TY - GEN
T1 - A system architecture for decision-making support on isr missions with stochastic needs and profit
AU - Hu, Nan
AU - Pizzocaro, Diego
AU - La Porta, Thomas
AU - Preece, Alun
PY - 2013
Y1 - 2013
N2 - In this paper, we propose a system architecture for decision-making support on ISR (i.e., Intelligence, Surveil- lance, Reconnaissance) missions via optimizing resource allocation. We model a mission as a graph of tasks, each of which often requires exclusive access to some resources. Our system guides users through refinement of their needs through an interactive interface. To maximize the chances of executing new missions, the system searches for pre-existent information collected on the field that best fit the needs. If this search fails, a set of new requests representing users' requirements is considered to maximize the overall benefit constrained by limited resources. zf an ISR request cannot be satisfied, feedback is generated to help the commander further refine or adjust their information requests in order to still provide support to the mission. In our work, we model both demands for resources and the importance of the information retrieved realistically in that they are not fully known at the time a mission is submitted and may change overtime during execution. The amount of resources consumed by a mission may not be deterministic; e.g., a mission may last slightly longer or shorter than expected, or more of a resource may be required to complete a task. Furthermore, the benefits received from the mission, which we call profits, may also be non-deterministic; e.g., successfully localizing a vehicle might be more important than expected for accomplishing the entire operation. Therefore, when satisfying ISR requirements we take into account both constraints on the underlying resources and uncertainty of demands and profits.
AB - In this paper, we propose a system architecture for decision-making support on ISR (i.e., Intelligence, Surveil- lance, Reconnaissance) missions via optimizing resource allocation. We model a mission as a graph of tasks, each of which often requires exclusive access to some resources. Our system guides users through refinement of their needs through an interactive interface. To maximize the chances of executing new missions, the system searches for pre-existent information collected on the field that best fit the needs. If this search fails, a set of new requests representing users' requirements is considered to maximize the overall benefit constrained by limited resources. zf an ISR request cannot be satisfied, feedback is generated to help the commander further refine or adjust their information requests in order to still provide support to the mission. In our work, we model both demands for resources and the importance of the information retrieved realistically in that they are not fully known at the time a mission is submitted and may change overtime during execution. The amount of resources consumed by a mission may not be deterministic; e.g., a mission may last slightly longer or shorter than expected, or more of a resource may be required to complete a task. Furthermore, the benefits received from the mission, which we call profits, may also be non-deterministic; e.g., successfully localizing a vehicle might be more important than expected for accomplishing the entire operation. Therefore, when satisfying ISR requirements we take into account both constraints on the underlying resources and uncertainty of demands and profits.
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U2 - 10.1117/12.2018047
DO - 10.1117/12.2018047
M3 - Conference contribution
AN - SCOPUS:84884149239
SN - 9780819495334
T3 - Proceedings of SPIE - The International Society for Optical Engineering
BT - Ground/Air Multisensor Interoperability, Integration, and Networking for Persistent ISR IV
T2 - Ground/Air Multisensor Interoperability, Integration, and Networking for Persistent ISR IV
Y2 - 29 April 2013 through 2 May 2013
ER -