PSO-guided optimal estimator enabled regularized adaptive extended Kalman filter with unknown inputs for dynamic nonlinear indoor thermal state estimation
PSO-guided optimal estimator enabled regularized adaptive extended Kalman filter with unknown inputs for dynamic nonlinear indoor thermal state estimation
This paper presents a particle swarm optimization-guided maximum likelihood estimation enabled (MLE) adaptive extended Kalman filter (EKF) with unknown inputs algorithm for estimating the dynamic nonlinear thermal states for an indoor heating ventilation and air conditioning system. The concept of MLE has been introduced to enhance the speed of convergence of the filtering parameters in adaptive EKF. The nonlinear indoor environment has been modelled employing equivalent RC network taking relative humidity into account. At the outset, an EKF-based method accommodating the unknown inputs and an adaptive estimator-based variant of it are developed for estimating the temperature of the walls of a laboratory-scale realistic environment. Subsequently the proposed scheme comes into play to deal with the scenarios associated with undesirable divergence and poor initialization utilizing the metaheuristically adapted optimal regularizer. The proposed technique outperforms the other contemporary state-of-the-art counterparts in terms of mean squared error.
adaptive extended Kalman filter, extended Kalman filter, maximum likelihood estimation, nonlinear dynamic thermal state estimation, RC network thermal model
422-442
Das, Bed Prakash
59fade5c-f9c9-4eec-9b83-19a37357de06
Das Sharma, Kaushik
1267bc46-a2e4-4cf8-848d-11a56139ab52
Chatterjee, Amitava
8d542814-3acb-4b7d-8460-d024625ac778
Bera, Jitendra Nath
d0b4e4d5-9a1d-4e5c-afa4-b60666095f35
6 March 2024
Das, Bed Prakash
59fade5c-f9c9-4eec-9b83-19a37357de06
Das Sharma, Kaushik
1267bc46-a2e4-4cf8-848d-11a56139ab52
Chatterjee, Amitava
8d542814-3acb-4b7d-8460-d024625ac778
Bera, Jitendra Nath
d0b4e4d5-9a1d-4e5c-afa4-b60666095f35
Das, Bed Prakash, Das Sharma, Kaushik, Chatterjee, Amitava and Bera, Jitendra Nath
(2024)
PSO-guided optimal estimator enabled regularized adaptive extended Kalman filter with unknown inputs for dynamic nonlinear indoor thermal state estimation.
Journal of Building Performance Simulation, 17 (4), .
(doi:10.1080/19401493.2024.2324814).
Abstract
This paper presents a particle swarm optimization-guided maximum likelihood estimation enabled (MLE) adaptive extended Kalman filter (EKF) with unknown inputs algorithm for estimating the dynamic nonlinear thermal states for an indoor heating ventilation and air conditioning system. The concept of MLE has been introduced to enhance the speed of convergence of the filtering parameters in adaptive EKF. The nonlinear indoor environment has been modelled employing equivalent RC network taking relative humidity into account. At the outset, an EKF-based method accommodating the unknown inputs and an adaptive estimator-based variant of it are developed for estimating the temperature of the walls of a laboratory-scale realistic environment. Subsequently the proposed scheme comes into play to deal with the scenarios associated with undesirable divergence and poor initialization utilizing the metaheuristically adapted optimal regularizer. The proposed technique outperforms the other contemporary state-of-the-art counterparts in terms of mean squared error.
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Accepted/In Press date: 21 February 2024
e-pub ahead of print date: 6 March 2024
Published date: 6 March 2024
Keywords:
adaptive extended Kalman filter, extended Kalman filter, maximum likelihood estimation, nonlinear dynamic thermal state estimation, RC network thermal model
Identifiers
Local EPrints ID: 506931
URI: http://eprints.soton.ac.uk/id/eprint/506931
ISSN: 1940-1493
PURE UUID: a7a74678-a641-4e2c-b357-42294d74303e
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Date deposited: 21 Nov 2025 17:36
Last modified: 22 Nov 2025 03:15
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Contributors
Author:
Bed Prakash Das
Author:
Kaushik Das Sharma
Author:
Amitava Chatterjee
Author:
Jitendra Nath Bera
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