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Pulse-based periodic control for spacecraft formation flying

Q. Yan, Vikram Kapila, Andrew G. Sparks

Open publisher page 39 citations

Abstract

Distributed spacecraft formation flying has been identified as an enabling technology by NASA and the US Air Force for several future space missions. Implementation of the distributed spacecraft formation flying concept requires tight, autonomous, cooperative, real-time control of the relative distance and attitude between the participating spacecraft. In this paper, we develop a pulse-based, periodic gain, linear control design framework, which uses only an intermittent control action and yields guaranteed closed-loop stability. The proposed framework is utilized to design linear controllers for the linearized spacecraft relative motion dynamics viz., Hill's equations. Illustrative numerical simulations are developed for formation maintenance in ideal, naturally attractive, relative orbits, to demonstrate the efficacy of the proposed approach.

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What this paper is about

Distributed spacecraft formation flying has been identified as an enabling technology by NASA and the US Air Force for several future space missions. Implementation of the distributed spacecraft formation flying concept requires tight, autonomous, cooperative, real-time control of the relative distance and attitude between the participating spacecraft. In this paper, we develop a pulse-based, periodic gain, linear control design framework, which uses only an intermittent control action and yields guaranteed closed-loop stability. The proposed framework is utilized to design linear controllers for the linearized spacecraft relative motion dynamics viz., Hill's equations. Illustrative numerical simulations are developed for formation maintenance in ideal, naturally attractive, relative orbits, to demonstrate the efficacy of the proposed approach.

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OpenAlex reports 39 citations for this work. Citation counts describe recorded attention and do not establish research quality.

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Available abstract

Distributed spacecraft formation flying has been identified as an enabling technology by NASA and the US Air Force for several future space missions. Implementation of the distributed spacecraft formation flying concept requires tight, autonomous, cooperative, real-time control of the relative distance and attitude between the participating spacecraft. In this paper, we develop a pulse-based, periodic gain, linear control design framework, which uses only an intermittent control action and yields guaranteed closed-loop stability. The proposed framework is utilized to design linear controllers for the linearized spacecraft relative motion dynamics viz., Hill's equations. Illustrative numerical simulations are developed for formation maintenance in ideal, naturally attractive, relative orbits, to demonstrate the efficacy of the proposed approach.

Key concepts: Spacecraft, Control theory (sociology), Intermittent control, Pulse (music), Computer science, Stability (learning theory), Aerospace engineering, Relative motion

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