KimJTYuCWF. Sustainable development and requirements for energy efficiency in buildings – the Korean perspectives. Indoor Built Environ2018; 27(6): 734–751.
2.
LiXYuCWF. China’s building energy efficiency targets: challenges or opportunities?Indoor Built Environ2012; 21(5): 609–613.
ChristopherSVikramMPBakliCThakurAKMaYMaZXuHCucePMCuceESinghP. Renewable energy potential towards attainment of net-zero energy buildings status-a critical review. J Clean Prod2023; 405: 136942.
5.
Un Environment Programme. 2020 Global status report for buildings and construction: towards a zero-emissions, efficient and resilient buildings and construction sector - executive summary. https://wedocs.unep.org/20.500.11822/34572 (accessed 15 December 2020)
6.
KimHJangHTaeSKimJ. Program for propriety analysis of global warming potential caused by the operational energy consumption of buildings in Korea. Indoor Built Environ2022; 32(4): 815–824.
7.
LiuJBaoLYeBWangJ. Low-carbon progressive design for sustainable development of buildings. Indoor Built Environ2023; 32(8): 1638–1656.
8.
AnyaokuCCBaroutianS. Decentralized anaerobic digestion systems for increased utilization of biogas from municipal solid waste. Renew Sust Energ Rev2018; 90: 982–991.
9.
HossainMF. Green science: independent building technology to mitigate energy, environment, and climate change. Renew Sust Energ Rev2017; 73: 695–705.
10.
LiuWHHashimHLimJSHoCSKlemesJJZamhuriMIHoWS. Techno-economic assessment of different cooling systems for office buildings in tropical large city considering on-site biogas utilization. J Clean Prod2018; 184: 774–787.
11.
CastleyJAzimovUCombrinckMXingL. Modeling and optimization of combined cooling, heating and power systems with integrated biogas upgrading. Appl Therm Eng2022; 210: 118329.
SurendraKCTakaraDHashimotoAGKhanalSK. Biogas as a sustainable energy source for developing countries: opportunities and challenges. Renew Sust Energ Rev2014; 31: 846–859.
14.
BarişYIHoskinsJASeyfikliZDemirA. “Biomass lung”: primitive biomass combustion and lung disease. Indoor Built Environ2002; 11(6): 351–358.
15.
BaiLLiuXLiCYuCW. The urgency and challenge of improving indoor environment quality in rural regions of China. Indoor Built Environ2022; 32(6): 1053–1056.
16.
ZhangJMauzerallDLZhuTLiangSEzzatiMRemaisJV. Environmental health in China: progress towards clean air and safe water. Lancet2010; 375(9720): 1110–1119.
17.
KatuwalHBoharaAK. Biogas: a promising renewable technology and its impact on rural households in Nepal. Renew Sust Energ Rev2009; 13(9): 2668–2674.
18.
ZhengYHLiZFFengSFLucasMWuGLLiYLiCHJiangGM. Biomass energy utilization in rural areas may contribute to alleviating energy crisis and global warming: a case study in a typical agro-village of Shandong, China. Renew Sust Energ Rev2010; 14(9): 3132–3139.
19.
ShaiburMRHusainHArponSH. Utilization of cow dung residues of biogas plant for sustainable development of a rural community. Curr Res Environ Sust2021; 3: 100026.
20.
HouJZhangWWangPDouZGaoLStylesD. Greenhouse gas mitigation of rural household biogas systems in China: a life cycle assessment. Energies2017; 10(2): 239.
21.
ZengJXuRSunRNiuLLiuYZhouYZengWYueZ. Evaluation of methane emission flux from a typical biogas fermentation ecosystem in China. J Clean Prod2020; 257: 120441.
WuMZhangG-WAnZ-YLiuX-P. Modelling of hazardous chemical gas building ingress and consequence analysis during a leak accident. Indoor Built Environ2022; 32(4): 783–796.
24.
OesterhelwegLPüschelK. “Death may come on like a stroke of lightening...” phenomenological and morphological aspects of fatalities caused by manure gas. Int J Legal Med2008; 122: 101–107.
