8-9 October 2020 • Burgas, Bulgaria

Submission: 15 May 2020 • Notification: 31 May 2020 • Final Version: 15 June 2020

Issue:Multi-objective optimisation in air-conditioning systems: comfort/discomfort definition by IF sets

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Title of paper: Multi-objective optimisation in air-conditioning systems: comfort/discomfort definition by IF sets
Author(s):
Plamen Angelov
Building Services Engineering Research Group Department of Civil and Building Engineering, Loughborough University, Loughborough LEl l 3TU, Leicestershire, UK
P.P.AngelovAt sign.pngLboro.ac.UK
Published in: "Notes on IFS", Volume 7 (2001), Number 1, pages 10-21
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Abstract: The problem of multi-objective optimisation of air-conditioning (AC) systems is treated in the paper in the framework of intuitionistic fuzzy set theory. The nature of the problem is multi-objective one with requirements for minimal costs (generally, life cycle costs; more specifically, energy costs) and maximal occupants' comfort (minimal discomfort). Moreover, its definition by conventional means is bounded to a number of restrictions and assumptions, which are often far from the real-life situations. Attempts have been made to formulate and solve this problem by means of the fuzzy optimisation. The present paper makes further step by exploring the innovative concept of intuitionistic fuzzy sets into definition of the trickiest issue: comfort and discomfort definition. The new approach allows to formulate more precisely the problem which compromises energy saving and thermal comfort satisfaction under given constraints. The resulting IF optimisation problem could be solved numerically or, under some assumptions, analytically. An example illustrates the viability of the proposed approach. A solution which significantly (with 35%) improves comfort is found which is more energetically expensive with only 0.6%. This illustrates the possibility to use the approach for trade-off analysis in multi-objective optimisation of AC systems.
Keywords: Intuitionistic fuzzy sets, IF optimisation, multi-objective optimisation, air-conditioning systems, comfort/discomfort
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