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Multi-objective optimisation of systems architectures for distributed aero-engine control systems

Multi-objective optimisation of systems architectures for distributed aero-engine control systems
Multi-objective optimisation of systems architectures for distributed aero-engine control systems
The increasing use of embedded intelligence to produce smart sensors and actuators offers great potential benefits in adopting a distributed control strategy in aerospace applications. There are many advantages to be gained: fewer and shorter buses, intrinsic partitioning, smaller control box size, increased health monitoring, increased system flexibility and reduced vulnerability to hazardous events. However, this has to be traded off against the problems of greater complexity, processor diversity, accessibility, exposure of electronics to severe environments, power distribution, software production costs and management. In this paper how multi-objective optimisation can be applied to this problem for the application of military gas turbine engines is considered.
Thompson, H.A.
e867594d-414e-4325-9aa2-0fe51b95ef91
Fleming, P.J.
a1b6d9d0-b2df-425c-8598-d1fba743b4f7
Chipperfield, A.J.
524269cd-5f30-4356-92d4-891c14c09340
Thompson, H.A.
e867594d-414e-4325-9aa2-0fe51b95ef91
Fleming, P.J.
a1b6d9d0-b2df-425c-8598-d1fba743b4f7
Chipperfield, A.J.
524269cd-5f30-4356-92d4-891c14c09340

Thompson, H.A., Fleming, P.J. and Chipperfield, A.J. (1998) Multi-objective optimisation of systems architectures for distributed aero-engine control systems. In 34th AIAA/ASME/SAE/ASEE Joint Propulsion Conference and Exhibit.

Record type: Conference or Workshop Item (Paper)

Abstract

The increasing use of embedded intelligence to produce smart sensors and actuators offers great potential benefits in adopting a distributed control strategy in aerospace applications. There are many advantages to be gained: fewer and shorter buses, intrinsic partitioning, smaller control box size, increased health monitoring, increased system flexibility and reduced vulnerability to hazardous events. However, this has to be traded off against the problems of greater complexity, processor diversity, accessibility, exposure of electronics to severe environments, power distribution, software production costs and management. In this paper how multi-objective optimisation can be applied to this problem for the application of military gas turbine engines is considered.

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Published date: 15 July 1998

Identifiers

Local EPrints ID: 470243
URI: http://eprints.soton.ac.uk/id/eprint/470243
PURE UUID: c19faf24-ea2a-4a4b-8dc5-0b9e469ab2e1
ORCID for A.J. Chipperfield: ORCID iD orcid.org/0000-0002-3026-9890

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Date deposited: 05 Oct 2022 16:33
Last modified: 23 Feb 2023 02:45

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Contributors

Author: H.A. Thompson
Author: P.J. Fleming

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