NASA Logo

NTRS

NTRS - NASA Technical Reports Server

Press Enter or click the Search button to begin your search.

Back to Results
HabSim: A Modular Coupled Virtual Testbed for Simulating ExtraTerrestrial Habitat SystemsExtraterrestrial habitats involve a tightly coupled combination of hardware, software, and humans while operating in an unforgiving environment that poses many risks, both anticipated and unanticipated. Traditional approaches with such systems of systems focus on reliability, robustness, and redundancy. These approaches seek to avoid failure rather than reduce overall risk. However, faults are inevitable, and understanding and managing the complex and emergent behavior and cascading events of such a complex system is critical. This study describes the development of HabSim, a computational simulation environment intended to support research to establish the know-how to design and operate resilient and autonomous SmartHabs. HabSim is a modular virtual testbed composed of many of the coupled dynamic systems expected in a typical SmartHab. A heterogeneous set of interconnected physics-based and phenomenological models is used to represent the essential functions of a SmartHab. HabSim further considers disruptions and models damage and repair of certain components. This paper discusses a) system and subsystem requirements of the deep space habitat included in the HabSim platform; b) architectural choices made in response to the requirements; c) technical considerations for developing, verifying, configuring, and executing HabSim; and d) illustrative sample results from a simulation of a representative disruption scenario.
Document ID
20250001608
Acquisition Source
2230 Support
Document Type
Reprint (Version printed in journal)
Authors
Mohsen Azimi ORCID
(Mississippi State University Starkville, United States)
Alana Lund
(University of Waterloo Waterloo, Ontario, Canada)
Yuguang Fu
(Nanyang Technological University Singapore, Singapore)
Herta Montoya ORCID
(Purdue University West Lafayette West Lafayette, United States)
Luca Vaccino ORCID
(Purdue University West Lafayette West Lafayette, United States)
R Murali Krishnan ORCID
(Purdue University West Lafayette West Lafayette, United States)
Seungho Rhee
(Purdue University West Lafayette West Lafayette, United States)
Leila Chebbo ORCID
(University of Connecticut Groton, United States)
Adnan Shahriar
(The University of Texas at San Antonio San Antonio, United States)
Zixin Wang ORCID
(Purdue University West Lafayette West Lafayette, United States)
Amin Maghareh ORCID
(Purdue University West Lafayette West Lafayette, United States)
Shirley J Dyke ORCID
(Purdue University West Lafayette West Lafayette, United States)
Date Acquired
February 11, 2025
Publication Date
January 9, 2025
Publication Information
Publication: AIAA Journal
Publisher: American Institute of Aeronautics and Astronautics
Issue Publication Date: January 9, 2025
ISSN: 0001-1452
e-ISSN: 1533-385X
Subject Category
Fluid Mechanics and Thermodynamics
Funding Number(s)
CONTRACT_GRANT: 80NSSC19K1076
Distribution Limits
Public
Copyright
Portions of document may include copyright protected material.
Technical Review
No Preview Available