Regional water resource carrying capacity evaluation based on multi-dimensional precondition cloud and risk matrix coupling model

Assessment of Water Resources Carrying Risk and the Coping Behaviors of the Government and the Public

“…Baybutt believed that in risk management, many scholars use a risk matrix to rate the risk of dangerous scenarios to determine the necessity of risk reduction [ 28 ]. An evaluation risk matrix of water resource carrying capacity has been put forward by Jin, in which the pressure, supporting force, and regulating force are regarded as the risk factors affecting water resources carrying capacity [ 29 ].…”

“…Due to the different evaluation areas and the change of evaluation criteria, we can fully consider the role of disaster bearing and the control of water resources to reasonably select the synthesis rules of the three risk matrices to obtain the vulnerability evaluation level of disaster-bearing subjects. In this paper, the synthesis rules of the risk matrix are determined comprehensively with reference to [ 29 ].…”

Study on water resources and water environment in urban agglomeration

“…Although there are rivers such as the Haihe River and Luanhe River in the area, with the acceleration of urbanization, the population density continues to increase, the secondary and tertiary industries are developing rapidly, and social production The increasin demand for water resources in life has caused serious shortage of water resources in the Beijing-Tianjin-Hebei region [9] . In 2016, the regional water resources in the Beijing-Tianjin-Hebei region were 262*108m 3 , and the per capita water resources were 234.09 m 3 per person, accounting for only 9.94% of the national per capita water resources, while the total regional water consumption was 248.6*108 m 3 , a severe situation of serious overload of water resources utilization has been formed [10] . Solving the serious shortage of water resources has become a top priority for the development of the Beijing-Tianjin-Hebei region.…”

“…In the context of rapid urbanization and the development of urban agglomerations, the problem of water resources caused by strong human activities has become increasingly prominent, which has brought more severe challenges to the environmental protection of urban water resources and the security of water supply. In order to clarify the influencing factors of human activities on the evolution of water resources, scholars at home and abroad have conducted many studies, focusing on the response to human activities such as lake and runoff water quality and quantity changes, and the contribution of climate and human activities to the impact of water resources evolution [1][2][3] . With the deepening of research, the research on the factors affecting the evolution of water resources has formed a series of qualitative and quantitative methods, including the cumulative anomaly method, distributed hydrological model, system dynamics, principal component Analysis [4][5][6][7] .…”

Spatiotemporal variability of total cloud cover measured by visual observation stations and their comparison with ERA5 reanalysis over South Korea

“…Moreover, clouds can cause changes in meteorological factors, such as hours of sunshine, sunset air temperature, and relative humidity (Eerme, 2004;Zhou et al, 2020). Clouds affect the hydrological cycle and modulate the large-scale atmospheric circulation (Pavolonis and Key, 2003;Shouguo et al, 2004;Stephens, 2005;Wild et al, 2015;Kiran et al, 2015;Zhao et al, 2020;Wu et al, 2020). In one respect, clouds have cooling effects because of the improvement of greenhouse effects and modulating the radiation energy balance in the atmosphere (Essa and Etman, 2004;Liang and Xia, 2005).…”