Understanding the influencing factors and evolving trends of the Yellow River Water-Sediment Regulation System from a system perspective

Abstract

Understanding the influencing factors and the evolving trends of the Water-Sediment Regulation System (WSRS) is vital for the protection and management of the Yellow River. Past studies on WSRS have been limited in focus and have not fully addressed the complete engineering control system of the basin. This study takes a holistic view, treating sediment management in the Yellow River as a dynamic and ever-evolving complex system. It merges concepts from system science, information theory, and dissipative structure with practical efforts in sediment engineering control. The key findings of this study are as follows: between 1990 and 2019, the average Yellow River Sediment Regulation Index (YSRI) was 55.99, with the lowest being 50.26 in 1990 and the highest being 61.48 in 2019; the result indicates that the WSRS activity decreased, yet it fluctuated, gradually approaching the critical threshold of a dissipative structure.

Graphical abstract

Keywords

Yellow River / Water-Sediment Regulation System / Yellow River Sediment Regulation Index / system perspective / sustainable management.

References

[1] Bai T, Yu J, Jin W, Wan J, Gou S, Ma X, Ma P, (2023). Multi-objective and multi-scheme research on water and sediment regulation potential of reservoirs in the upper Yellow River. International Journal of Sediment Research, 38( 2): 203–215

[2] Bi N, Sun Z, Wang H, Wu X, Fan Y, Xu C, Yang Z, (2019). Response of channel scouring and deposition to the regulation of large reservoirs: a case study of the lower reaches of the Yellow River (huanghe). Journal of Hydrology, 568: 972–984

[3] Cai R, Zhang H, Zhang Y, Zhang L, (2022). Research on the dynamics of the uplift and transport characteristics of sediment in the Lower Yellow River Channel. Shuili Xeubao, 53( 10): 1218–1228, 1239 (in Chinese)

[4] Cao Z, Ma W, Zhang C, Tan P, (2023). Comprehensive evaluation and stability analysis of ecosystem quality of the Yellow River Basin during 1980–2019. River, 2( 2): 239–248

[5] Chen Z, Wang Z, Finlayson B, Chen J, Yin D, (2010). Implications of flow control by the Three Gorges Dam on sediment and channel dynamics of the middle Yangtze (Changjiang) River. China Geology, 38: 1043–1046

[6] ChengGWang G (2006). Changing trend of drought and drought disaster in northwest China and countermeasures. Earth Science Frontiers

[7] Cheng Y, Xia J, Zhou M, Deng S, (2020). Response of flood discharge capacity to the incoming flow and sediment regime and channel geometry in the braided reach of the Lower Yellow River. Shui Kexue Jinzhan, 31( 03): 337–347 (in Chinese)

[8] Chong X Y, Vericat D, Batalla R J, Teo F Y, Lee K S P, Gibbins C N, (2021). A review of the impacts of dams on the hydromorphology of tropical rivers. Science of the Total Environment, 794: 148686

[9] Colombera L, Mountney N P, Medici G, West L J, (2019). The geometry of fluvial channel bodies: Empirical characterization and implications for object-based models of the subsurface. AAPG Bulletin, 103( 4): 905–929

[10] Deng M, (2018). “Three Water Lines” strategy: Its spatial patterns and effects on water resources allocation in northwest China. Acta Geographica Sinica, 73( 7): 1189–1203

[11] Gu H, Yu Z, Li G, Luo J, Ju Q, Huang Y, Fu X, (2020). Entropy-based research on precipitation variability in the source region of China’s Yellow River. Water, 12( 9): 2486–2506

[12] Guo A, Chang J, Wang Y, Huang Q, Zhou S, (2018). Flood risk analysis for flood control and sediment transportation in sandy regions: A case study in the Loess Plateau, China. Journal of Hydrology, 560: 39–55

[13] Guo S, Sun D, Jiang E, Li P, (2015). Equilibrium sediment transport in lower Yellow River during later sediment-retaining period of Xiaolangdi Reservoir. Water Science and Engineering, 8( 1): 78–84 in Chinese)

[14] Habersack H, Hein T, Stanica A, Liska I, Mair R, Jäger E, Hauer C, Bradley C, (2016). Challenges of river basin management: Current status of, and prospects for, the River Danube from a river engineering perspective. Science of The Total Environment, 543( Part A): 828–845

[15] Habets F, Molénat J, Carluer N, Douez O, Leenhardt D, (2018). The cumulative impacts of small reservoirs on hydrology: A review. Science of the Total Environment, 643: 850–867 in Chinese)

[16] Hansford M R, Plink-Björklund P, Jones E R, (2020). Global quantitative analyses of river discharge variability and hydrograph shape with respect to climate types. Earth-Science Reviews, 200: 102977

[17] Hu C, (2016). Changes in runoff and sediment loads of the Yellow River and its management strategies. Shuili Fadian Xeubao, 35( 10): 1–11 (in Chinese)

[18] HuCChenJ ChenZ (2010). Discussion on the role of Guxian Reservoir in the improvement of Yellow River. China Water Resources

[19] Hu C, Zhang S, Zhang X, (2022). Research on water and sediment regulation of the Yellow River under new situation. Zhongguo Gongcheng Kexue, 24( 1): 122–130 in Chinese)

[20] Hu C, Zhang X, (2020). Loess Plateau soil erosion governance and runoff-sediment variation of the Yellow River. Water Resources and Hydropower Engineering, 51( 01): 1–11

[21] Hu C, Zhang X, Zhao Y, (2020). Cause analysis of the centennial trend and recent fluctuation of the Yellow River sediment load. Shui Kexue Jinzhan, 31( 05): 725–733 (in Chinese)

[22] Huang S, Ming B, Huang Q, Leng G, Hou B, (2017). A case study on a combination NDVI forecasting model based on the entropy weight method. Water Resources Management, 31( 11): 3667–3681

[23] Jia S, Liang Y, (2020). Suggestions for strategic allocation of the Yellow River water resources under the new situation. Ziyuan Kexue, 42( 1): 29–36 in Chinese)

[24] Jiang J, Li Y, (2020). Practice and reflection on the comprehensive management construction of small watersheds in the central and southern regions of Ningxia. Soil and Water Conservation in China, 240( 09): 84–86

[25] Kayitesi N M, Guzha A C, Mariethoz G, (2022). Impacts of land use land cover change and climate change on river hydro-morphology: A review of research studies in tropical regions. Journal of Hydrology, 615( Part A): 128702

[26] Kemper J T, Rathburn S L, Mueller E R, Wohl E, Scamardo J, (2023). Geomorphic response of low-gradient, meandering and braided alluvial river channels to increased sediment supply. Earth-Science Reviews, 241: 104429

[27] Li X, Wei X, Huang Q, (2012). Comprehensive entropy weight observability-controllability risk analysis and its application to water resource decision-making. Water S.A., 38( 4): 573–579

[28] Li X, Xia J, Li J, Zhang X, (2015). Variation in bankfull channel geometry in the LYR undergoing continuous aggradation and degradation. Journal of Sichuan University, 47( 01): 97–104

[29] Liu C, Walling D E, He Y, (2018a). Review: The international sediment initiative case studies of sediment problems in river basins and their management. International Journal of Sediment Research, 33( 2): 216–219

[30] Liu X, Gao Y, Ma S, Dong G, (2018b). Sediment reduction of warping dams and its timeliness in the Loess Plateau. Shuili Xeubao, 49: 145–155 (in Chinese)

[31] Ma Y, Huang H Q, Nanson G C, Li Y, Yao W, (2012). Channel adjustments in response to the operation of large dams: The upper reach of the Lower Yellow River. Geomorphology, 147–148: 35–48

[32] Mu X, Wang W, Gao P, Zhao G, (2014). Progress and discussion on sediment load variation research of the Yellow River. Yellow River, 36( 12): 1–7 (in Chinese)

[33] QianNWan Z (1991). Mechanics of Sediment movement. Beijing: Science Press

[34] QianNZhang RZhouZ (1987). Riverbed evolution. Beijing: Science Press

[35] QianX (2011). Selected Works on Systematic Thinking of Qian Xuesen, Beijing. Beijing: China Astronautic Publishing House

[36] Ran L, Lu X X, Xin Z, Yang X, (2013). Cumulative sediment trapping by reservoirs in large river basins: A case study of the Yellow River Basin. Global and Planetary Change, 100: 308–319

[37] Song T, Chiew Y M, (1997). Settling characteristics of sediments in moving bingham fluid. Journal of Hydraulic Engineering, 123( 9): 812–815

[38] Sun P, Wu Y, Yang Z, Sivakumar B, Qiu L, Liu S, Cai Y, (2019). Can the grain-for-green program really ensure a low sediment load on the Chinese Loess Plateau?. Engineering, 5( 5): 855–864

[39] Tao G, Zhou Z, (2016). Review of national reservoir sediment control. Jilin Water Resources, 404( 01): 36–38 (in Chinese)

[40] Vázquez-Tarrío D, Piégay H, Menéndez-Duarte R, (2020). Textural signatures of sediment supply in gravel-bed rivers: Revisiting the armour ratio. Earth-Science Reviews, 207: 103211

[41] Vercruysse K, Grabowski R C, Rickson R J, (2017). Suspended sediment transport dynamics in rivers: Multi-scale drivers of temporal variation. Earth-Science Reviews, 166: 38–52

[42] Wang G, Zhang C, Liu J, Wei J, Xue H, Li T, (2006). Analyses on the variation of vegetation coverage and water sediment reduction in the rich and coarse sediment area of the Yellow River Basin. Journal of Sedimentary Research, 02: 10–16

[43] Wang G, Zhong D, Wu B, (2020). Future trend of Yellow River sediment changes. China Water Resources, ( 1): 9–12+32 (in Chinese)

[44] Wang H, Wu X, Bi N, Li S, Yuan P, Wang A, Syvitski J P M, Saito Y, Yang Z, Liu S, Nittrouer J, (2017). Impacts of the dam-orientated water-sediment regulation scheme on the lower reaches and delta of the Yellow River (Huanghe): A review. Global and Planetary Change, 157: 93–113

[45] Wang W, Jiao J, Wei Y, (2019). Relationship between sediment and rainfall and sediment variation in the main sediment yield area of the Yellow River. Journal of Sedimentary Research, 44( 02): 41–47

[46] Wang Y, An C Li H, Wan Z, (2013). Research on the key problems of the Yellow River water and sediment regulation and control system. Yellow River, 35( 10): 23–25+32 (in Chinese)

[47] Wang Y, Yang Y, (2005). South-to-North Water Transfer Project of China. Yangtze River, ( 7): 2–5+71 (in Chinese)

[48] Wasson R, Acharjee S, Rakshit R, (2022). Towards identification of sediment sources, and processes of sediment production, in the Yarlung-Tsangpo-Brahmaputra River catchment for reduction of fluvial sediment loads. Earth-Science Reviews, 226: 103932

[49] Xia J, Li X, Li T, Zhang X, Zong Q, (2014). Response of reach-scale bankfull channel geometry to the altered flow and sediment regime in the Lower Yellow River. Geomorphology, 213: 255–265

[50] Xia X, Dong J, Wang M, Xie H, Xia N, Li H, Zhang X, Mou X, Wen J, Bao Y, (2016). Effect of water-sediment regulation of the Xiaolangdi Reservoir on the concentrations, characteristics, and fluxes of suspended sediment and organic carbon in the yellow river. Science of the Total Environment, 571: 487–497

[51] Xiao P, Lv X, Zhang P, (2020). Research progress and effect of soil and water conservation of the Yellow River Basin. Soil and Water Conservation in China, ( 10): 6–9+82 (in Chinese)

[52] Xu X, Liu P, Ju T, Shi X, Yu M, (2012). Effects of soil and water loss control on reducing runoff and sediment transport in Yan’gou watershed of Loess Hilly region. Nongye Gongcheng Xuebao (Beijing), 28( 3): 113–117 (in Chinese)

[53] ZhangC (2023). The Yellow River: History, Present, Future. Beijing: Science Press

[54] Zhang H, Hou L, Li L, (2021a). Great achievements in sediment reduction and water demand of sediment transport in the feature of the Yellow River management. China Water Resources, 927( 21): 17–20

[55] Zhang J, (2022a). Research progress of design and operation of “storing clean water and regulating muddy flow” of reservoirs in sediment-laden river. Yellow River, 44( 09): 24–29 (in Chinese)

[56] Zhang J, (2022b). Study on integrated managements mode of small watersheds + based on the new warping dams on the Loess Plateau. Yellow River, 44( 06): 1–5+43 (in Chinese)

[57] Zhang J, Cao Z, Jin X, Li C, (2021d). Research on comprehensive evaluation of the development quality of the Yellow River Basin. Shuili Xeubao, 52( 8): 917–926 (in Chinese)

[58] Zhang J, Chen K, Zhang C, Guo P, (2021c). The change characteristics of eco-environment in the Yellow River Basin based on entropy weights. Zhongguo Huanjing Kexue, 41: 3767–3774 (in Chinese)

[59] Zhang J, Jin X, Yan D, Cui C, (2021e). Study on the evolution characteristics of social development system in the Yellow River Basin under the framework of happiness river. Yellow River, 43( 04): 1–5+23 (in Chinese)

[60] Zhang Y, Cao Z, Wang W, Jin X, (2021b). Using systems thinking to study the coordination of the water–sediment–electricity coupling system: A case study on the Yellow River. Scientific Reports, 11( 1): 21974–21987

[61] Zhang Z, Wang S, Sun G, Xie Y, (2006). Runoff and sediment yield response to vegetation change at multiple scales: A review. Acta Ecologica Sinica, 26( 07): 2356–2364

[62] Zheng M, Liang C, Liao Y, Huang B, Yuan Z, (2021). Estimation of sediment reduction benefit by soil and water conservation under extreme rainfall in a loess watershed. Nongye Gongcheng Xuebao, 37( 5): 147–156 (in Chinese)

[63] Zhu J, Zhou L, Zhai Z, Wang C, (2016). Financing model decision of inter-basin water transfer projects. Frontiers of Engineering Management, 3( 4): 396–403

[64] Zhu M, He W, Zhang Q, Xiong Y, Tan S, He H, (2019). Spatial and temporal characteristics of soil conservation service in the area of the upper and middle of the Yellow River, China. Heliyon, 5( 12): 2985

Competing Interests

The authors declare that they have no competing interests.

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