Project Grant NNX15AQ78H
- This $197,354 Project Grant award from the National Science Foundation (NSF) Computer and Information Science and Engineering (CISE) program supports research and development on "Information-Theoretic Multiagent Paths for Anticipatory Control of Tasks (IMPACT)." The project aims to advance the scientific and engineering value of intelligent navigation systems by developing novel computational techniques for autonomous robots to plan optimal paths based on exploration, risk, and...
- This Project Grant award from the National Science Foundation (NSF) under the Integrative Activities program (CFDA 47.083) aims to advance space exploration by improving the performance and resilience of multi-agent robotic systems for harsh environments like the Moon or Mars. The $269,069 award to the University of Vermont will develop data-driven control mechanisms to enhance fault tolerance and adaptive capabilities of distributed robot formations. The project will partner with NASA's Jet...
- This Project Grant from the National Science Foundation Office of Integrative Activities, under the Integrative Activities federal grant program (CFDA 47.083), provides $271,129 to support research at the New Mexico Institute of Mining and Technology to develop a new method for multi-agent control of robotic systems. The research focuses on incorporating density information to optimize transport-based multi-agent exploration and maximize efficiency for applications such as wildlife monitoring,...
- The National Aeronautics and Space Administration Shared Services Center awarded a $250,000 Project Grant to Stanford University on March 23, 2021 to fund the REACHBOT: SMALL ROBOT FOR LARGE MOBILE MANIPULATION TASKS IN MARTIAN CAVE ENVIRONMENTS project. The project aims to develop a small robot capable of performing large mobile manipulation tasks to support future exploration of Martian cave environments under NASA's Space Technology program (CFDA 43.012). NASA's Space Technology Mission...
- This five-year, $1.2 million project grant from the National Science Foundation's Integrative Activities program will fund research into community-embedded robotics through long-term autonomous deployments. The University of Texas at Austin, in partnership with the University of Texas System, will combine expertise in human-robot interaction, human factors, organizational communication, science and technology studies, team science, and research informatics. The project aims to study interactions...
- This Project Grant award from the National Science Foundation's (NSF) Engineering program (CFDA 47.041) supports research at Carnegie Mellon University (CMU) to develop simulation tools and control methods that enable robots to reliably navigate and manipulate complex environments. The $600,000 award, running from October 1, 2025 to September 30, 2030, focuses on two key technical goals: 1) creating multi-physics simulation capabilities for emerging applications like space and underwater...
- This Project Grant from the National Science Foundation's Computer and Information Science and Engineering program ($199,481) supports research at George Mason University from June 2023 through May 2026 to develop an approach for improving service robot decision-making and behavior during deployment in unfamiliar environments. The award aims to facilitate fast and reliable online retraining and adaptation of robot planning despite missing world knowledge. The researchers will develop a...
- This National Science Foundation award provides $676,010 to the University of Southern California through August 2025 to support research and education activities focused on decision-making foundations for human-supervised legged robot teams. Funded under the Computer and Information Science and Engineering program (CFDA 47.070), the award will support the development of methodologies for modeling human-supervised robot team missions and task assignment considering risk and efficiency. It will...
- The federal Project Grant award of $121,064.00 from the National Science Foundation's (NSF) Computer and Information Science and Engineering (CISE) program, with a performance period from July 1, 2025 to March 31, 2027, supports research at the University of California, Berkeley to develop a new paradigm for agile autonomous robot navigation in complex environments. The key objectives of this award are to create a novel, low-latency, robust, adaptive, safe, and resilient perception-action...
- This National Science Foundation (NSF) Computer and Information Science and Engineering (CISE) Federal Grant Award (CFDA 47.070) provides $202,082 to support a research project at Boston University that introduces a novel approach for robots to navigate unknown environments. The key technical aspects include: Developing compact, interpretable representations of the environment using structured elements extracted from sensor measurements and optimized over time. Synthesizing local and global...
PLANETARY EXPLORATIONS MISSIONS AVOID THE DESTINATIONS THAT OFFER THE GREATEST SCIENTIFIC PAYOUT BECAUSE THESE DESTINATIONS COME WITH A RISK TOO GREAT FOR A PRIMARY ROVER. THE MANY CAVES CANYONS AND PITS THAT COVER THE SURFACE OF MARS AND THE MOON HAVE IMMENSE SCIENTIFIC VALUE YET THE RUGGED TERRAIN AND PRECIPITOUS SLOPES OF THESE FEATURES ARE TOO DANGEROUS TO RISK THE PRIMARY MISSION ASSET. THE SOLUTION TO THIS RISK PROBLEM IS A SYMBIOTIC ARCHITECTURE CONSISTING OF A PRIMARY ROVER AND ONE OR MORE SECONDARY COMPANION ROVERS. THESE SECONDARY ROVERS WOULD BE LESS EXPENSIVE POTENTIALLY EXPENDABLE AND CAPABLE OF EXPLORING HAZARDOUS TERRAIN AND FEATURES WITHOUT RISKING THE MISSION IF LOST. THE BENEFITS OF A SYMBIOTIC ARCHITECTURE EXTEND FAR BEYOND SIMPLE RISK MITIGATION THE SECONDARY ROVERS COULD EXPLORE MORE AREA EFFICIENTLY PROVIDE OPERATORS WITH ADDITIONAL VIEWPOINTS OF OBJECTS OF INTEREST AND ASSIST OPERATORS IN DEBUGGING PROBLEMS WITH THE PRIMARY ROVER BY PROVIDING VIEWS THAT WOULD BE OTHERWISE IMPOSSIBLE TO TAKE. THOUGH SYMBIOTIC MULTI ROBOT SYSTEMS HAVE BEEN DEVELOPED FEW HAVE BEEN IN THE CONTEXT OF HAZARDOUS PLANETARY EXPLORATION. THOSE THAT HAVE FOCUS PRIMARILY ON THE MECHANICAL CHALLENGES OF SUCH A SYSTEM. THERE ARE MULTIPLE ALGORITHMIC CHALLENGES RELATING TO COORDINATION BETWEEN THE ROVERS THAT ARE BARRIERS TO A SYMBIOTIC ROVER ARCHITECTURE BEING REALIZED. THE PROPOSED RESEARCH WILL ALLOW SYMBIOTIC ROVER TEAMS TO BETTER NAVIGATE AND EXPLORE HAZARDOUS TERRAIN BY DEVELOPING AND APPLYING INNOVATIVE METHODS IN COMBINED PATH PLANNING TASK ALLOCATION AND LOCALIZATION. THE ALGORITHMS DEVELOPED BY THIS RESEARCH WILL ENABLE SYMBIOTIC ROVERS TO BOLDLY EXPLORE SCIENTIFIC FRONTIERS CURRENTLY CONSIDERED BEYOND LIMITS BY NASA. THE PROPOSED RESEARCH WILL IMPROVE CURRENT DISTANCE AND TIME CONSTRAINED MULTI ROBOT PATH PLANNING ALGORITHMS BY SHIFTING THE CONSTRAINTS FROM THE TIME DOMAIN TO RESOURCE COST DOMAIN. THIS WILL ALLOW THE SECONDARY ROVER WITH MORE LIMITED RESOURCES ENERGY SAMPLE STORAGE ETC TO RENDEZVOUS WITH THE PRIMARY ROVER BEFORE THE RESOURCE IS EXPENDED. INITIAL EXPERIMENTATION OF THE ALGORITHM WILL BE DONE IN SIMULATION BY AUTOMATICALLY GENERATING THE HAZARD MAPS AND VERIFYING THE OPTIMALITY OF THE GENERATED PATHS. IF THEY ARE CONSISTENTLY SUCCESSFUL THE METHODS AND ALGORITHMS WILL BE TESTED IN THE FIELD WITH MOBILE ROBOTS.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| 2 | Funding Only Action | ($29k) | 10/6/16 | |
| Not listed | ($29k) | 10/6/16 | ||
| Not listed | $0 | 8/21/16 | ||
| 1 | Funding Only Action | $0 | 8/21/16 | |
| Not listed | Not listed | $74.0k | 7/29/15 |