Logo Lanfrica
  • Accueil
  • Atlas
  • Analyses
  • Documentation
  • Sign in

© 2026 Lanfrica. Tous droits réservés. Tous les droits d'auteur des ressources affichées sur le site Web Lanfrica appartiennent aux détenteurs de droits d'auteur d'origine, sauf indication contraire explicite.

Multi-objective optimization of building energy performance and indoor thermal comfort by combining artificial neural networks and metaheuristic algorithms

Domaine:

environment and energy

Type de record:

paper
Créateur:
CheTabSimMou
Éditeur:
RelEcoUniEco
Éditeur:
CCSDElsevier
Hôte:avatar
International audience During the last few years, multi-objective optimization processes have become one of the main challenges for energy efficiency in buildings. In this work, a new efficient multi-objective optimization method, based on the Building Performance Optimization (BPO) technique, has been developed to improve the indoor thermal comfort and energy performance of residential buildings, i.e. a Moroccan ground floor + first floor (GFFF) house located in Marrakech region (5th climatic zone according to the Thermal Building Code in Morocco). The most influential design variables have been well explored in order to find the optimal trade-off between these two objectives. Indeed, this technique is based on the integration of Artificial Neural Networks (ANNs), in particular Multilayer Feedforward Neural Networks (MFNN), coupled with the most commonly used metaheuristic algorithms, i.e. Nondominated Sorting Genetic Algorithm (NSGA-II), Multi-Objective Particle Swarm Optimization (MOPSO) and Multi-Objective Genetic Algorithm (MOGA), in order to minimize computation time as much as possible. The TRNSYS software was used to establish the various dynamic thermal simulations required to create the database, from which the ANNs were able to set up their learning. The results show that this methodology is being used successfully, leading to different proposed solutions in terms of building envelope design. However, only the solutions using MOPSO are finally retained, as they have shown the greatest desired performance compared to the others. Thus, the thermal needs, particularly those for heating and cooling, have been significantly reduced to 74.52% of the total, while improving the indoor thermal comfort by 4.32% compared to the base design. Finally, we strongly recommend this methodology to the different actors in this field, including designers, engineers, architects, engineering offices, etc., when several objectives need to be contrasted while simultaneously considering several design variables.

Visit

hal.science

Languages

Arabic, Moroccan Spoken

Tags

[SPI.GCIV.CD]Engineering Sciences [physics]/Civil Engineering/Construction durable[SPI.NANO]Engineering Sciences [physics]/Micro and nanotechnologies/Microelectronics[SPI.NRJ]Engineering Sciences [physics]/Electric power[SPI.GCIV.EC]Engineering Sciences [physics]/Civil Engineering/Eco-conception

Licenses

https://creativecommons.org/licenses/by-nc/4.0/info:eu-repo/semantics/OpenAccess

Similaires

Shading devices optimization to enhance thermal comfort and energy performance of a residential building in MoroccoOptimization and modeling of solar energy with artificial neural networksA direct adaptive control architecture for buildings thermal comfort and energy efficiency optimization using multilayer perceptron neural networks and model reference learningLarge-Scale Building Thermal Modeling Based on Artificial Neural Networks: Application to Smart Energy ManagementSpatio-temporal; Artificial Intelligence; Multi-Hazard Risk Mapping; Renewable Energy Sitting; Multi-objective OptimizationBuilding thermal comfort improving by using PCM and super insulators: Thermal and economic studies

Shading devices optimization to enhance thermal comfort and energy performance of a residential building in Morocco

International audience Morocco's building sector accounts for about 25% of the countr

Optimization and modeling of solar energy with artificial neural networks

Solar energy represents one of the emerging frontiers in renewable energy, offering significant pote

A direct adaptive control architecture for buildings thermal comfort and energy efficiency optimization using multilayer perceptron neural networks and model reference learning

International audience This paper presents an original direct adaptive control strate

Large-Scale Building Thermal Modeling Based on Artificial Neural Networks: Application to Smart Energy Management

International audience This chapter focuses specifically on the development of a smar

Spatio-temporal; Artificial Intelligence; Multi-Hazard Risk Mapping; Renewable Energy Sitting; Multi-objective Optimization

The siting of renewable energy systems (RES) in regions vulnerable to multiple climate hazards prese

Building thermal comfort improving by using PCM and super insulators: Thermal and economic studies

The climate of the northern region of Morocco is Mediterranean, while the southern one is arid-type.