TY - GEN
T1 - Multi Domain Dynamic Targeting
T2 - Artificial Intelligence and Machine Learning for Multi-Domain Operations Applications IV 2022
AU - Guo, Jinhong K.
AU - Lautenschlager, Jennifer
AU - Champagne, Valerie
AU - Pascual, Jose
AU - Warwick, Phillip
AU - Ortiz-Pena, Hector J.
AU - Naylor, Dustin
AU - Ritz, Benjamin
AU - Schuler, Tim
AU - Costantini, Kevin
AU - Sudit, Moises
N1 - Publisher Copyright:
© 2022 SPIE.
PY - 2022
Y1 - 2022
N2 - To increase efficiency in all-domain military operations, such as achieving desired effects within severely compressed decision cycles, a multi-prong approach to technology is required. Traditional approaches provide a single algorithmic solution that keeps users, and acquisition efforts, “locked-in” to a result that may not be ideal for a particular mission, or possibly hinders technological advancements. Combining algorithms through ‘plug and play’, users can select the optimal algorithm(s) for their mission, and the acquisition community can easily improve existing or introduce new algorithms, thereby increasing performance while reducing cost. Our solution provides a set of heterogeneous independent optimization algorithms (IOAs) developed separately by three defense contractors, coordinated by a central Meta-Optimizer (MO) that is connected to a simulation and testing (S&T) environment. The MO relays S&T changes to the IOAs which independently optimize resourcing for any new dynamic targets (DTs) while minimizing ripple effects (e.g., changes to executing tasks) and maximizing the diversity of options across all domains. Each IOA proposes potentially multiple options which are presented to users for a tradeoff analysis using quantitative factors such as speed, allocation percentage, attribution, desired effects, and degree of ripple effects. A single option, selected by the users, is passed back to both the S&T environment and the connected IOAs, enabling the IOAs to learn from the operator’s choices. The heterogeneity of the independent optimizers provides more diversified and efficient solutions across all domains from which the user can select the best option for the specific mission they are trying to achieve.
AB - To increase efficiency in all-domain military operations, such as achieving desired effects within severely compressed decision cycles, a multi-prong approach to technology is required. Traditional approaches provide a single algorithmic solution that keeps users, and acquisition efforts, “locked-in” to a result that may not be ideal for a particular mission, or possibly hinders technological advancements. Combining algorithms through ‘plug and play’, users can select the optimal algorithm(s) for their mission, and the acquisition community can easily improve existing or introduce new algorithms, thereby increasing performance while reducing cost. Our solution provides a set of heterogeneous independent optimization algorithms (IOAs) developed separately by three defense contractors, coordinated by a central Meta-Optimizer (MO) that is connected to a simulation and testing (S&T) environment. The MO relays S&T changes to the IOAs which independently optimize resourcing for any new dynamic targets (DTs) while minimizing ripple effects (e.g., changes to executing tasks) and maximizing the diversity of options across all domains. Each IOA proposes potentially multiple options which are presented to users for a tradeoff analysis using quantitative factors such as speed, allocation percentage, attribution, desired effects, and degree of ripple effects. A single option, selected by the users, is passed back to both the S&T environment and the connected IOAs, enabling the IOAs to learn from the operator’s choices. The heterogeneity of the independent optimizers provides more diversified and efficient solutions across all domains from which the user can select the best option for the specific mission they are trying to achieve.
KW - Dynamic Targeting
KW - multi-domain operations
KW - Optimization
KW - planning
KW - resource allocation
UR - https://www.scopus.com/pages/publications/85146632816
U2 - 10.1117/12.2617948
DO - 10.1117/12.2617948
M3 - Conference contribution
AN - SCOPUS:85146632816
T3 - Proceedings of SPIE - The International Society for Optical Engineering
BT - Artificial Intelligence and Machine Learning for Multi-Domain Operations Applications IV
A2 - Pham, Tien
A2 - Solomon, Latasha
PB - SPIE
Y2 - 6 June 2022 through 12 June 2022
ER -