2008
DOI: 10.1007/978-3-540-89076-8_10
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A Lunar Surface Operations Simulator

Abstract: Abstract. The Lunar Surface Operations Simulator (LSOS) is being developed to support planning and design of space missions to return astronauts to the moon. Vehicles, habitats, dynamic and physical processes and related environment systems are modeled and simulated in LSOS to assist in the visualization and design optimization of systems for lunar surface operations. A parametric analysis tool and a data browser were also implemented to provide an intuitive interface to run multiple simulations and review the… Show more

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Cited by 7 publications
(3 citation statements)
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“…Following analytical Matlab optimization of the 2-D kinematic rocker–bogie configuration described in section “Design optimization,” full 3-D dynamic simulations of the rover driving over the terrains were performed in M3Tk 45 to further investigate performance that the 2-D optimization analysis might have missed and to validate the model optimization. This approach of verifying performance using dynamics simulators has been pursued by other researchers, for example, to optimize a rhombus-configured, parallel-mechanism suspension rover, 43 to demonstrate the improvements in mobility over rugged terrain using weight distribution control algorithms, 30 to compare performance of alternative designs of mobility platforms, 31 and to evaluate performance of Mars 46,47 and Lunar 48 rovers.…”
Section: Simulation Analysismentioning
confidence: 99%
“…Following analytical Matlab optimization of the 2-D kinematic rocker–bogie configuration described in section “Design optimization,” full 3-D dynamic simulations of the rover driving over the terrains were performed in M3Tk 45 to further investigate performance that the 2-D optimization analysis might have missed and to validate the model optimization. This approach of verifying performance using dynamics simulators has been pursued by other researchers, for example, to optimize a rhombus-configured, parallel-mechanism suspension rover, 43 to demonstrate the improvements in mobility over rugged terrain using weight distribution control algorithms, 30 to compare performance of alternative designs of mobility platforms, 31 and to evaluate performance of Mars 46,47 and Lunar 48 rovers.…”
Section: Simulation Analysismentioning
confidence: 99%
“…By taking advantage of the scene rendering capability in Dspace and by utilizing hardware acceleration provided by modern graphics cards, the operations described below can be executed quickly and are general enough to be used in a variety of simulation scenarios. The Lunar Surface Operations System [15] (LSOS) project simulation makes extensive use of the Dspace features described below…”
Section: Engineering Analysismentioning
confidence: 99%
“…The Lunar Surface Operations Simulator (LSOS) [15] is one of the simulators under development. As its name suggests, it models surface systems, their mechanical properties, dynamic interactions and operations.…”
Section: Introductionmentioning
confidence: 99%