| NASA Jet Propulsion Laboratory | An integrated in-situ organic biosignature analysis instrument based on supercritical CO2 and subcritical H2O |
| KinetX, Inc. | Kinetx Space Navigation, Flight Dynamics, and Planetary Science Services |
| NASA Jet Propulsion Laboratory | Low SWaP, High performance, 94GHz RF- photonic radar receiver |
| University of Twente | Designing rubber for long-term Mars exploration |
| NovaWurks | SLEGO Architecture Enabled Missions |
| NASA ARC | Entry Systems Modeling and Ground Test Capabilities |
| University at Buffalo – The State University of New York | Fully-Actuated Tension Adjustable Novel Deployable Entry Mechanism |
| Astrobotic | Astrobotic Griffin and Peregrine Lunar Landers |
| Astrobotic | Astrobotic NITE Lunar Night Survival |
| Astrobotic | Astrobotic Xodiac VTVL Rocket Testbed |
| NASA ARC | In-Situ Mineralogical Analysis of the Venus Surface Using X-Ray Diffraction and X-Ray Fluorescence (Xrd/Xrf) |
| NASA ARC | In-Situ Mineralogical and Geochemical Analysis on Mercury With X-Ray Diffraction and X-Ray Fluorescence |
| NASA ARC | Lunapix & Mapx: Particle Induced X-Ray Emission — X-Ray Fluorescence (Pixe-Xrf) Instruments for Lunar and Planetary Science |
| SWRI | Micro-electro-mechanical system (MEMS) gas chromatography (GC) and comprehensive two- dimensional MEMS gas chromatography (GC×GC) coupled with mass spectrometry (MS) |
| Astrobotic | Astrobotic Lunar Mission Simulation Software Suite |
| NASA MSFC | Ruggedized Infrared Camera |
| Northrop Grumman Space Systems | Exploring the Outer Planets Sooner with SLS |
| NASA MSFC | Lightweight Deployable Integrable Antenna (LiDIA) |
| JHU/APL | Microfluidic sample preparation for collection, desalination/purification, derivatization, and delivery of biomolecules at ocean worlds. |
| NASA JPL | High Specific Energy Primary Batteries for NASA Missions |
| NASA JPL | High Performance Trapped Mercury Ion Atomic Clocks |
| Creare LLC | A Compact Drone-Based Instrument Sonde For Venus Balloon Missions |
| NASA ARC | Small Spacecraft Sample Return Mission Concept to Support Gateway and Lunar Science |
| Freefall Aerospace | Inflatable Antenna System for Planetary Exploration |
| NASA GSFC | Machine learning and data science for the future of planetary science missions exploring our outer solar system |
| MIT LL | Technology for optical communications |
| Astrobotic | Astrobotic CubeRover |
| Astrobotic | Astrobotic Ultra Fast Proximity Charger |
| Advanced Cooling Technologies | Advanced Cooling Technologies |
| Orbit Fab | In-space refueling technologies |
| Impossible Sensing | PERISCOPE: Technology for organic detection in the near subsurface |
| Space Exploration Engineering | Mission planning and flight dynamics analysis and operational tools |
| NASA MSFC | Variable Pressure – Scanning Electron Microscopy (VP-SEM) |
| NASA JPL | Ocean World Lander Autonomy Testbed |
| NASA MSFC | Active and Passive Storage Solutions for Low Temperature Lunar Sample Return |
| NASA ARC | Automated Reconfigurable Mission Adaptive Digital Assembly Systems (ARMADAS)- Cost-effective Instrumentation for Planetary Science |
| Samra Aerospace | SUPERIOR ATTITUDE CONTROL |
| SRI International | Filling Technological Gaps for Planetary Science Missions with Customized SRI Solutions |
| Ascending Node Technologies | Spaceline |
| Astrobotic | Astrobotic Terrain Relative Navigation |
| Astrobotic | Astrobotic UltraNav |
| NASA MSFC | High Performance Nuclear Thermal Propulsion |
| Lockheed Martin | Lockheed Martin Technologies |
| NASA MSFC | Solar Sail Propulsion for Planetary Missions |
| Qualcomm Technologies, Inc | Snapdragon chipset technology |
| Southwest Research Institute | SwRI Electrostatic Probe (EsP), a modified version of the Electron Spectrometer (ELS) recently flown at Venus |
| NASA JPL | Next-Generation Cold Object Radiometer (COBRA) |
| University of Utah | Microfabricated Organic Analyzer for Biosignatures (MOAB) |
| NASA JPL | CITADEL: An Icy Worlds Simulation Testbed |
| NASA GRC | Status of Technologies that can Enable High-Temperature Lander Operations |
| NASA JPL | High Performance in Situ Raman Instruments for Landed Planetary Missions |
| Nanohmics | A compact spectral imager for small platforms |
| Astrolab | FLEX Payload Interface Guide |
| NASA GSFC | Evolved Structures: Using AI and robots to build lightweight spaceflight structures |
| Kayhan Space Corporation | Satellite Conjunction Processing/Orbit Propagation, Estimation, and Visualization |
| University of Iowa | Next Generation Fluxgate Magnetometers |
| NASA MSFC | Ruggedized Infrared Camera |
| NASA GRC | Radioisotope Generators |
| NASA JPL | The Organic Capillary Electrophoresis Analysis System (OCEANS) — A Wet Chemistry Biosignature Analyzer for Potential Future Ocean Worlds Missions |
| NASA JPL | EELS (Exobiology Extant Life Surveyor): A Snake-like Robot for Enabling Enceladus Ocean Access |
| Cornell University | A gently ionizing electrospray ionization mass spectrometer for high mass organic and biomolecule detection |
| NASA MSFC | Composites technologies |
| NASA MSFC | Space Nuclear Propulsion For Deep Space Science Missions |
| Emergent Space Technologies | Modular, open systems architecture (MOSA) FSW for multi-satellite missions |
| NASA ARC | SPLIce: Sample Processor for Life on Icy Worlds, a Microfluidic Front-end for Bio/Organic Analytical Instrumentation |
| NASA JPL | Titan Radar Altimeter and Cloud/precipitation Explorer (TRACE) |
| NASA JPL | A Demand Access System for Deep Space Operations |
| NASA JPL | Starburst: A Revolutionary Under-Constrained Adaptable Deployable Structure Architecture |
| Astrobotic | Astrobotic System on Module (SOM) |
| Ultra Safe Nuclear Corporation | Nuclear Thermal Propulsion for High Delta-V Science Missions |
| NASA MSFC | Active and Passive Storage Solutions for Low Temperature Lunar Sample Return |
| NASA JPL | The Deep Space Solar Array: A Power-Source Technology for Missions to Saturn and Beyond |
| MDA Robotics & Space Operations | MDA Robotics & Space Operations Division technologies |
| NASA JPL | Improving Mass and Efficiency in Space Power Systems for Enhanced Science Return |
| NASA ARC | Conformal PICA TPS – Enabling Future NASA Planetary Science Missions |
| NASA LaRC | Aerocapture as an Enabling Technology for Planetary Missions |
| Impossible Sensing | Back illuminated Surface Enhanced Raman Spectroscopy |
| NASA ARC | 3-D Woven Thermal Protection System |
| NASA GSFC | Landing Manuevers to Minimize Surface Alterations |
| NASA MSFC | The Kinematic Navigation and Cartography Knapsack |
| Iowa State University | Rover-Mounted, Real-Time and High-Resolution Microwave SAR Imaging System for Evaluation of Shallow Martian and Lunar Regolith |
