reduce latency-related delays in decision-making and enable distributed tasks like construction, resource mapping, and lunar base support across multiple platforms operating in concert.
Harvard University's Laurel Barnett is advancing photonic superconducting nanowire single-photon detectors (SNSPDs) paired with feed-forward systems for optical communication. Current space communications rely on radio frequency systems limited by power consumption and bandwidth. Photonic SNSPDs can detect individual photons in laser-based systems, enabling data transmission rates orders of magnitude higher while consuming less power. This technology becomes essential as deep space missions demand real-time data streams from multiple instruments simultaneously.
Katie Barcak at Rice University focuses on compact magnetic heat switches for long-duration thermal management. Space missions to the Moon and beyond encounter extreme temperature variations. Passive thermal systems waste heat or freeze critical components. Magnetic heat switches controlled electronically can dynamically route heat where needed, extending mission duration and enabling more ambitious exploration profiles.
Additional projects address gaps in propulsion, in-situ resource utilization, and radiation shielding. The breadth of NSTGRO selections reflects NASA's strategy for the Artemis program and post-Artemis cislunar economy. Rather than developing single flagship missions, the agency accelerates university-led innovation in foundational technologies that multiple spacecraft and missions can leverage.
Each project receives substantial funding over multi-year periods, allowing teams to advance concepts from simulation through prototype testing. NSTGRO differs from traditional grants by explicitly rewarding unconventional approaches. The program expects some projects to fail, viewing failed exploration is the cost of discovering breakthrough technologies.
These research efforts directly support NASA's lunar gateway station, upcoming crewed lunar missions, and eventual sustained human presence on the Moon. Technologies from NSTGRO projects will also benefit commercial cislunar ventures, from lunar mining operations to point-to-point Earth transportation using lunar gravity assists.
The 2026 cohort builds on previous NSTGRO selections dating to 2022. Cumulative investment across all cohorts now exceeds hundreds of millions of dollars. This sustained commitment signals NASA's determination to develop the technological foundation for a sustainable cislunar economy rather than pursuing isolated Apollo-style missions.