FawzySOsmanAIDoranJRooneyDW. Strategies for mitigation of climate change: a review. Environ Chem Lett2020; 18: 2069–2094.
2.
FanWHuangSYuYXuYChengS.Decomposition and decoupling analysis of carbon footprint pressure in China's cities. J Cleaner Prod2022; 372: 133792.
3.
SunLFengN. Research on fiscal policies supporting green and low-carbon transition to promote energy conservation and emission reduction in cities: empirical evidence from China. J Cleaner Prod2023; 430: 139688.
4.
ZhangHYangQYuanHMaDLiuZJiaJWangGZhangNSuHShiYMaYDaiLLiBHuangX. Aircraft measurements of tropospheric CO2 in the North China plain in autumn and winter of 2018–2019. Atmosphere2023; 14: 1835.
5.
ZeebeREZachosJCCaldeiraKTyrrellT. Carbon emissions and acidification. Science2008; 321: 51–52.
6.
SmithPCalvinKNkemJCampbellDCherubiniFGrassiGKorotkovVLe HoangALwasaSMcElweePNkonyaESaigusaNSoussanaJ-FTaboadaMAManningFCNampanziraDArias-NavarroCVizzarriMHouseJRoeSCowieARounsevellMArnethA. Which practices co-deliver food security, climate change mitigation and adaptation, and combat land degradation and desertification?Glob Chang Biol2020; 26: 1532–1575.
7.
RavenPHWagnerDL. Agricultural intensification and climate change are rapidly decreasing insect biodiversity. Proceedings of the National Academy of Sciences2021; 118: e2002548117.
8.
DumanZMaoXCaiBZhangQChenYGaoYGuoZ. Exploring the spatiotemporal pattern evolution of carbon emissions and air pollution in Chinese cities. J Environ Manage2023; 345: 118870.
9.
RenCYuCWCaoS-J. Development of urban air environmental control policies and measures. Indoor Built Environ2022; 32: 299–304.
10.
SukanenHTaylorJCastaño-RosaRPelsmakersSLehtinenTKaasalainenTapio. Passive mitigation of overheating in Finnish apartments under current and future climates. Indoor Built Environ2023; 32: 1372–1392.
LiuJBaoLYeBWangJ. Low-carbon progressive design for sustainable development of buildings. Indoor Built Environ2023; 32: 1638–1656.
13.
FuXChengJPengLZhouMTongDMauzerallDL. Co-benefits of transport demand reductions from compact urban development in Chinese cities. Nat Sustainability2024; 7: 294–304.
14.
ZhangRYingJZhangRZhangY. Urban green and blue infrastructure: unveiling the spatiotemporal impact on carbon emissions in China’s Yangtze River Delta. Environ Sci Pollut Res2024; 31: 18512–18526.
15.
ZhouHQiFLiuCXiaoG. Predicting combined carbon emissions in urban regions considering micro-level enterprise electricity consumption data and macro-level regional data. Front Energy Res2024; 12: 1343318.
16.
ChengJMaoCHuangZHongJLiuG. Implementation strategies for sustainable renewal at the neighborhood level with the goal of reducing carbon emission. Sustainable Cities Soc2022; 85: 104047.
17.
ZhengYLiWJiangLYuanCXiaoTWangRCaiMHongH. Spatial modelling of street-level carbon emissions with multi-source open data: a case study of Guangzhou. Urban Clim2024; 55: 101974.
18.
CaiMShiYRenCYoshidaTYamagataYDingCZhouN. The need for urban form data in spatial modeling of urban carbon emissions in China: a critical review. J Cleaner Prod2021; 319: 128792.
19.
RazmjooAGakenia KaiguthaLVaziri RadMAMarzbandMDavarpanahADenaiM. A technical analysis investigating energy sustainability utilizing reliable renewable energy sources to reduce CO2 emissions in a high potential area. Renewable Energy2021; 164: 46–57.
20.
GaoPYueSChenH. Carbon emission efficiency of China’s industry sectors: from the perspective of embodied carbon emissions. J Cleaner Prod2021; 283: 124655.
21.
CaoJHoMSMaRTengF. When carbon emission trading meets a regulated industry: evidence from the electricity sector of China. Journal of Public Economics2021; 200: 104470.
22.
ZhaiZCaoJLiMShiJ. Responses of air-conditioning loads to climate change and its impact on carbon emissions in the hot summer and warm winter climate. Indoor Built Environ2024; 33: 1299–1309.
23.
LiJShiJLiangBYuCWCaoS-J. Solid waste resource utilization for sustainable built environment: opportunities and challenges. Indoor Built Environ2024: 1420326X241291300. doi:https://doi.org/10.1177/1420326X241291300
CaiBLiangSZhouJWangJCaoLQuSXuMYangZ. China High resolution emission database (CHRED) with point emission sources, gridded emission data, and supplementary socioeconomic data. Resour Conserv Recycl2018; 129: 232–239.
26.
HuKFengXZhangQShaoPLiuZXuYWangSWangYWangHDiLXiaM. Review of satellite remote sensing of carbon dioxide inversion and assimilation. Remote Sens2024; 16: 3394.
27.
McNortonJAgustí-PanaredaAArduiniGAgustí-PanaredaABalsamoGBousserezNBoussettaSChericoniMChoulgaMEngelenRGuevaraM. An urban scheme for the ECMWF integrated forecasting system: global forecasts and residential CO2 emissions. J Adv Model Earth Syst2023; 15: e2022MS003286.
28.
BrunnerDKuhlmannGHenneSKoeneEKernBWolffSVoigtCJöckelPKiemleCRoigerAFiehnAKrautwurstSGerilowskiKBovensmannHBorchardtJGalkowskiMGerbigCMarshallJKloneckiAPrunetPHanflandRPattantyús-ÁbrahámMWyszogrodzkiAFixA. Evaluation of simulated CO2 power plant plumes from six high-resolution atmospheric transport models. Atmos Chem Phys2023; 23: 2699–2728.
29.
GaoPZhuCZhangYChenB. An approach for analyzing urban carbon emissions using machine learning models. Indoor Built Environ2023; 32: 1657–1667.
30.
Von EschenbachWJ. Transparency and the black box problem: why we do not trust AI. Philosophy & Technology2021; 34: 1607–1622. doi:https://doi.org/10.1007/s13347-021-00477-0