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GCD Projects

GCD’s efforts are focused on the mid Technology Readiness Level (TRL) range of 3 to 5 or 6, generally taking technologies from initial lab concepts to a complete engineering development prototype. Learn more about Game Changing Development featured projects.

GCD News about GCD Projects

GO.

These space technology projects aim to enable rapid, safe and efficient travel for future missions. “GO” technologies will help facilitate low-cost delivery of robotic payloads to the Moon, Mars and beyond. Several projects focus on reducing mission costs and complexity by advancing reusable launch and in-space propulsion systems. Other projects in this area are advancing in-situ resource utilization (ISRU) technologies for creating propellants in space. Among others, some “GO” technology projects in the Game Changing Development portfolio include: An advanced thruster engine design that uses propellants capable of operating at extremely low temperatures for an extended period of time without freezing.  Lighter rocket hardware pieces that could substantially reduce the fabrication time and cost of rocket thrust chamber assemblies. High-power hall thrusters for Mars nuclear electric propulsion.

NASA and Frontier Aerospace are developing next-generation thrusters for use on Astrobotic's Peregrine lunar lander.

Thruster Advancement for Low-temperature Operation in Space

Learn how Thruster Advancement for Low-temperature Operation in Space (TALOS) provides rapid, safe, and efficient space transportation.

Engineers at NASA tested a 2,400 lbf thrust 3D-printed copper rocket thrust chamber with composite overwrap to see if the uniquely made hardware could withstand the heat and structural loads from testing.

Rapid Analysis and Manufacturing Propulsion Technology

Learn how Rapid Analysis and Manufacturing Propulsion Technology (RAMPT) provides rapid, safe, and efficient space transportation.

A control panel sits in front of a large payload machine.

Composite Technologies for Exploration

Learn how Composite Technologies for Exploration (CTE) provides rapid, safe, and efficient space transportation.

LAND.

“LAND” projects aim to expand access to diverse planetary surface destinations. These technologies will enable lunar and Mars  access in order to land large payloads to support human missions. The “LAND”-focused developments in the GCD portfolio include: A suite of landing technologies that will enable future Moon missions to target landing sites that weren’t possible during the Apollo missions, such as regions with hazardous boulders and  shadowed craters. Instruments on the Perseverance rover that will measure the pressure and heat on the  Mars 2020 entry vehicle’s backshell, an area with minimal pressure flight data and no heating flight data. Modeling and testing capabilities to better understand how rocket exhaust plumes affect a landing site.

Plume gas density on a logarithmic scale indicating the large plume expansion envelope in a vacuum background.

Plume Surface Interaction

Learn how Plume Surface Interaction (PSI) expands access to diverse surface destinations.

Pleiades supercomputer simulation for entry, descent and landing

Entry System Modeling

Learn how Entry System Modeling (ESM) expands access to diverse surface destinations.

Bruce Barnes routes fiber optic cables from the navigation doppler lidar laser source to the instrument’s telescopes. Two telescopes, three sighting scopes, and a sighting camera are visible in this picture.

Safe Precise Landing Integrated Capabilities Evolution

Learn how Safe and Precise Landing — Integrated Capabilities Evolution (SPLICE) expands access to diverse surface destinations.

LIVE.

“LIVE” projects enable humans to live and work farther away from Earth. These projects will conduct human and robotic lunar surface missions beyond 28 days without resupply, and conduct human Mars missions beyond 800 days including transit without resupply. The projects help to enable surface habitats that use local resources to create a variety of valuable items, such as propellant and water. Among others, some “LIVE” technologies within the GCD portfolio include:  The capability to manufacture and repair parts on-demand in space.  A platform for producing nutrients on-demand during deep space missions A software system that could eventually enable astronauts on long-duration missions to diagnose and treat emergency  conditions quickly, rather than waiting on delayed expert medical advice from ground support .

Updated BMG Gears test setup at NASA KSC.

Bulk Metallic Glass Gears

Learn how Bulk Metallic Glass Gears (BMGG) sustain living and working farther from Earth.

Rover on lunar surface with earth in distant sky

Cold Operable Lunar Deployable Arm

Learn how the Cold Operable Lunar Deployable Arm (COLDArm) sustains living and working farther from Earth.

Artists concept of a free-flying robot mapping signal sources by measuring signal strength as it moves.

Integrated System for Autonomous and Adaptive Caretaking

Learn how the Integrated System for Autonomous and Adaptive Caretaking (ISAAC)  sustains living and working farther from Earth.

With the lights out, the ISRU Pilot Excavator (IPEx) breadboard unit, also known as RASSOR, digs in the regolith bin during testing inside Swamp Works at Kennedy Space Center.

ISRU Pilot Excavator

Learn how the ISRU Pilot Excavarot (IPEx) sustains living and working farther from Earth.

Artist concept of the Polar Resources Ice Mining Experiment-1 (PRIME-1) drill on the surface of the Moon in search of lunar water ice.

Polar Resources Ice Mining Experiment – 1

Learn how the Polar Resources Ice Mining Experiment-1 (PRIME-1) sustains living and working farther from Earth.

Umpqua Research’s subscale reactor

SpaceCraft Oxygen Recovery

Learn how SpaceCraft Oxygen Recovery (SCOR) sustains living and working farther from Earth.

Space Synthetic Biology

Learn how Space Synthetic Biology (SynBio) sustains living and working farther from Earth.

Carbon Nanotubes create high-strength, lightweight carbon yarn.

Superlightweight Aerospace Composites

Learn how Superlightweight Aerospace Composites (SAC) sustain living and working farther from Earth.

EXPLORE.

“EXPLORE” projects support transformative missions and discoveries at the Moon, Mars and other extreme space environments. The space technologies developed in this area will enable architectures that are more rapid, affordable and capable than ever before. NASA’s EXPLORE projects are developing new approaches for in-space servicing, assembly and manufacturing. These projects take space data processing to the next generation with higher-performance computing, communications and navigation. Among others, the “EXPLORE”-focused technologies in the GCD portfolio include: Shoebox-sized robots to autonomously scout regions on the Moon and gain intel about locations that may be difficult for astronauts to investigate on foot, like hard-to-reach craters and narrow caves. A payload that will significantly improve the utility for lunar landers by providing manipulation capabilities through the lunar night by using novel Bulk Metallic glass gears. A system that could unpack and assemble into an antenna or small habitat on its own.

Game Changing Development Projects CADRE: NASA’s Cooperative Autonomous Distributed Robotic Exploration project is developing a network of shoebox-size mobile robots that could enable future autonomous robotic exploration of the Moon, Mars, and beyond.

Cooperative Autonomous Distributed Robotic Exploration

Learn how Cooperative Autonomous Distributed Robotic Exploration (CADRE) transforms missions and discoveries.

HPSC

High Performance Spaceflight Computing

Learn how High Performance Spaceflight Computing (HPSC) transforms missions and discoveries.

Artist rendition of a multi-spacecraft mission as a software payload on the Starling mission

Distributed Spacecraft Autonomy

Learn how Distributed Spacecraft Autonomy (DSA) transforms missions and discoveries.

Lunar Habitat

Automated Reconfigurable Mission Adaptive Digital Assembly Systems

Learn how Automated Reconfigurable Mission Adaptive Digital Assembly Systems (ARMADAS) transform missions and discoveries.