Energy Pathways for Future Norwegian Residential Building Areas

被引:2
|
作者
Nord, Natasa [1 ]
Ding, Yiyu [1 ]
Skrautvol, Ola [2 ]
Eliassen, Stian Fossmo [3 ]
机构
[1] Norwegian Univ Sci & Technol, Dept Energy & Proc Engn, N-7491 Trondeheim, Norway
[2] Erichsen & Horgen AS, N-0484 Oslo, Norway
[3] Norconsult AS, N-8003 Bodo, Norway
关键词
energy planning; building stock; residential buildings; energy supply; building requirements;
D O I
10.3390/en14040934
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
Owing to stricter building energy requirements, future buildings will be characterized by low base loads and occasional high peaks. However, future building areas will still contain existing and historical buildings with high energy demand. Meanwhile, there is a requirement that future building areas should obtain energy from renewable energy sources, while existing buildings need to be transited to renewables. Therefore, the aim of this study was to develop an approach for modelling energy pathways for future Norwegian residential building areas by analyzing different energy supply systems. Several calculation methods were combined: building simulation, energy supply technology simulation, heat demand aggregation, and data post-processing. The results showed that the energy pathways would be very dependent on CO2-factors for energy sources, and it is hard to predict accurate CO2-factors. An increasing housing stock development would slightly increase the CO2 emissions towards 2050, although the new buildings used much less energy and the existing buildings underwent renovation. A constant housing stock would yield a 22-27% reduction of CO2 emissions by 2050. This showed that implementing stricter building codes had a lower impact on the total CO2 emissions than CO2-factors and energy technologies. The focus should lie on energy supply systems.
引用
收藏
页数:19
相关论文
共 50 条
  • [1] Energy Pathways for Future Residential Building Areas in Norway
    Nord, Natasa
    Skrautvol, Ola
    Eliassen, Stian Fossmo
    Tereshchenko, Tymofii
    COLD CLIMATE HVAC 2018: SUSTAINABLE BUILDINGS IN COLD CLIMATES, 2019, : 505 - 517
  • [2] Overheating risk of a typical Norwegian residential building retrofitted to higher energy standards under future climate conditions
    Tian, Zhiyong
    Hrynyszyn, Bozena Dorota
    12TH NORDIC SYMPOSIUM ON BUILDING PHYSICS (NSB 2020), 2020, 172
  • [3] Optimal decarbonization pathways for urban residential building energy services
    Leibowicz, Benjamin D.
    Lanham, Christopher M.
    Brozynski, Max T.
    Vazquez-Canteli, Jose R.
    Castejon, Nicolas Castillo
    Nagy, Zoltan
    APPLIED ENERGY, 2018, 230 : 1311 - 1325
  • [4] Estimation and Prediction of Residential Building Energy Consumption in Rural Areas of Chongqing
    Hossain, M. U.
    Meng, L.
    Farzana, S.
    Thengolose, A. L.
    INTERNATIONAL JOURNAL OF ENGINEERING, 2013, 26 (09): : 955 - 962
  • [5] Evaluation on Overheating Risk of a Typical Norwegian Residential Building under Future Extreme Weather Conditions
    Tian, Zhiyong
    Zhang, Shicong
    Deng, Jie
    Hrynyszyn, Bozena Dorota
    ENERGIES, 2020, 13 (03)
  • [6] Building Pathways to the Future
    Kolvitz, Marcia
    JOURNAL OF DEAF STUDIES AND DEAF EDUCATION, 2017, 22 (03): : 348 - 348
  • [7] A District Approach to Building Renovation for the Integral Energy Redevelopment of Existing Residential Areas
    Conci, Mira
    Schneider, Jens
    SUSTAINABILITY, 2017, 9 (05):
  • [8] Energy performance criteria for residential buildings: A comparison of Finnish, Norwegian, Swedish, and Russian building codes
    Allard, Ingrid
    Nair, Gireesh
    Olofsson, Thomas
    ENERGY AND BUILDINGS, 2021, 250
  • [9] Simulation on building energy consumption for a residential building
    Liu, Zeqin
    Zuo, Zhenjun
    Li, Lin
    POWER AND ENERGY SYSTEMS III, 2014, 492 : 143 - 146
  • [10] Exploring Product Modularity in Residential Building Areas
    Eriksson, Henrik
    Sandberg, Marcus
    Jansson, Gustav
    Lessing, Jerker
    BUILDINGS, 2021, 11 (07)