Scale-Invariant Specifications for Human-Swarm Systems

We present a method for controlling a swarm using its spectral decomposition -- that is, by describing the set of trajectories of a swarm in terms of a spatial distribution throughout the operational domain -- guaranteeing scale invariance with respect to the number of agents both for computation an...

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Veröffentlicht in:arXiv.org 2022-12
Hauptverfasser: Meyer, Joel, Prabhakar, Ahalya, Pinosky, Allison, Abraham, Ian, Taylor, Annalisa, Schlafly, Millicent, Popovic, Katarina, Diniz, Giovani, Teich, Brendan, Simidchieva, Borislava, Clark, Shane, Murphey, Todd
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creator Meyer, Joel
Prabhakar, Ahalya
Pinosky, Allison
Abraham, Ian
Taylor, Annalisa
Schlafly, Millicent
Popovic, Katarina
Diniz, Giovani
Teich, Brendan
Simidchieva, Borislava
Clark, Shane
Murphey, Todd
description We present a method for controlling a swarm using its spectral decomposition -- that is, by describing the set of trajectories of a swarm in terms of a spatial distribution throughout the operational domain -- guaranteeing scale invariance with respect to the number of agents both for computation and for the operator tasked with controlling the swarm. We use ergodic control, decentralized across the network, for implementation. In the DARPA OFFSET program field setting, we test this interface design for the operator using the STOMP interface -- the same interface used by Raytheon BBN throughout the duration of the OFFSET program. In these tests, we demonstrate that our approach is scale-invariant -- the user specification does not depend on the number of agents; it is persistent -- the specification remains active until the user specifies a new command; and it is real-time -- the user can interact with and interrupt the swarm at any time. Moreover, we show that the spectral/ergodic specification of swarm behavior degrades gracefully as the number of agents goes down, enabling the operator to maintain the same approach as agents become disabled or are added to the network. We demonstrate the scale-invariance and dynamic response of our system in a field relevant simulator on a variety of tactical scenarios with up to 50 agents. We also demonstrate the dynamic response of our system in the field with a smaller team of agents. Lastly, we make the code for our system available.
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subjects Control methods
Dynamic response
Ergodic processes
Invariance
Invariants
Scale invariance
Spatial distribution
Specifications
title Scale-Invariant Specifications for Human-Swarm Systems
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