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Novel multi-object filtering approach for space situational awareness

Novel multi-object filtering approach for space situational awareness
Novel multi-object filtering approach for space situational awareness
Surveillance activities with ground-based assets in the context of space situational awareness are particularly challenging. The observation process is indeed hindered by short observation arcs, limited observability, missed detections, measurement noise, and contamination by clutter. This paper exploits a recent estimation framework for stochastic populations for space situational awareness surveillance scenarios. This framework shares the flexibility of the finite set statistics framework in the modeling of a dynamic population of objects and the representation of all the sources of uncertainty in a single coherent probabilistic framework and the intuitive approach of traditional track-based techniques to describe individual objects and maintain track continuity. We present a recent multi-object filtering solution derived from this framework, the filter for distinguishable and independent stochastic populations, and propose a bespoke implementation of the multitarget tracking algorithm for a space situational awareness surveillance activity. The distinguishable and independent stochastic populations filter is tested on a surveillance scenario involving two ground-based Doppler radars in a challenging environment with significant measurement noise, limited observability, missed detections, false alarms, and no a priori knowledge about the number and the initial states of the objects in the scene. The tracking algorithm shows good performance in initiating tracks from object-generated observations and in maintaining track custody throughout the scenario, even when the objects are outside of the sensors' fields of view, despite the challenging conditions of the surveillance scenario.
0731-5090
59-73
Delande, Emmanuel
e17b3b32-0949-4914-801e-c9386bce39a5
Frueh, Carolin
a1a80c71-5927-4247-be9a-2e11a75aea38
Franco, Jose
6f88f0bd-effb-46a2-9a6f-a2062915786d
Houssineau, Jérémie
89988b62-a668-4560-b49f-c1686ba7b584
Clark, Daniel
537f80e8-cbe6-41eb-b1d4-31af1f0e6393
Delande, Emmanuel
e17b3b32-0949-4914-801e-c9386bce39a5
Frueh, Carolin
a1a80c71-5927-4247-be9a-2e11a75aea38
Franco, Jose
6f88f0bd-effb-46a2-9a6f-a2062915786d
Houssineau, Jérémie
89988b62-a668-4560-b49f-c1686ba7b584
Clark, Daniel
537f80e8-cbe6-41eb-b1d4-31af1f0e6393

Delande, Emmanuel, Frueh, Carolin, Franco, Jose, Houssineau, Jérémie and Clark, Daniel (2018) Novel multi-object filtering approach for space situational awareness. Journal of Guidance, Control, and Dynamics, 41 (1), 59-73. (doi:10.2514/1.G002067).

Record type: Article

Abstract

Surveillance activities with ground-based assets in the context of space situational awareness are particularly challenging. The observation process is indeed hindered by short observation arcs, limited observability, missed detections, measurement noise, and contamination by clutter. This paper exploits a recent estimation framework for stochastic populations for space situational awareness surveillance scenarios. This framework shares the flexibility of the finite set statistics framework in the modeling of a dynamic population of objects and the representation of all the sources of uncertainty in a single coherent probabilistic framework and the intuitive approach of traditional track-based techniques to describe individual objects and maintain track continuity. We present a recent multi-object filtering solution derived from this framework, the filter for distinguishable and independent stochastic populations, and propose a bespoke implementation of the multitarget tracking algorithm for a space situational awareness surveillance activity. The distinguishable and independent stochastic populations filter is tested on a surveillance scenario involving two ground-based Doppler radars in a challenging environment with significant measurement noise, limited observability, missed detections, false alarms, and no a priori knowledge about the number and the initial states of the objects in the scene. The tracking algorithm shows good performance in initiating tracks from object-generated observations and in maintaining track custody throughout the scenario, even when the objects are outside of the sensors' fields of view, despite the challenging conditions of the surveillance scenario.

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More information

Accepted/In Press date: 20 May 2017
Published date: 2 January 2018
Additional Information: Funding Information: This work was supported by the Engineering and Physical Sciences Research Council (EPSRC) grants EP/K014277/1 and EP/J015180/1, the EPSRC/Dstl University Defence Research Collaboration (UDRC) in Signal Processing, the Dstl funding contract DSTL/AGR/00363/01 (ED-TIN10), and the AFSOR European Office of Aerospace Research and Development Grant 13-3030. Carolin Frueh was supported through the VIsion and roBOTics (VIBOT) Erasmus Mundus Visiting Scholar programme. Publisher Copyright: © Copyright 2017 by the American Institute of Aeronautics and Astronautics, Inc. All rights reserved.

Identifiers

Local EPrints ID: 475502
URI: http://eprints.soton.ac.uk/id/eprint/475502
ISSN: 0731-5090
PURE UUID: ed243876-f826-47e0-b55d-266f3a335c75

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Date deposited: 20 Mar 2023 17:46
Last modified: 17 Mar 2024 13:11

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Contributors

Author: Emmanuel Delande
Author: Carolin Frueh
Author: Jose Franco
Author: Jérémie Houssineau
Author: Daniel Clark

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