Cooperative Salvo Guidance over Leader-Follower Network with Free-Will Arbitrary Time Convergence
Rajib Shekhar Pal, Shashi Ranjan Kumar, Dwaipayan Mukherjee

TL;DR
This paper introduces a cooperative salvo guidance strategy that ensures interceptors reach consensus on impact time within a pre-defined arbitrary settling time, accounting for realistic nonlinear dynamics and system delays.
Contribution
It presents a novel guidance scheme that guarantees consensus on impact time within an arbitrarily pre-specified duration, regardless of initial conditions or system parameters.
Findings
Achieves consensus within a pre-specified arbitrary settling time.
Handles nonlinear engagement kinematics and system lag.
Validated through numerical simulations under varied conditions.
Abstract
A cooperative salvo strategy is proposed in this paper which achieves consensus among the interceptors within a pre-defined arbitrary settling time. Considering non-linear engagement kinematics and a system lag to capture the effect of interceptor autopilot as present in realistic interception scenarios, the guidance schemes use the time-to-go estimates of the interceptors in order to achieve simultaneous interception of a stationary target at a pre-determined impact time. The guidance scheme ensures that consensus among the time-to-go estimates of the interceptors is achieved within a settling time whose upper bound can be pre-specified arbitrarily independent of the initial conditions or design parameters. The efficacy of the proposed guidance strategy is demonstrated using numerical simulations with varied conditions of initial position, velocities and heading angle errors of the…
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Taxonomy
TopicsDistributed Control Multi-Agent Systems · Opportunistic and Delay-Tolerant Networks · Guidance and Control Systems
