Stochastic monitoring of the space environment with femtosatellite swarms

This paper is an exploration of how massively distributed femtosatellite networks can be implemented in space missions aimed at modelling the space environment for variables that show both time and space dependence. A theory of distributed sensing for space-time deconvolution is presented and performance parameters for system evaluation are described. Measurement of the magnetic field in low Earth orbit, in the presence of field perturbations, is selected as a case study for demonstrating the concept in simulation. A femtosatellite swarm, designed for the simulated space environment, shows the capability of space-time deconvolution in sensing. From the simulated mission, challenges in the design and deployment of free-flying sensor swarms, especially in the femtosatellite mass range, are identified and discussed. • An exploration of femtosatellite applications for solving real problems in space research. • Data analysis for massively distributed in-parallel sensing for time and space deconvolution with femtosatellites. • Femtosatellite mission design and simulation for distributed sensing applications.

Authors

Publication Details

Journal
Acta Astronautica
Published
2024-09-14
DOI
https://doi.org/10.1016/j.actaastro.2024.09.026
Citations
1
Primary Topic
Spacecraft Design and Technology
Type
article
Field-Weighted Citation Impact
1.30

Funders

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article

Stochastic monitoring of the space environment with femtosatellite swarms

Gilles Bailet, Colin R. McInnes, James Beeley, Christopher Teale
1 citations
Acta Astronautica
Spacecraft Design and Technology
1.30
article

Stochastic monitoring of the space environment with femtosatellite swarms

Gilles Bailet, Colin R. McInnes, James Beeley, Christopher Teale
article en
1 citations

Abstract

This paper is an exploration of how massively distributed femtosatellite networks can be implemented in space missions aimed at modelling the space environment for variables that show both time and space dependence. A theory of distributed sensing for space-time deconvolution is presented and performance parameters for system evaluation are described. Measurement of the magnetic field in low Earth orbit, in the presence of field perturbations, is selected as a case study for demonstrating the concept in simulation. A femtosatellite swarm, designed for the simulated space environment, shows the capability of space-time deconvolution in sensing. From the simulated mission, challenges in the design and deployment of free-flying sensor swarms, especially in the femtosatellite mass range, are identified and discussed. • An exploration of femtosatellite applications for solving real problems in space research. • Data analysis for massively distributed in-parallel sensing for time and space deconvolution with femtosatellites. • Femtosatellite mission design and simulation for distributed sensing applications.

Acta AstronauticaVol. 225
Royal Academy of Engineering
Openalex Percentile: Top 13%
Spacecraft Design and Technology
1.30
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Stochastic monitoring of the space environment with femtosatellite swarms — Gilles Bailet, Colin R. McInnes, et al. · Acta Astronautica (2024) | TGRS Research Map | TGRS