Shape control of multi-cellular inflatable panels
Multi-cellular inflatable structures are ultra-light and robust against membrane damage such as pinholes caused by space debris. Due to their robustness, inflatable structures supported by inner gases can be applied as space structures. In the present study, shape control for a simple multi-cellular...
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Veröffentlicht in: | Frontiers of Mechanical Engineering 2013-09, Vol.8 (3), p.276-282 |
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description | Multi-cellular inflatable structures are ultra-light and robust against membrane damage such as pinholes caused by space debris. Due to their robustness, inflatable structures supported by inner gases can be applied as space structures. In the present study, shape control for a simple multi-cellular inflatable panel was achieved via a novel diaphragm mechanism. When the bending actuator in a center membrane bends, the inner pressures of sub-cells become different, and the diaphragm mechanism bends as a whole. Because a sliding component is not included, this deformable system is a reliable mechanism. In addition, the proposed mechanism has higher rigidity than that of a bending actuator used alone. In the present paper, we investigate the feasibility of a novel diaphragm mechanism and its characteristics using experimental and numerical results. |
doi_str_mv | 10.1007/s11465-013-0267-5 |
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subjects | Actuators Bending Bends Diaphragms Engineering Inflatable inflatable structure Inflatable structures Mechanical Engineering Membrane structures Panels Research Article Shape control smart structures space engineering structural mechanics |
title | Shape control of multi-cellular inflatable panels |
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