TY - JOUR
T1 - Top-level modeling of an ALS system utilizing object-oriented techniques
AU - Rodriguez, L. F.
AU - Kang, S.
AU - Ting, K. C.
N1 - Funding Information:
This paper was supported by the NJAES Paper No. P-70501-19-00 and the NJ-NSCORT. Several researchers from the NJ-NSCORT assisted in the development and review of these models. This work could not have been completed without them. Special thanks are given to the NJ-NSCORT and NASA for providing funding for this work.
PY - 2003/4
Y1 - 2003/4
N2 - The possible configuration of an Advanced Life Support (ALS) System capable of supporting human life for long-term space missions continues to evolve as researchers investigate potential technologies and configurations. To facilitate the decision process the development of acceptable, flexible, and dynamic mathematical computer modeling tools capable of system level analysis is desirable. Object-oriented techniques have been adopted to develop a dynamic top-level model of an ALS system. This approach has several advantages; among these, object-oriented abstractions of systems are inherently modular in architecture. Thus, models can initially be somewhat simplistic, while allowing for adjustments and improvement. In addition, by coding the model in Java, the model can be implemented via the World Wide Web, greatly encouraging the utilization of the model. Systems analysis is further enabled with the utilization of a readily available backend database containing information supporting the model. The subsystem models of the ALS system model include Crew, Biomass Production, Waste Processing and Resource Recovery, Food Processing and Nutrition, and the Interconnecting Space. Each subsystem model and an overall model have been developed. Presented here is the procedure utilized to develop the modeling tool, the vision of the modeling tool, and the current focus for each of the subsystem models.
AB - The possible configuration of an Advanced Life Support (ALS) System capable of supporting human life for long-term space missions continues to evolve as researchers investigate potential technologies and configurations. To facilitate the decision process the development of acceptable, flexible, and dynamic mathematical computer modeling tools capable of system level analysis is desirable. Object-oriented techniques have been adopted to develop a dynamic top-level model of an ALS system. This approach has several advantages; among these, object-oriented abstractions of systems are inherently modular in architecture. Thus, models can initially be somewhat simplistic, while allowing for adjustments and improvement. In addition, by coding the model in Java, the model can be implemented via the World Wide Web, greatly encouraging the utilization of the model. Systems analysis is further enabled with the utilization of a readily available backend database containing information supporting the model. The subsystem models of the ALS system model include Crew, Biomass Production, Waste Processing and Resource Recovery, Food Processing and Nutrition, and the Interconnecting Space. Each subsystem model and an overall model have been developed. Presented here is the procedure utilized to develop the modeling tool, the vision of the modeling tool, and the current focus for each of the subsystem models.
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U2 - 10.1016/S0273-1177(03)00080-2
DO - 10.1016/S0273-1177(03)00080-2
M3 - Article
C2 - 14503522
AN - SCOPUS:0041743828
SN - 0273-1177
VL - 31
SP - 1811
EP - 1822
JO - Advances in Space Research
JF - Advances in Space Research
IS - 7
ER -