Warm season cooling requirements for passive buildings in Southeastern Europe (Romania)

被引:66
|
作者
Badescu, Viorel [1 ,2 ]
Laaser, Nadine [3 ]
Crutescu, Ruxandra [4 ]
机构
[1] Univ Politehn Bucuresti, Candida Oancea Inst, Bucharest 060042, Romania
[2] Univ Politehn Bucuresti, Dept Appl Thermodynam, Bucharest 060042, Romania
[3] Tech Univ Berlin, D-10623 Berlin, Germany
[4] Passivhaus Inst SRL, Bragadiru 077025, Ilfov, Romania
关键词
Passive building; Passive house standard; Eastern Europe; Renewable energy sources; ENERGY-CONSUMPTION; RENEWABLE ENERGY; MODEL; HOUSE;
D O I
10.1016/j.energy.2010.04.013
中图分类号
O414.1 [热力学];
学科分类号
摘要
The first Romanian passive office building has been constructed by the AMVIC Company in Bragadiru, 10 km south of Bucharest. The overheating rate and the cooling load are higher for a passive building than for a standard building. The internal heat sources and the maximum allowed indoor temperature do markedly affect the cooling load. A time-dependent model shows that cooling is necessary during April-September. The ground heat exchanger is an effective system for cooling-down the fresh air inlet temperature. Also, the Venetian blinds prove to be efficient in diminishing the building heat input. However, these two systems are not able to ensure a controlled thermal comfort during summer. This suggests that an active cooling system should be used when passive buildings are implemented in the Romanian climate. The standard configuration of the passive buildings ventilation system (which is usually designed for heating purposes), must be changed in case cooling becomes necessary during the warm season. The results are of interest for other countries in Southeastern Europe. (C) 2010 Elsevier Ltd. All rights reserved.
引用
收藏
页码:3284 / 3300
页数:17
相关论文
共 50 条
  • [41] Recycled Aluminum Paraffin Composite for Passive Cooling Application in Buildings
    Thalmaier, Gyorgy
    Cobirzan, Nicoleta
    Fechete-Tutunaru, Lucian V.
    Balan, Mugur Ciprian
    MATERIALS, 2025, 18 (04)
  • [42] Cooling load, reduction of buildings using passive roof options
    Raeissi, S
    Taheri, M
    RENEWABLE ENERGY, 1996, 7 (03) : 301 - 313
  • [43] Advances in adaptive comfort modelling and passive/hybrid cooling of buildings
    Chiesa, Giacomo
    Grosso, Mario
    Pearlmutter, David
    Ray, Steve
    ENERGY AND BUILDINGS, 2017, 148 : 211 - 217
  • [44] Insulation Materials Selection for Passive Evaporative Cooling Roof in Buildings
    Yang, Wansheng
    Guo, Kaihua
    ADVANCES IN BUILDING MATERIALS, PTS 1-3, 2011, 168-170 : 2558 - 2564
  • [45] Modeling of water spray evaporation: Application to passive cooling of buildings
    Belarbi, Rafik
    Ghiaus, Cristian
    Allard, Francis
    SOLAR ENERGY, 2006, 80 (12) : 1540 - 1552
  • [46] Potential passive cooling methods based on radiation controls in buildings
    Chan, Yin Hoi
    Zhang, Yi
    Tennakoon, Thilhara
    Fu, Sau Chung
    Chan, Ka Chung
    Tso, Chi Yan
    Yu, Kin Man
    Wan, Man Pun
    Huang, Bao Ling
    Yao, Shuhuai
    Qiu, Hui He
    Chao, Christopher Yu Hang
    ENERGY CONVERSION AND MANAGEMENT, 2022, 272
  • [47] Developments on passive cooling in buildings - Results from recent research
    Santamouris, M
    Argiriou, AA
    Balaras, CA
    ASHRAE TRANSACTIONS 1997, VOL 103, PT I, 1997, 103 : 983 - 992
  • [48] Cooling load reduction of buildings using passive roof options
    Shiraz Univ, Shiraz, Iran
    Renewable Energ, 3 (301-313):
  • [49] Performance of different passive techniques for cooling of buildings in arid regions
    Nahar, NM
    Sharma, P
    Purohit, MM
    BUILDING AND ENVIRONMENT, 2003, 38 (01) : 109 - 116
  • [50] Cost-efficient cooling of buildings by means of geothermal borefields with active and passive cooling
    Coninx, Matthijs
    De Nies, Jarne
    Hermans, Louis
    Peere, Wouter
    Boydens, Wim
    Helsen, Lieve
    APPLIED ENERGY, 2024, 355