Numerical simulation integrating passive cooling strategies for building thermal comfort in Guinea's climates

被引:1
作者
Diallo, Mamadou Aliou, II [1 ,2 ,6 ]
Romani, Zaid [3 ]
Mahdaoui, Mustapha [1 ,5 ]
Bahraoui, Fatima [1 ]
Ahachad, Mohammed [1 ,4 ]
机构
[1] Abdelmalek Essaadi Univ, FST Tangie, MaSEEL, Tangier, Morocco
[2] Univ Julius Nyerere Kankan, Dept Phys, Kankan, Guinea
[3] Natl Sch Architecture Tetouan, Res Lab Built Environm andLandscape LaBEL, Tetouan, Morocco
[4] Univ Polytech Hauts De France, CNRS, UMR 8201, LAMIH, Valenciennes, France
[5] Sch Architecture Planning & Design SAP D, UM6P, Benguerir, Morocco
[6] Abdelmalek Essaadi Univ, FST Tangier, MaSEEL, BP 416, Tangier, Morocco
关键词
Thermal comfort; BES; passive cooling; WBGT; PMV-PPD; tropical climate; AIR-FLOW; ENERGY;
D O I
10.1080/17512549.2024.2321204
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
Due to the increased demand for indoor air conditioning, the residential sector in tropical regions is becoming more and more energy intensive. In this study, several passive cooling strategies in the building sector in Guinea, such as natural ventilation, thermal insulation, and cool coating roof, as well as the coupling between these different solutions, have been evaluated. Therefore, the thermal behaviour of a residential building in two climatic zones of Guinea is evaluated. The building thermal discomfort is assessed by the adaptive and conventional approaches, as well as the Wet Bulb Globe Temperature (WBGT) thermal stress indicators and the PMV-PPD indices. The results show that high levels of discomfort and thermal stress are present in the reference building. The use of the combination of passive cooling strategies allowed a reduction of the thermal discomfort evaluated by an adaptive approach of 74% in Conakry and 65% in Kankan. The WBGT index was improved by 42% in Conakry and 45% in Kankan. The operative temperature also decreased to 4.4 degrees C for Conakry and 3.61 degrees C for Kankan.
引用
收藏
页码:82 / 103
页数:22
相关论文
共 40 条
  • [1] Allen M., 2018, GLOBAL WARMING 15 C, P49, DOI DOI 10.1017/9781009157940.003
  • [2] [Anonymous], 2022, US
  • [3] Use of thermal insulation in the envelope to mitigate energy consumption in the face of climate change for mid-western Brazil
    Aparecida da Guarda, Emeli Lalesca
    Alves Domingos, Renata Mansuelo
    Gabriel, Elaise
    Durante, Luciane Cleonice
    Ranieri Moreira, Jose Vinnicius
    Machado Sanches, Joao Carlos
    [J]. SUSTAINABILITY IN THE BUILT ENVIRONMENT FOR CLIMATE CHANGE MITIGATION (SBE19), 2020, 410
  • [4] Wet-bulb globe temperature (WBGT) - its history and its limitations
    Budd, Grahame M.
    [J]. JOURNAL OF SCIENCE AND MEDICINE IN SPORT, 2008, 11 (01) : 20 - 32
  • [5] Burr R. E., 1991, HEAT ILLNESS HDB MED
  • [6] CONTAM, 2012, CONTAM
  • [7] Overview of pressure coefficient data in building energy simulation and airflow network programs
    Costola, D.
    Blocken, B.
    Hensen, J. L. M.
    [J]. BUILDING AND ENVIRONMENT, 2009, 44 (10) : 2027 - 2036
  • [8] Using coupled energy, airflow and indoor air quality software (TRNSYS/CONTAM) to evaluate building ventilation strategies
    Dols, W. Stuart
    Emmerich, Steven J.
    Polidoro, Brian J.
    [J]. BUILDING SERVICES ENGINEERING RESEARCH & TECHNOLOGY, 2016, 37 (02) : 163 - 175
  • [9] EN-15251, 2007, EN15251
  • [10] Passive cooling design strategies as adaptation measures for lowering the indoor overheating risk in tropical climates
    Gamero-Salinas, Juan
    Monge-Barrio, Aurora
    Kishnani, Nirmal
    Lopez-Fidalgo, Jesus
    Sanchez-Ostiz, Ana
    [J]. ENERGY AND BUILDINGS, 2021, 252