Fact-checked by Grok 2 weeks ago

Yellow River

The Yellow River (Huang He) is China's second-longest river and the world's sixth-longest river system, extending approximately 5,464 kilometers from its source in the on the Qinghai-Tibet Plateau in province, eastward through nine provinces and two autonomous regions, before emptying into the in province. Its course features a dramatic loop around the , traversing diverse terrains including high plateaus, loess plains, and alluvial deltas, with an average discharge of about 2,571 cubic meters per second at its mouth. Renowned for its immense sediment load—historically up to 1.6 billion tons annually, over 90% derived from erosion in the middle reaches' —the river's waters acquire a characteristic yellow tint from suspended loess particles, earning it the moniker "China's Sorrow" due to recurrent, devastating floods that have altered its channel over 1,500 times in recorded history, causing millions of deaths and reshaping landscapes. Despite these hazards, the Yellow River basin supports over 120 million people, irrigates vast farmlands, and has been integral to feats like the and Xiaolangdi Dams, which aim to control flooding and siltation through sediment flushing and storage. As the cradle of Chinese for more than 4,000 years, the river fostered early agricultural societies in its fertile lower reaches, enabling the development of ancient dynasties through dikes and systems, though its volatility has driven innovations in construction and, in modern times, large-scale water diversion projects amid ongoing challenges from upstream , , and climate variability.

Nomenclature

Etymology

The name Huang He (黃河), translating to "Yellow River," derives directly from the river's turbid, yellow appearance caused by vast quantities of fine loess sediments suspended in its flow, a phenomenon absent in clearer rivers like the . This linguistic designation emphasizes the river's empirical distinctiveness, rooted in geological erosion rather than arbitrary convention. The earliest recorded use of the term appears in the , a historical text compiled by Ban Gu during the Eastern (25–220 CE), which references the river's yellow in describing its course and characteristics. Over time, the name has evoked the river's paradoxical symbolism as both a nurturing force and a peril, evolving from ancient epithets tied to its flood-prone —earning the moniker "China's Sorrow" for documented inundations that displaced millions—to "Mother River" for its foundational role in irrigating settlements and early dynasties. historiography, including accounts in texts like the Shui Jing Zhu, underscores this duality through records of the river's sediment-laden benevolence in fertility versus its erosive destructiveness. Sedimentological analyses corroborate the etymological basis, showing that roughly 90% of the Yellow River's load originates from wind-deposited on the Plateau, with particle sizes fine enough (often under 0.02 mm) to impart a persistent yellow tint via light scattering.

Alternative Names

The Yellow River, known in Mandarin as Huáng Hé (黄河), has been transliterated in English as Hwang Ho under the Wade-Giles romanization system prevalent until the mid-20th century. This variant appeared in historical Western maps, treaties, and geographical accounts, reflecting phonetic adaptations from missionary and diplomatic records during the . In , the river's upper reaches in Province are designated Ma chu (རྨ་ཆུ), translating to "River of the Peacock," a name derived from local linguistic traditions associating the clear upstream waters with the bird's iridescent plumage before sediment discoloration downstream. Similarly, in Mongolian nomenclature for analogous or upper sections, it is termed Šar mörön (Шар мөрөн), meaning "Yellow River," emphasizing the hue from loess-laden flows observed in Inner Mongolian tributaries like the Xar Moron. Western observers, particularly in 19th- and early 20th-century literature, dubbed it "China's Sorrow" owing to recurrent floods that caused massive loss of life, exemplified by the 1887 breach which inundated and provinces, displacing millions and killing an estimated 900,000 to 2 million people according to contemporary reports. This , also extended as "the Ungovernable," underscored the river's causal role in historical catastrophes through high loads leading to channel shifts, rather than anthropomorphic or unsubstantiated attributions. An alternative Chinese designation is Zhuó Hé (浊河), or "Muddy River," highlighting the turbid waters from silt suspension, a practical descriptor in classical texts predating the color-based Huáng Hé. These names persist in specific cultural, literary, and archival usages, grounded in empirical observations of the river's and , without evidence of widespread modern supplantation.

Physical Geography

Course and Reaches

The Yellow River originates in the Yueguzonglie Basin of the in Province, at an elevation of about 4,500 meters above sea level. It flows eastward through the provinces and regions of , , , , , , , and , covering a total length of 5,464 kilometers before discharging into the . The river's path is divided into three principal topographic reaches: upper, middle, and lower, delineated by key landmarks such as Hekou Town in and Taohuayu in Province. The upper reaches extend from the source across the to the onset of the , spanning mountainous and high-elevation terrain with a length of approximately 3,400 kilometers. In this segment, the river descends from elevations exceeding 4,000 meters, carving through rugged landscapes before entering narrower valleys. The middle reaches traverse the , characterized by deep gullies, winding channels, and extensive meanders that increase the path's , covering about 1,200 kilometers. reveals pronounced looping patterns in this area, where the river erodes and deposits sediment along unstable soils. The lower reaches flow across the flat alluvial for roughly 700 kilometers, widening into braided channels prone to shifts, with minimal gradient leading to the deltaic mouth. Over the past 2,500 years, the Yellow River has experienced 26 major course changes, mainly in the lower reaches, as evidenced by historical records and corroborated by geomorphic . These avulsions, often triggered by natural buildup and , have altered the river's outlet position multiple times, with modern GPS and data enabling precise tracking of evolution and migrations.

Geology

The Yellow River's is inextricably linked to the uplift of the , which initiated and drainage capture of endorheic basins, establishing the river's upper course as an eastward-flowing system by the Eocene epoch. Subsequent tectonic phases, particularly during the to early , shaped the river's pronounced square bend around the Ordos Block through progressive incision and base-level adjustments driven by ongoing plateau elevation. This tectonic framework, combined with differential uplift rates exceeding 0.1 mm/year in the northeastern , facilitated the river's entrenchment into resistant bedrock, forming deep gorges such as those in the upper reaches. In its middle reaches, the river dissects the , a product of aeolian deposition from expanded Asian interior deserts amid regional , with layers accumulating to thicknesses of 50–250 meters primarily during periods. These unconsolidated silt-dominated , sourced from deflated materials, are highly erodible, yielding the river's signature high sediment flux—historically averaging 1.6 billion metric tons annually, over 90% derived from erosion via hyperconcentrated flows during summer monsoons. Stratigraphic records from -palaeosol sequences and basin cores confirm dominance, with sediment pulses correlating to orbital-scale shifts that enhanced and fluvial incision rates of up to 1–2 mm/year. Tectonic seismicity along active faults in the plateau and Ordos margins has further modulated the river's geomorphology, triggering mass wasting and localized subsidence that exacerbate channel aggradation and avulsions, as evidenced by fault-propagated deformations influencing Quaternary terrace formations. Core samples from the upper basin reveal gravelly to silty Quaternary fills incised by 100–400 meters into loess, linking depositional hiatuses to intensified erosion phases tied to plateau uplift and monsoon-driven aridification cycles since approximately 2.6 million years ago.

Tributaries

The Yellow River receives inflows from numerous tributaries, with the majority of volume and sediment contributions occurring in the middle reaches due to the plateau's erosion-prone terrain. Upper reach tributaries, such as the Huangshui and Xihai rivers, originate in the Qinghai-Tibetan Plateau's mountainous areas, adding relatively clear water with minimal sediment load; their combined s cover about 23,000 km², representing only 3% of the total Yellow River . In contrast, middle reach tributaries drain the regions, amplifying flood peaks and , with gauging data from stations like Toudaoguai indicating seasonal inputs that peak during summer monsoons. The , the largest tributary, joins the Yellow River at Tongguan after flowing 818 km through a of 135,000 km², contributing approximately 19.7% of the mainstem's total annual runoff based on long-term hydrological records. The Fen River, entering near Hejin after 694 km and a 39,417 km² , adds about 3.6% of the but carries substantial loess-derived , exacerbating downstream as measured at pre-2000 gauging stations. Other notable middle tributaries include the Luo (length 680 km, ~15,970 km²) and Qin rivers, which together with the Wei and Fen account for over 90% of the Yellow River's influx from the middle , per erosion-focused hydrological analyses. Lower reach inflows, such as the Dawen River, are minor, with negligible contributions to overall volume or due to the alluvial plain's limited drainage.
TributaryLength (km)Basin Area (km²)Approx. Discharge Contribution (%)
818135,00019.7
Fen69439,4173.6
Luo68015,970<2 (combined with others)
Hydrological data from Yellow River yearbooks show that these middle tributaries' seasonal discharges, peaking at 70-80% of annual totals in July-September, significantly amplify mainstem stages, with concentrations often exceeding 20 kg/m³ during events.

Hydrology

Discharge and Sediment Load

The Yellow River exhibits an average discharge of approximately 2,030 cubic meters per second at its mouth into the , derived from long-term gauging station data spanning multiple decades, though this value masks substantial interannual variability influenced by precipitation patterns and upstream abstractions. This discharge rate positions the river as relatively modest compared to other major Asian systems, with annual runoff totals historically around 58 billion cubic meters, concentrated primarily during summer monsoons. The river's defining hydrological feature is its extreme sediment load, which historically averaged 1.6 billion metric tons per year entering the lower reaches and , accounting for over 90% of the total material transport from the . This load arises predominantly in the middle basin, where the river traverses erodible deposits; average suspended sediment concentrations there reached 35–43 kilograms per cubic meter in flood periods from the mid-20th century, with extreme hyperconcentrated flows recording peaks above 900 kg/m³. The material—fine particles with low and high —lends itself to easy detachment and suspension under rainfall, enabling the river to function as a primary transporter of continental products to the sea. Causal factors amplifying this sediment yield include anthropogenic land-use changes on the , where since the 10th century and subsequent reduced vegetative stabilization, exposing soils to sheet and gully erosion rates exceeding 10,000 tons per square kilometer annually in untreated areas. These activities disrupted natural infiltration and interception, channeling runoff into high-velocity flows that entrain vast quantities of soluble , with erosion models attributing over 70% of historical sediment flux to such vegetation loss rather than climatic variability alone. In recent decades, basin-wide sediment delivery has declined to approximately 0.4 billion tons per year at the mouth, based on post-2000 gauging, reflecting aggregated shifts in erosion dynamics without isolating individual interventions.
PeriodAverage Sediment Load (billion metric tons/year)Key Gauge Reference
Pre-1950s (historical peak)1.6Middle basin stations
2000–2020 (recent)0.4Lijin station
This quantification underscores the river's "yellow" opacity, where volumes often exceed water mass by factors of 30–40 during high-flow events, driving depositional in downstream channels.

Seasonal and Climatic Variations

The discharge of the Yellow River displays marked seasonal fluctuations, with the flood season spanning to and contributing 50–60% of the annual runoff due to intense from the East Asian summer . Peak flows typically occur in and , when monsoon rains concentrate in the middle and lower basins, while winter months from to February exhibit minimal discharge, often reduced to base flows influenced by reduced and . Instrumental records from gauging stations such as and Huayuankou confirm these patterns, showing summer maxima exceeding winter minima by factors of 10 or more in unregulated sub-basins. Drought-flood cycles characterize the river's , with upper reaches prone to prolonged dry periods amid variable onset. Hydrological frequency in the upper Yellow River basin has historically averaged high, with analyses of 1961–2020 data indicating occurrences in roughly one-third of years, linked to deficient and early-season shortfalls. These cycles amplify flood risks during erratic advances, as evidenced by standardized runoff indices derived from observations. External forcings such as El Niño-Southern Oscillation (ENSO) modulate these variations, with El Niño phases correlating to enhanced erosivity and altered precipitation distribution, potentially intensifying summer floods through teleconnected atmospheric patterns. snowmelt contributes to transitional spring flows, buffering early-year lows but varying with winter accumulation. Recent modeling and observations from 2023–2025 highlight worsening ice jams in the lower reaches during thaw periods, attributed to climate warming that promotes unstable ice cover formation upstream and persistence downstream, increasing flood hazards via atmospheric teleconnections like the . Empirical trends post-dam construction, including the Xiaolangdi Reservoir operational since 2001, reveal dampened overall variability through regulated releases, yet heightened extremes in the lower reaches persist, driven by residual climatic forcings and uneven . extreme indices from 1956–2019 data show stabilized medians but amplified tails in the downstream segment, underscoring incomplete mitigation of monsoon-driven spikes.

History

Ancient Origins and Civilization

The Yellow River served as a primary locus for early settlements in northern , with archaeological evidence indicating human occupation and agricultural beginnings around 7000–5000 BCE during the Mid-Holocene Climatic Optimum, characterized by warmer and wetter conditions favorable to millet cultivation on soils. analyses from cores in the region reveal increases in herbaceous and cereal pollen concentrations starting around 5000–4000 BP (approximately 3000–2000 BCE), signaling intensified agricultural production and land clearance amid population expansion in the . These developments, associated with cultures like Yangshao (c. 5000–3000 BCE), relied on the river's seasonal flooding to deposit fertile across floodplains, which supported but also exposed communities to recurrent inundations that shaped adaptive settlement patterns near elevated terraces. By the Early , the valley's hydrology underpinned the emergence of complex societies, exemplified by the (c. 1900–1500 BCE) at sites in the Basin, where sediment profiles document floodplain formation that enhanced arable land productivity. This period aligns with the semi-legendary (c. 2070–1600 BCE), posited as the earliest dynastic entity in the Yellow River heartland, with Erlitou's urban features—including palace foundations and bronze workshops—suggesting centralized exploitation of riverine resources for elite sustenance and craft production. Geological evidence from slackwater flood deposits corroborates a massive Yellow River circa 1920 BCE, which may have disrupted prior settlements and catalyzed organizational responses, as inferred from the abrupt rise of Erlitou-scale polities amid post-flood alluvial renewal. The river's dual role—providing loess-derived fertility for dense populations through silt deposition while imposing flood risks—drove proto-engineering adaptations, such as precursors and recession-based planting on receding waters, evident in the transition to the (c. 1600–1046 BCE) with its records of river rituals and hydraulic oversight at sites like . Early Zhou (c. 1046–771 BCE) expansions further entrenched this pattern, with textual and archaeological traces linking dynastic legitimacy to flood mitigation in the central plains, though empirical data emphasize environmental causality over mythic attributions. These pre-unified dynamics highlight how the Yellow River's sediment load enabled societal complexity but necessitated causal responses to hydrological instability, distinguishing the valley as the empirical cradle for subsequent Chinese polities.

Imperial Era Developments

Following the unification under the Qin and early dynasties, imperial administrations implemented systematic flood control measures centered on construction and maintenance along the Yellow River's lower course. These efforts aimed to harness the river for and while mitigating its destructive floods, though the river's heavy load necessitated ongoing interventions. Historical records indicate over 1,500 breaches occurred between the and the end of imperial rule, underscoring the persistent challenges of managing a sediment-laden that frequently perched above surrounding floodplains. In the Western Han period (206 BCE–9 CE), officials developed initial levee and canal systems to direct flow and deposit silt, with eight documented breaches between 168 BCE and 8 CE reflecting the era's experimental approaches to containment rather than course relocation. Debates in dynastic texts contrasted to remove accumulated —advocated for short-term relief—with strategies to widen channels or redirect the river, as narrow levees exacerbated pressure from rising beds. The integration of the Yellow River into the Grand Canal network, expanded under the (581–618 CE) and (618–907 CE), facilitated grain transport from southern surpluses to northern capitals but introduced vulnerabilities, as canal alignments sometimes channeled floodwaters into populated areas. By the (960–1279 CE), flood frequency intensified, with 74 breaches in less than 200 years, prompting bureaucratic reforms to centralize conservancy under specialized agencies; however, this structure often fostered corruption, as local officials skimped on maintenance to divert funds. Subsequent Ming (1368–1644 CE) and Qing (1644–1912 CE) rulers invested heavily in reinforcements, employing labor for repairs, yet systemic graft and over-reliance on containment without addressing upstream perpetuated cycles of and rebuild. Empirical tallies from dynastic reveal that while temporary stabilizations reduced some incidents, the absence of comprehensive sediment management—due to technological limits and administrative inefficiencies—sustained the river's volatility through the imperial era's end in 1911.

Modern and Contemporary Era

During the Republican era (1912–1949), the Yellow River basin faced recurrent flooding exacerbated by political instability and inadequate infrastructure, culminating in the 1938 deliberate breaching of dikes at Huayuankou by Nationalist forces to impede Japanese military advances, which inundated 54,000 square kilometers, caused 500,000 to 900,000 deaths, and displaced nearly 12 million people, with floodwaters lingering until 1947. After the founding of the in 1949, Mao-era policies intensified human impacts on the watershed; the (1958–1962) promoted deforestation for backyard furnaces and expansion of cultivation into erosion-prone areas, accelerating soil loss and elevating sediment yields in the river's middle reaches. Annual at key gauging stations has decreased markedly since the late , with human withdrawals and diversions contributing over 90% to reductions from the to , compounded by subsequent impoundments, expanded , and heightened evapotranspiration from , resulting in overall runoff declines exceeding 70% in some sub-basins by the 2000s. Deng Xiaoping's post-1978 reforms shifted toward market mechanisms in resource governance, incorporating quotas, pricing incentives, and decentralized in the basin, which improved allocation efficiency and curbed overuse compared to centralized command-era practices. Contemporary efforts emphasize , including a 2023 drive across nine Yellow River provinces that planted or restored vegetation on 1.7 million hectares to mitigate erosion and stabilize slopes in the .

Flood Control and Management

Historical Strategies

In ancient , flood control on the Yellow River emphasized diversion and channeling over strict containment, as exemplified in legendary accounts of (c. 2200 BCE), who reportedly dredged waterways to guide floodwaters and promote deposition across rather than blocking the flow. This approach leveraged the river's heavy load—comprising up to 60% of flow volume—to build fertile land through controlled spreading, reducing channel in main stems. Empirical evidence from early documentary records indicates sporadic intentional breaches were used to relieve pressure during high flows, allowing to settle beyond primary channels and mitigating immediate failures, though systematic data on efficacy remains limited to archaeological inferences of buildup. During the imperial era, strategies shifted toward extensive construction to confine the river to fixed courses, with dynasties from the (206 BCE–220 ) onward investing heavily in earthen embankments spanning hundreds of kilometers. However, these structures proved vulnerable, with historical recording over 1,000 levee breaches in the lower reaches across the past 2,000 years, often triggered by summer monsoons overwhelming super-elevated beds. For instance, between 1550 and 1855 , 313 breaches occurred while maintaining the "Old Yellow River" channel via artificial banks, underscoring the limitations of containment amid the river's 1.6 billion tons annual flux. Causal dynamics reveal that levees exacerbated flooding by trapping within narrowed channels, elevating riverbeds at rates of 80–100 mm per year in documented periods, transforming the into a "perched" system where the bed sat above surrounding plains. This super-elevation, spanning an 800-km confined belt by late imperial times, increased probability as water velocity dropped, promoting deposition and hydrostatic pressure buildup against banks. repairs, while temporarily stabilizing courses, perpetuated a cycle of heightened vulnerability, with events clustering after AD 893 as human interventions intensified. Debates among officials contrasted rigid with relocation to northern outlets, arguing that allowing natural course shifts dispersed over underutilized plains, reducing bed in southern alignments. Eleventh-century scholar critiqued over-reliance on , favoring adaptive redirection to harness the river's erosive power for self-regulation over perpetual diking. Pro-relocation advocates cited lower breach frequencies during unconfined phases, such as post-1048 shifts, versus containment eras where floods recurred every few decades; yet, imperial policy prioritized agricultural stability in established basins, sustaining levee dominance despite evidence of escalating intensity from sedimentary and archival proxies.

Major Engineering Projects

The , the first major on the Yellow River, began construction in 1957 and was completed in 1960 as a multipurpose project for , sediment retention, hydropower generation, , and . Located on the middle reaches in Province, it created a with an initial storage capacity designed to mitigate downstream flooding from the sediment-laden waters, though rapid reduced its effective volume by over 40% within the first decade. The Xiaolangdi Dam, situated downstream of , addressed ongoing challenges through advanced design features for controlled flushing. Construction started in 1991, with water beginning in 1999 and full multipurpose operations by 2001, yielding a of 12.65 billion cubic meters, including 5.1 billion cubic meters for long-term live dedicated to flood peaking reduction and management. Annual flushing operations, initiated in 2002, release high-velocity turbid flows to scour accumulated from the bed and downstream channels, with the 2025 pre-flood flushing commencing in July to clear ahead of the rainy season. These and upstream projects such as Longyangxia (completed ) and Liujiaxia have contributed to a basin-wide installed hydroelectric capacity exceeding 10 GW on the upper reaches alone by the early , with recent additions like the Maerdang station (2.32 GW, operational by 2024) expanding generation while supporting flow regulation for flood mitigation. operations have enabled coordinated peaking attenuation, reducing extreme flood discharges through storage and controlled releases, as evidenced by post-construction gauged flows at key stations. In 2025, launched a national for and lake protection spanning 2025–2027, incorporating Yellow reservoirs into strategies that integrate with ecological enhancements, such as and improvements during operational phases. This builds on prior joint operations between and Xiaolangdi, which trap over 60% of incoming while allowing periodic scouring to maintain downstream.

Criticisms and Policy Debates

Critics of Yellow River strategies argue that extensive reliance on and has often amplified downstream risks by confining sediment-laden flows, leading to superelevated riverbeds that heighten severity. Historical data indicate that systems, dating back , periodically failed and shifted the river's course dramatically, contributing to over 1,000 major in 3,000 years. A 2023 study reconstructing 12,000 years of events found that anthropogenic disturbances, including , drove an unprecedented increase in frequency during the last , with human factors overriding natural climate variability. Policies under , particularly collectivization through people's communes, exacerbated soil erosion in the by promoting unsustainable land use, such as widespread and without adequate conservation, which intensified the river's sediment load and flood propensity. These centralized approaches prioritized rapid mobilization over ecological sustainability, resulting in that compounded the river's inherent instability, as evidenced by heightened rates during the . Policy debates center on the tension between top-down centralized planning and decentralized, incentive-based management. Proponents of centralization credit it with enabling massive infrastructure scale, such as the 1987 Yellow River Water Allocation Scheme, which imposed quotas to curb overuse and avert crises. However, critics contend it stifles local and , contrasting with post-1978 reforms that introduced water rights trading and market mechanisms, yielding gains like reduced agricultural waste through priced allocations in pilot basins. Empirical assessments show these reforms enhanced overall water productivity, though implementation remains uneven due to persistent administrative controls. While large dams like and Xiaolangdi have mitigated some flood peaks, they have displaced hundreds of thousands—approximately 300,000 from alone—and disrupted livelihoods without fully resolving upstream erosion. Emerging risks from include altered ice regimes, with warming projected to shift ice-jam hotspots southward and reduce overall frequency but potentially intensify localized flooding through thinner, unstable covers and higher winter discharges. These dynamics underscore calls for holistic strategies integrating with over purely structural fixes.

Ecology

Flora and Vegetation

The flora of the Yellow River exhibits distinct zonation corresponding to its elevational and hydrological gradients, with alpine meadows characterizing the upper reaches, steppe grasslands in the middle , and emergent wetland vegetation in the lower . In the upper , above approximately 3,000 meters elevation, vegetation primarily consists of alpine meadows dominated by graminoids such as Kobresia species and sedges, interspersed with sparse forbs and shrubs adapted to high-altitude conditions; these communities cover about 23% of the active channel zones but have declined in pioneer grass and sedge assemblages due to degradation processes. In the middle reaches, traversing the , native grasslands feature perennial bunchgrasses like Stipa and Leymus species, which have undergone significant from , resulting in reduced and shifts toward sparse, degraded patches; surveys indicate grassland degradation affected 8.24% of the source region by the early 2000s, exacerbating exposure. Historical across the , intensified during the mid-20th century, diminished vegetation cover to as low as 12-20% in some areas by the , representing a roughly 50% reduction from pre-agricultural baselines inferred from models and historical reconstructions. The lower reaches and delta support halophytic and hygrophytic communities, including extensive reed beds of in freshwater-influenced wetlands, alongside succulent forbs like Suaeda salsa and shrubs such as in saline zones; these formations arise from sediment deposition, with P. australis dominating restored sites where freshwater supplementation has enhanced clonal propagation and belowground biomass. Invasive species, notably Spartina alterniflora in estuarine habitats, have displaced native Zostera japonica seagrasses and altered succession patterns, as evidenced by habitat modeling under water diversion scenarios. Restoration efforts since the 1990s, including the Grain for Green Program, have promoted with fast-growing trees like species (e.g., P. tomentosa and P. simonii) on degraded slopes and riverbanks, stabilizing sediments and increasing canopy cover; these plantings, combined with enclosures, have driven a basin-wide greening trend, with kernel normalized difference vegetation index (kNDVI) showing significant increases across 83.2% of the area from 2000 onward, corroborated by fractional vegetation cover rises to 2022 satellite observations. Recent (NDVI) analyses indicate continued gains into 2023, particularly in the middle basin, where engineered mixed stands have boosted leaf area by enhancing soil retention without exceeding climatic carrying capacities in monitored plots.

Fauna

The Yellow River basin hosts approximately 147 , of which 27 are endemic and 24 are classified as threatened. Prominent examples include the endangered Atrilinea macrolepis and Brachymystax lenok tsinlingensis, as well as the endemic Rhinogobio nasutus in the middle and upper reaches. Surveys indicate a 35.4% decline in overall over the past 50 years, with total dropping from 164 to 106, driven by reduced native assemblages and proliferation of non-endemic . Native migratory , such as Yellow River (Cyprinus carpio variants), have experienced sharp population reductions, with extirpation rates averaging 46.7% for affected natives, partly offset by stocking of tolerant like . Aquatic and riparian habitats also support semi-aquatic mammals, including the (Lutra lutra), which faces ongoing threats from , though basin-specific population surveys remain limited. Among birds, the (Grus grus) utilizes Yellow River wetlands as a critical stopover, with thousands documented in areas like Shizuishan during overwintering periods. These species exhibit declines linked to riparian habitat loss, with crane populations vulnerable to wetland degradation affecting stopover site availability. Key causal factors for faunal declines include heavy smothering spawning substrates and disrupting benthic s essential for , as evidenced by damage to and grounds from dynamics. further exacerbate losses by blocking migratory access to upstream spawning areas, reducing connectivity for reliant on longitudinal movements. These pressures have shifted assemblages toward -tolerant, often , underscoring the basin's transition from diverse native communities.

Ecological Changes and Restoration Efforts

The Yellow River basin has undergone significant ecological alterations, including substantial degradation driven by land use changes, hydrological modifications, and groundwater depletion. In the , landscapes have experienced tremendous area losses and fragmentation, exacerbating decline for and . Upstream, in the decreased by 25.43% from 1990 to 2010, reflecting broader patterns of conversion to and . Reduced sediment delivery to the following has paradoxically contributed to , while clearer upstream waters from retention have mixed impacts on . Restoration initiatives, intensified after the 2019 ecological protection outline, encompass , terracing, and establishment across the to curb and yields. These efforts have increased by 1.34% and by 0.56% over the past two decades, alongside a 4.13% reduction in cropland, stabilizing ecosystem structure in some areas. repurposing for flushing, as at Xiaolangdi, periodically reduces accumulation, with eco-hydrological models from 2023–2025 projecting long-term benefits for and recovery through diminished transport loads. Assessments of restoration efficacy reveal partial successes, such as enhanced vegetation coverage and in treated zones, alongside improved zoobenthos in ecologically supplemented waters. in the has shown patterns linked to altered water-sediment regimes, with potential gains from flushing-induced clarity, though quantitative metrics remain inconsistent. Coastal interventions have boosted shorebird habitats via land cover optimizations. Nonetheless, efficacy is constrained in overexploited headwaters by ongoing upstream water abstractions and declining , which perpetuate shrinkage and limit indices' upward trends despite interventions.

Environmental Issues

Pollution Sources and Impacts

Industrial discharges from factories and mining activities along the Yellow River have introduced such as , , lead, and into the waterway, with concentrations generally increasing from upstream to downstream reaches due to accumulation in sediments and . Agricultural runoff, particularly from application and use in the fertile middle basin, contributes and other , exacerbating loading; and inputs further amplify pollution in and feeding the river. These sources intensified during the rapid industrialization of the , when levels peaked, though regulatory efforts post-2000 have reduced overall discharges, leaving persistent hotspots in urban-industrial clusters of the middle and lower basins. Nitrate enrichment promotes , triggering algal blooms that deplete dissolved oxygen and cause hypoxic conditions, contributing to the decline or of native species through direct and habitat degradation. bioaccumulation in aquatic organisms and sediments poses ecological risks, with and exceeding ecological thresholds in depositional areas of the middle reaches. (COD) levels, indicative of organic pollutant loads, historically exceeded national standards in middle-basin sections during pollution surges around 2010, though recent shows compliance in mainstream sites amid ongoing localized exceedances tied to untreated effluents. Downstream human populations face elevated health risks from chronic exposure via and irrigated crops, with spatial analyses linking pollutants to higher incidences of digestive and esophageal cancers; for instance, and organic contaminants correlate with cancer rates in basins including the Yellow River's, where an estimated 10-20% of such cases stem from waterborne toxins. Carcinogenic risks from and other metals remain unacceptably high in sediment-impacted zones post-flood seasons, underscoring causal pathways from upstream industrial sources to downstream morbidity without mitigation.

Water Scarcity and Degradation

The Yellow River Basin faces acute , with annual diversions supporting approximately 140 million people and irrigating around 74,000 km² of farmland, exacerbating supply-demand imbalances. to the sea has declined by more than 80% over the past 60 years, driven predominantly by water consumption for and domestic use rather than variability. Between the 1950s and 1980s, human withdrawals accounted for over 90% of the observed reduction, as runoff—historically concentrated in the upper reaches at about 54% of total volume—has been halved overall since the mid-20th century due to unchecked expansion of irrigated and . This overuse has manifested in severe dry-up events, most notably in 1997 when the river failed to reach its mouth for 226 days across 13 incidents, with the dry channel extending over 700 km upstream, halting sediment delivery to the Bohai Sea and underscoring systemic over-allocation. Policies emphasizing rapid agricultural and industrial development prioritized short-term water extraction over long-term sustainability, amplifying evaporation losses and upstream diversions that left downstream reaches desiccated. Irrigation withdrawals, in particular, have dominated low-flow reductions, as traditional flood irrigation methods inefficiently consume vast volumes without adequate recharge. Water degradation compounds through secondary effects like soil salinization, induced by over- and poor drainage in lowland districts, which elevates tables and mobilizes salts into root zones, reducing arable productivity. In the Hetao and irrigation areas, historical overexploitation has persistently salinized soils, with deteriorating as exceeds natural replenishment rates. Recent interventions aim to mitigate this via targets, including raising the farmland irrigation water utilization coefficient from 0.56 in 2020 to 0.57 by 2025 through , drip systems, and reduced quotas, though projections indicate worsening into the 2030s without broader reforms.

Human Utilization

Irrigation and Agriculture

The Yellow River supports for approximately 17% of China's cultivated farmland, enabling production of a substantial share of the nation's and crops despite the river accounting for only 2% of total . water use dominates basin withdrawals, comprising over 70% of total consumption, with diversions directly correlating to expanded effective areas exceeding 5 million hectares. In key districts such as Hetao in , annual diversions reach 4.6 billion cubic meters, representing one-eighth of the river's total flow and sustaining arid-zone farming through canal networks. Advancements in technology, particularly systems implemented widely since the 2010s, have improved use efficiency by reducing losses from and runoff. Subsurface and alternate methods outperform traditional flood , achieving up to 40% savings in and while elevating per-mu crop yields by about 10% in field trials. These efficiencies have raised the basin's overall utilization index from 0.554 in earlier decades, supporting sustained output amid constrained supplies. The river's loess-derived silt deposits enhance soil fertility in irrigated fields, providing essential nutrients that underpin high yields; for example, supplementary irrigation has increased wheat production by 16% to 23% in basin drylands. Crop outputs, including maize and grains, empirically track diversion volumes, with irrigated areas yielding 100-400% more than rain-fed counterparts due to reliable moisture. However, intensive diversions exacerbate salinization risks through ion accumulation and inadequate leaching, elevating soil salt content—averaging 4.59 g/kg in delta regions—and progressively limiting fertility downstream. This trade-off demands balanced management to preserve productivity without degrading arable land.

Hydropower Generation

The Yellow River hosts a of over a dozen major stations, primarily in the upper reaches in and provinces, with a combined installed capacity exceeding 15 GW as of 2023. Key facilities include the (1.28 GW, operational since 1986), Laxiwa Dam (4.2 GW, completed 2010), and the recently commissioned Maerdang Dam (2.32 GW, full operation 2024), which together contribute significantly to 's output. Annual from these averages around 50 TWh, with individual stations like Yangqu (1.2 GW) producing approximately 4.7 TWh yearly and Xiaolangdi (1.84 GW) generating 5.1 TWh. This output supports grid stability in northwest , though variability in river flow—exacerbated by seasonal monsoons and upstream —limits reliability, with utilization rates often below 40% during dry periods. Hydropower development balances energy production with flood control, but the river's high sediment load—carrying up to 1.6 billion tons annually historically—poses severe siltation risks, reducing reservoir storage and turbine efficiency over time. For instance, Sanmenxia Dam experienced rapid sedimentation post-1960, halving its effective capacity within decades and necessitating operational adjustments that curtailed power generation. Xiaolangdi Dam, designed for sediment flushing, mitigates this through controlled releases, extending lifespan but trading off some hydropower potential for flood mitigation, as silt accumulation can diminish output by 20-30% without intervention. These trade-offs highlight causal challenges: while dams trap sediment to protect downstream areas, they accelerate local deposition, shortening project viability to 30-50 years versus longer in clearer rivers. Recent advancements integrate Yellow River with and resources to enhance basin-wide stability, leveraging complementary generation profiles—hydro peaks in summer, in dry seasons. Facilities like Maerdang incorporate systems, coordinating with adjacent photovoltaic and installations to optimize output and reduce curtailment, as demonstrated in Qinghai's clean bases producing over 3.5 billion kWh from hydro- synergies since 2024. Such integrations, supported by advanced scheduling models, improve overall renewable penetration while addressing 's intermittency from silt-reduced flows and climate-driven variability. Navigation on the Yellow River is severely limited by steep gradients, numerous in the upper and middle reaches, and extreme causing shallow depths and shifting in the lower course, restricting commercial traffic to short, intermittent stretches primarily in the middle and lower . Recent developments, including the establishment of the first inland shipping in the basin, have enabled trial voyages for larger vessels. In July 2023, the thousand-ton Luqing 01 completed a transporting 1,000 tons of coal from Province to Province, marking initial progress in connecting upstream and downstream regions. Infrastructure supporting navigation includes ship locks integrated into select dams and channel stabilization projects, facilitating limited barge transport of bulk commodities such as and where water depths permit. However, annual freight volumes remain negligible compared to other major rivers; for context, the Yangtze River trunk line handled over 3 billion tons of cargo in 2020, underscoring the Yellow River's challenges from hydraulic instability and flood risks that disrupt reliable operations. The river features over a hundred major crossings, comprising bridges and tunnels essential for regional transport networks. In , 22 modern bridges span the waterway, accommodating vehicular and rail traffic. Henan Province alone had 15 such bridges operational as of 2018, with seven more planned by 2020 to enhance connectivity across the basin. These structures contend with the river's sediment load and flood-prone nature, often requiring robust designs like cable-stayed and suspension bridges.

Cultural and Economic Significance

Role in Chinese Culture

The Yellow River figures prominently in ancient Chinese mythology as the site of cataclysmic floods tamed by Yu the Great (Da Yu), a semi-legendary figure credited with founding the Xia dynasty around the 21st century BCE through innovative dredging and dike-building rather than brute force or prayer. In folklore preserved in texts like the Shujing (Book of Documents), Yu's three passes along the river's course without entering his home symbolize perseverance against nature's chaos, transforming the waterway from a destructive force into a manageable lifeline for early agrarian societies along its loess-laden plains. This narrative underscores a cultural motif of human agency prevailing over elemental fury, though archaeological evidence for the Xia remains debated, with Yu's exploits blending myth and proto-historical flood control efforts verified by sediment records of pre-dynastic inundations. In classical literature, the river embodies both majestic inexorability and existential warning, as in 's 8th-century poem "Bring in the Wine" (Jiang jin jiu), where its waters "pouring from the sky" into the sea evoke the relentless passage of time and the futility of clinging to youth, urging amid inevitable decline. Poets like drew on the 's turbid, earth-laden flow—carrying 1.6 billion tons of annually, more than any other major —to symbolize China's dual heritage of fertility and peril, with its breaches inspiring verses on imperial in defying hydrological limits. Such depictions contrast heroic engineering tales, like Yu's, with cautionary of retribution for overreach, as recurrent course shifts (documented 26 major times since 602 BCE) eroded dikes and drowned millions, fostering a about nature's primacy over anthropocentric narratives. Designated the "Mother River" (mu qin he) in modern Chinese nomenclature for nurturing the Yangshao and Longshan cultures circa 5000–2000 BCE in its middle basin, the Yellow River symbolizes national origins and in official , yet this imagery coexists with its epithet "China's Sorrow" due to floods claiming over 11 million lives across —far surpassing the Yangtze's toll through sheer destructiveness of silt-induced surges. While propaganda elevates it as a unifying ethnosymbol of perseverance, empirical records highlight causal vulnerabilities like unchecked , prompting cultural reflections on balancing with pragmatic dread rather than unalloyed maternal idealization. This duality permeates folklore, where the river's yellow hue evokes imperial centrality (huangdi, "") and cosmic harmony in correlative cosmology, yet warns of cyclical calamity absent vigilant stewardship.

Economic Importance and Tourism

The Yellow River Basin generates approximately 10.2% of China's , primarily through , extraction, and , underscoring its role as a critical economic engine despite chronic water constraints. from the river supports about 13% of the nation's grain production, enabling high-yield farming in arid regions that would otherwise be unproductive, while the basin's soils facilitate intensive cultivation of , corn, and . sectors dominate, with the region holding half of China's reserves and producing 66.89% of national raw output as of 2019, alongside substantial oil and fields in provinces like and that fuel industrial growth. Tourism leverages the river's dramatic landscapes, drawing millions annually to attractions such as Hukou Waterfall—the world's largest yellow waterfall—where daily visitors peaked at nearly 30,000 during China's 2025 holiday amid heightened autumn flows. Other sites, including the scenic Qiankun Bend and Shapotou desert reaches, promote and routes, contributing to local economies through like viewing platforms and boat tours, with post-pandemic recovery boosting 2020s visitation amid government promotion of "Yellow River tourism corridors." These benefits are tempered by inherent risks: the basin's flood-prone lower reaches have historically inflicted billions in damages—China incurs the world's highest annual flood losses, estimated at tens of billions globally with disproportionate Yellow River impacts from and failures—while , with per capita resources at just 560 cubic meters annually, elevates opportunity costs for economic activities, often contradicting state reports that emphasize unchecked productivity gains over diversion-induced shortages. Empirical data reveal over-allocation to and industry has led to frequent zero-flow events in the lower , constraining long-term viability and amplifying vulnerability to variability.

References

  1. [1]
    Yellow River (Huang He) - World Atlas
    Apr 12, 2023 · The Yellow River flows from the west to the east of China, making a large curve through its northern provinces. As the second-longest river in China, after the ...Missing: facts origin
  2. [2]
    Yellow River: Facts, Location, Geography, Scenery - China Highlights
    The Yellow River originates on the Qinghai-Tibet Plateau and flows through nine provinces from west to east, flowing into Bohai Sea. It is the "mother river of ...
  3. [3]
    The Yellow River's Role in China's History - ThoughtCo
    May 18, 2025 · It is the world's sixth-longest river, with a length of about 3,395 miles. The river runs across central China's loess plains, picking up an ...Missing: geographical facts
  4. [4]
    The Geography of the Yellow River - China Highlights
    The Yellow River originates from the Roof of the World (the Qinghai-Tibet Plateau) in the Kunlun Mountains in western China. It flows through nine provinces in ...Missing: Huang | Show results with:Huang
  5. [5]
    Socio-economic Impacts on Flooding: A 4000-Year History of the ...
    The Yellow River is China's “mother river,” feeding a 4000-year-old Chinese civilization. During the last two millennia the river has proved to be violent. The ...
  6. [6]
    Recent anthropogenic curtailing of Yellow River runoff and sediment ...
    Jul 20, 2020 · Furthermore, our study calculates the reduction in YR sediment load caused by increasing human water consumption. ... (Yellow River) to the sea: ...<|control11|><|separator|>
  7. [7]
    Four-decades of sediment transport variations in the Yellow River on ...
    May 15, 2024 · The Yellow River is globally recognized for its significant sediment load, primarily attributed to its passage through the Loess Plateau.
  8. [8]
    Huang He Valley - National Geographic Education
    Oct 19, 2023 · Huang He Valley (or in English, Yellow River Valley) was the birthplace of ancient Chinese civilization, and for that reason is often called “Mother River.”<|separator|>
  9. [9]
    Yellow River (China's Mother River) - Facts & Attractions
    Sep 19, 2025 · In Ban Gu's book during the Eastern Han Dynasty, the term “Yellow River” first appeared to describe its turbidity.<|separator|>
  10. [10]
  11. [11]
    yellow river - American Heritage Dictionary Entry
    It is named for the vast quantities of yellow silt it carries to its delta. The river is sometimes called "China's Sorrow" because of the devastating floods ...
  12. [12]
    Asian Waters—Huang Ho, The River of Many Names - RG21
    Aug 23, 2015 · The Huang Ho, also called the Yellow River, is known as "The Mother River" and "China's Sorrow" due to flooding. It flows 5,465km, and its ...
  13. [13]
    Yellow River in Qinghai Province - Tibet
    One of its older Mongolian names was the “Black River”, because the river runs clear before it enters the Loess Plateau, but the current name of the river among ...<|separator|>
  14. [14]
    The Yellow River Falls From the White Clouds - Out of Eden Walk
    Feb 20, 2024 · Its Mongolian name, Shar-Us, means Yellow Water, and it contributes the largest sediment load to the Yellow River—more than 220 million tons a ...
  15. [15]
    NOVA Online | Flood! | Dealing with the Deluge - PBS
    Westerners have dubbed it "China's Sorrow," because over the centuries it has killed more people than any other river in the world. In 1887 flooding killed ...Missing: origin | Show results with:origin
  16. [16]
    Societal and Economic Implications of Floods | EARTH 111: Water
    Another Yellow River flood in September of 1887 inundated an ... Such catastrophic disasters have earned the Yellow River its nickname, 'China's Sorrow.Missing: origin | Show results with:origin
  17. [17]
    9 Yellow River Facts You Won't Know - China Highlights
    Chinese name: 黄河 Huánghé /hwung-her/ 'Yellow River'; Alternative Chinese name: 浊河 Zhuóhé /jwor-her/ 'Muddy River'. The Yellow River got its name because ...
  18. [18]
    Yellow River, the Source of Chinese Civilization 2025
    Sep 2, 2025 · The Yellow River originates in the Bayan Har Mountains on the Qinghai-Tibet Plateau at 4,500 meters and flows through nine provinces before ...
  19. [19]
    Eco-Economic Coordination Analysis of the Yellow River Basin in ...
    The drainage area is about 750,000 km2, with a total length of 5464 km. ... The degree of coordination of the upper and middle lower reaches of the Yellow River ...
  20. [20]
    The variation and attribution analysis of the runoff and sediment in ...
    Mar 24, 2021 · According to the characteristics of the river, with Hekou Town and Taohuayu as the dividing point, the Yellow River is divided into three parts: ...
  21. [21]
    Outline of the Yellow River basin, China - J-Stage
    The catchment area for upper reach is 38.6×104 km2, and that for middle reach is the same, but lower reach very small (2.24×104 km2). Both the upper and middle ...
  22. [22]
    (PDF) Satellite remote sensing and GIS for the analysis of channel ...
    Satellite remote sensing and GIS for the analysis of channel migration changes in the active Yellow River Delta, China. Profile image of Michiel Damen Michiel ...
  23. [23]
    China Focus: The Yellow River, mother river of Chinese nation
    20-Sept-2019 · The river got its name Huanghe in Chinese because of its yellow, muddy water, which appears as it runs through the Loess Plateau in northwest ...
  24. [24]
    Sedimentary evidence for the diversion of the Yellow River onto the ...
    Jan 15, 2024 · Since 3000 yr B.P., there have been about 1500 levee breaches and 26 major course diversions in the lower reaches of the Yellow River (Chen et ...
  25. [25]
    How and when did the Yellow River develop its square bend?
    Jun 2, 2017 · The Yellow River formed in the Eocene as an eastward-draining river and developed its square bend around the Ordos block in late Miocene–early Pliocene time.
  26. [26]
    Testing Contrasting Models of the Formation of the Upper Yellow ...
    Aug 23, 2019 · The upper Yellow River drains the central and northeastern Tibetan Plateau. Understanding the origin of this river is essential for ...
  27. [27]
    The Cenozoic evolution of the Yellow River - ScienceDirect.com
    The Cenozoic evolution of the Yellow River catchment exemplifies the complex influence of tectonic activity and climate change on fluvial systems, and ...Missing: Shujing | Show results with:Shujing
  28. [28]
    (PDF) On the formation and evolution of the Loess Plateau in China
    The formation and evolution of the Loess Plateau involves five main factors: (1) The uplift of the Tibet Plateau since the beginning of the Quaternary period, ...
  29. [29]
    Erosion-control mechanism of sediment check dams on the Loess ...
    There is a 50–250 m thick loess layer covering two thirds of the Loess Plateau. ... Yellow River has incised into the Loess Plateau by 100–400 m. The incision ...
  30. [30]
    Sediment reduction in the middle Yellow River basin over the past ...
    Jul 15, 2023 · In recent decades, climate change and human activities have caused a dramatic decline in the water discharge and sediment load delivered to the ...Missing: color | Show results with:color
  31. [31]
    The landslide traces inventory in the transition zone between the ...
    Apr 4, 2024 · The upper reaches of the Yellow River in China, influenced by erosion of the Yellow River and tectonic activities, are prone to landslides.
  32. [32]
    Temporally staggered formation of the Middle Pleistocene terrace in ...
    Sep 2, 2025 · The Gonghe Basin, situated in the northeastern Tibetan Plateau, preserves multiple terrace levels formed by the Yellow River, ...<|separator|>
  33. [33]
    Formation of the Yellow River, inferred from loess–palaeosol ...
    It is related to the evolution histories of the headwater in the Tibetan Plateau, the Loess Plateau in the middle reaches, and continental shelf in the lower ...
  34. [34]
    Hydrological Cycles Change in the Yellow River Basin during the ...
    The river length is 5500 km with a basin area of 752 000 km2 (the watershed area is as large as 795 000 km2 if the endoreic inner flow area is included).
  35. [35]
    Spatiotemporal Variations of Sediment Discharge and In‐Reach ...
    Nov 10, 2021 · ... sediment with an annual average deposition of 182 million tons ... Yellow River runoff and sediment load is unprecedented over the past 500 y.
  36. [36]
    Analysis of Runoff Changes in the Wei River Basin, China - MDPI
    As the largest tributary of the Yellow River, the Wei River discharges approximately 19.7% of water into the Yellow River every year, which plays a ...
  37. [37]
    The location of the Wei River Basin in the Yellow River basin.
    Wei River Basin, which originates from the north side of Niaoshu Mountain, is the largest tributary of the Yellow River. With its length of 818 km and the basin ...
  38. [38]
    Fen River - Wikiwand
    The river is 694 kilometers (431 mi) long and drains an area of 39,417 km2 (15,219 sq mi), 25.3% of Shanxi's area. The Fen River is the longest in Shanxi. It is ...
  39. [39]
    Hydrological changes in the Upper Yellow River under the impact of ...
    Li et al. discovered that the hydrological changes had irreversible impacts on the biology, habitat, and structure of the main tributary Dawen River in the ...
  40. [40]
    Spatiotemporal variations in runoff and sediment load of the ...
    This study analyzed the RS series from 32 mainstem and 34 major tributary hydrological stations across the YRB from 1960 to 2023, identified key driving ...
  41. [41]
    Analysis of water resources variability in the Yellow River of China ...
    Jun 12, 2004 · The basin average annual precipitation is 440 mm. The monthly air temperature and precipitation show similar patterns consisting of peaks in ...Missing: per | Show results with:per
  42. [42]
    A preliminary estimate of human and natural contributions to the ...
    A preliminary estimate of human and natural contributions to the changes in water discharge and sediment load in the Yellow River.
  43. [43]
    Building Up the Yellow River Delta - NASA Earth Observatory
    Apr 5, 2021 · The last two major changes in course were engineered by people, primarily to control flooding and protect coastal development. In 1976 ...Missing: GPS | Show results with:GPS
  44. [44]
    Prediction of Sediment Yield in the Middle Reaches of the Yellow ...
    Dec 10, 2020 · The Loess Plateau is the main source of sediment in the Yellow River Basin. Floods caused by extreme precipitation are the primary driving ...Missing: color | Show results with:color
  45. [45]
    River sediment load and concentration responses to changes in ...
    Sep 23, 2008 · The Loess Plateau, covering 620,000 km2, spans the middle reaches of the Yellow River in China and is characterized by an arid to semiarid ...
  46. [46]
    Human deforestation outweighed climate as factors affecting Yellow ...
    Nov 1, 2022 · Human deforestation outweighed climate as factors affecting Yellow River floods and erosion on the Chinese Loess Plateau since the 10th century.
  47. [47]
    Restoring China's Loess Plateau - World Bank
    Mar 15, 2007 · Centuries of overuse and overgrazing led to one of the highest erosion rates in the world and widespread poverty. Approach. Two projects set out ...Missing: deforestation | Show results with:deforestation
  48. [48]
    The exceptional sediment load of fine-grained dispersal systems
    May 12, 2017 · We analyze sediment transport data for the best-documented, fine-grained river worldwide, the Huanghe (Yellow River) of China.Missing: color | Show results with:color
  49. [49]
    Irrigation, damming, and streamflow fluctuations of the Yellow River
    Mar 5, 2021 · The streamflow of the Yellow River (YR) is strongly affected by human activities like irrigation and dam operation.<|separator|>
  50. [50]
    Spatiotemporal evolution of droughts and floods in the Yellow River ...
    To systematically investigate the drought-flood evolution and precipitation forecasting in the Yellow River Basin, multiple datasets with different temporal and ...
  51. [51]
    Streamflow variations of the Yellow River over the past 593 years in ...
    Jun 30, 2007 · Annual streamflow of the Yellow River has decreased in recent years (1980 to 2000) because of climate change and human activity.
  52. [52]
    Changes in Drought Characteristics in the Yellow River Basin during ...
    Generally, the hydrological drought frequency will decrease by 15.5% (13.0–18.1%), and the drought severity is projected to rise by 14.4% (13.2–15.7%) in carbon ...Changes In Drought... · 3. Results · 3.3. Hydrological And...
  53. [53]
    Tree ring based streamflow reconstruction for the Upper Yellow ...
    Dec 9, 2010 · Reconstructed streamflow shows significant low-frequency variability, which is in line with drought variability of neighboring regions, as ...
  54. [54]
    Spatial and temporal variability of water discharge in the Yellow ...
    Potential connections between water discharge in the Yellow River Basin and El Niño/Southern Oscillation (ENSO) were also examined by the cross wavelet and ...
  55. [55]
    Ice-related flooding in the lower Yellow River driven by atmospheric ...
    Jun 4, 2025 · Our findings show that ice-jam floods are strongly influenced by large-scale atmospheric teleconnections, including the Arctic Oscillation, ...
  56. [56]
    Xiaolangdi Dam: A valve for streamflow extremes on the lower ...
    Xiaolangdi Dam exerts little impact on the total streamflow in the long run, while it dramatically changes the seasonal distribution.
  57. [57]
    Extreme streamflow and sediment load changes in the Yellow River ...
    We investigated the spatiotemporal variations of streamflow extremes (QE) and sediment load extremes (SE) in the Yellow River (YR) during 1956–2019.
  58. [58]
    Yellow River Early Neolithic - Summary - eHRAF Archaeology
    Yellow River Early Neolithic settlements in China occur with the onset of the Mid-Holocene Climatic Optimum around 9000 BP. The warmer and wetter conditions ...
  59. [59]
    Anthropocene archaeology of the Yellow River, China, 5000–2000 BP
    Analysis at archaeological sites in the CLP indicates that there are increases in charcoal concentration and herbaceous pollen from 5000 to 4000 BP (Hu et al., ...
  60. [60]
    Genetic diversity of two Neolithic populations provides evidence of ...
    Sep 1, 2016 · The majority of archeological sites located at the Yellow River Valley sites belong to the Yangshao culture (5000–3000 BC), which is known for ...Missing: irrigation BCE
  61. [61]
    Evidence Found for China's Ancient Origin Story - Eos.org
    Aug 4, 2016 · The story of the Xia Dynasty starts with a flood that supposedly lasted 20 years. ... Erlitou culture and hypothetical Xia Dynasty were linked, ...Missing: recession | Show results with:recession
  62. [62]
    Geologic Evidence May Support Chinese Flood Legend
    Aug 4, 2016 · A deluge that washed down the Yellow River nearly 4,000 years ago could be linked to the founding of China's semi-mythical first dynasty.Missing: recession agriculture
  63. [63]
  64. [64]
    China's Great Flood—just a myth? - Prospect Magazine
    Aug 10, 2016 · The discovery of geological evidence for a massive flood on the Yellow River around 4000 years ago will surely delight the Chinese authorities.Missing: recession | Show results with:recession
  65. [65]
    Floods in the history of China - Disaster Risk Reduction Knowledge ...
    Nov 20, 2020 · The Yellow River: in the 2,600 years since 602 BC, there have been 1,593 dam collapses and 26 major riverway changes. Huaihe river: according to ...
  66. [66]
    Modeling flood dynamics along the superelevated channel belt of ...
    May 20, 2015 · The Yellow River, China, experienced >1000 levee breaches during the last 3000 years. A reduced-complexity model is developed in this study ...Missing: imperial | Show results with:imperial
  67. [67]
    [PDF] Controlling the Dragon - dokumen.pub
    tion, and fraud in the Yellow River conservancy were true. Yan painstak ... River construction in the early Qing inevitably gave way to a more ratio-.
  68. [68]
    Yellow River flood, 1938-47 | DisasterHistory.org
    In June 1938, Chinese Nationalist armies under the command of Chiang Kai-shek breached the Yellow River's dikes at Huayuankou in Henan province in a desperate ...
  69. [69]
    The Huayuankou flood of 1938–1947 during the Sino-Japanese war
    The Huayuankou flood was caused by the Chinese army bursting the Yellow River embankment in 1938 to impede Japanese invaders, lasting until 1947.Missing: 20th era
  70. [70]
    Global and Domestic Impacts of China's Forestry Conservation
    The Great Leap Forward, with its emphasis on iron and steel production ... One of the major consequences of deforestation in China is soil erosion. A ...<|separator|>
  71. [71]
    Yellow River water rebalanced by human regulation - Nature
    Jul 4, 2019 · We find that between the 1950s and the 1980s, human water consumption contributed more than 90% to streamflow reduction.
  72. [72]
    Attribution analysis of runoff evolution in the Yellow River Basin ...
    The results show that the WYRS has declined significantly (p < 0.01) over the past 67 years. Anthropogenic water consumption (AWC) was the dominant factor ...
  73. [73]
    Hydrological trend analysis in the Yellow River basin using a ...
    Feb 24, 2009 · The hydrological cycle has been highly influenced by climate change and human activities, and it is significant for analyzing the ...
  74. [74]
    (PDF) Adaptation and change in Yellow River management
    Mar 30, 2020 · At the centre of the transformation to a market economy has been changes in China's management of resources. Along with energy, water will ...
  75. [75]
    Forty years of irrigation development and reform in China - Wang
    Sep 11, 2019 · Institutional reform of surface irrigation management in the Yellow River Basin (Ningxia and Henan Provinces). Share of villages (%). 1990 ...
  76. [76]
    Yellow River protection efforts making progress
    Dec 23, 2024 · In 2023, nine provincial-level regions along the Yellow River completed afforestation efforts covering 1.7 million hectares. Additionally ...
  77. [77]
    Controlling the Yellow River: 2000 years of debate on control ...
    This paper analyzes the levee breaches and flood disasters in the past 2000 years and the compares results of the two extremely different strategies.
  78. [78]
    (PDF) Controls of levee breaches on the Lower Yellow River during ...
    The lower Yellow River channel was maintained in the ―Old Yellow River‖ by artificial levees over 1550-1855, during this period 313 levee breaches were recorded ...
  79. [79]
    Geoarchaeological evidence of the AD 1642 Yellow River flood that ...
    Feb 28, 2020 · 1a–d). Despite Kaifeng's political and economic importance, the Yellow River has flooded Kaifeng around 40 times over the past 3000 years.
  80. [80]
    Sedimentation rates in the lower Yellow River over the past 2300 ...
    Aug 9, 2025 · Due to this sediment deposition, the riverbeds in the lower reaches of the Yellow River continued to rise at a rate of 80-100 mm yr -1 in the ...
  81. [81]
    A 2000-year documentary record of levee breaches on the lower ...
    Nov 27, 2020 · A 2000-year documentary record of levee breaches on the lower Yellow River and their relationship with climate changes and human activities.
  82. [82]
    Timeline of levee breaches on the lower Yellow River during the last...
    (b) Probability distribution of breach number in the event years. (c) Probability distribution of waiting time for next breach. Source publication.
  83. [83]
    [PDF] WHY DID THIS HAPPEN? The Yellow River's Course Shift in 1048
    In 1048, the lower reaches of the Yellow River shifted its course northward into Hebei. This incident dramatically reshaped the landscape of north China and ...
  84. [84]
    Human disturbances dominated the unprecedentedly high ... - Science
    Feb 22, 2023 · Reconstruction of Yellow River flood frequency during the last 12,000 years. (A) Documentary record of levee beaches and overtops. (B) Modeled ...
  85. [85]
    Sedimentation problems and management strategies of Sanmenxia ...
    [13] The Sanmenxia Dam was constructed within the period of 1957–1960. As a multipurpose project for flood control, hydropower, irrigation, navigation, and ice ...
  86. [86]
    Sedimentation problems and management strategies of Sanmenxia ...
    Aug 6, 2025 · Severe sedimentation problems plagued its first dam, the Sanmenxia Reservoir, which lost more than 40% of its storage capacity within the first ...
  87. [87]
    Morphological response of the Lower Yellow River to the operation ...
    Feb 1, 2020 · Construction of Xiaolangdi Dam started in September 1991, and the dam began storing water in October 1999 (storage capacity of 12.65 km3) (Kong ...
  88. [88]
    Extending the Life of Xiaolangdi Rreservoir for Sediment Reduction ...
    The storage capacity of Xiaolangdi reservoir is 12.65 billion cubic meters, of which, long term live capacity is 5.1 billion cubic meters. The reservoir ...
  89. [89]
    Can Reservoir Regulation Along the Yellow River Be a Sustainable ...
    Sep 29, 2020 · Although the WSRS alleviated the rate of sediment filling of the Xiaolangdi Reservoir, 85% of the incoming sediment from the Loess Plateau is ...
  90. [90]
    Yellow River's annual sediment flushing underway at Xiaolangdi ...
    Jul 7, 2025 · The outflow from the Xiaolangdi Dam in central #China's #Henan Province has transitioned from clear to turbid, marking the commencement of ...
  91. [91]
    Largest Hydropower Station on Yellow River Starts Operation
    By then, the total installed capacity of all the hydropower stations on the upper stream of the Yellow River will exceed 10 gw, as several other major ...
  92. [92]
    Maerdang Dam - Wikipedia
    The station is operated by CHN Energy, a state-owned energy enterprise and has a total installed capacity of 2.32 GW. Maerdang hydropower station is expected ...Missing: hydroelectric | Show results with:hydroelectric<|separator|>
  93. [93]
    Assessing the Sustainability Impacts of the Xiaolangdi Dam - MDPI
    This paper assesses the sustainability impacts in the middle and lower reaches of the Yellow River in China after the Xiaolangdi Dam was constructed.Missing: flushing | Show results with:flushing
  94. [94]
    China releases plan to protect rivers, lakes
    May 21, 2025 · China has unveiled an action plan to protect and create beautiful rivers and lakes from 2025 to 2027, with a focus on improving the quality of aquatic ...
  95. [95]
    Episodic reservoir flooding transforming sediment sinks to sources ...
    Aug 13, 2025 · Most (62%) of the sediment from upstream reaches was retained in the Xiaolangdi Reservoir, which led to a dramatic decrease in sediment outflow ...Missing: percentage | Show results with:percentage
  96. [96]
    MAO'S WAR AGAINST NATURE: LEGACY AND LESSONS - jstor
    Mao and the Party launched a series of economic and social policies and large development projects that transformed and degraded the environment. Mass ...
  97. [97]
    China: Agricultural Policies Past & Present
    Mao's policies in the 1950s led to tree cutting and erosion. Later, reforms changed land administration, but lack of conservation incentives persists. Current ...Missing: Maoist | Show results with:Maoist
  98. [98]
    [PDF] Fighting Erosion in Mao-Era China, 1953–66 - eScholarship
    1 By mobilizing the rural populace to combat erosion, China's leaders anticipated that conservation meas- ures would limit sedimentation along the Yellow River ...
  99. [99]
    How does top-down water unified allocation and regulation ...
    Apr 1, 2024 · The State Council of China approved the “Yellow River Water Allocation Scheme” in 1987 (http://www.mwr.gov.cn/ ), marking the first top-down ...
  100. [100]
    Water Market Development in the Yellow River Basin - MDPI
    Mar 20, 2024 · Water market development in the Yellow River Basin (YRB) unfolds new opportunities for alleviating water scarcity and improving water productivity.Water Market Development In... · 3. Barriers To Water Market... · 4.1. Water Rights SystemsMissing: post- | Show results with:post-
  101. [101]
    [PDF] China's Agricultural Water Policy Reforms - ERS.USDA.gov
    Recent changes in water management policies may serve to bring about more effective water conservation. This report provides an overview of these changes and.<|separator|>
  102. [102]
    Involuntary Resettlement, Production and Income - ScienceDirect.com
    The expansion of cities is the greatest cause of displacement; even so, 12 million people have been displaced by 85,000 reservoirs since 1949 (an average of ...
  103. [103]
    Geo‐eco‐hydrology of the Upper Yellow River
    Mar 22, 2022 · Other than Maduo reach, pioneer plant communities (grass and sedges) have decreased in recent decades, while the proportional area of post ...
  104. [104]
    (PDF) Grassland degradation in the source region of the yellow river
    Aug 10, 2025 · Results show that grassland degradation is the most important land cover change in the research region, which occupied 8.24% of the whole region ...
  105. [105]
    Excessive Afforestation and Soil Drying on China's Loess Plateau
    Feb 22, 2018 · Results show that the current vegetation cover (0.48 on average) has already exceeded the climate-defined equilibrium vegetation cover (0.43 on average) in ...<|separator|>
  106. [106]
    Vegetative Ecological Characteristics of Restored Reed (Phragmites ...
    Oct 4, 2011 · In this study, we compared ecological characteristics of wetland vegetation in a series of restoration projects that were carried out in the wetlands of Yellow ...Missing: flora | Show results with:flora
  107. [107]
    Classification and Monitoring of Salt Marsh Vegetation in the Yellow ...
    Salt marsh vegetation in the Yellow River Delta, including Phragmites australis (P. australis), Suaeda salsa (S. salsa), and Tamarix chinensis (T.<|separator|>
  108. [108]
    Simulation of suitable habitats for typical vegetation in the Yellow ...
    Habitat and biomass changes in Z. japonica and S. alterniflora in the Yellow River Estuary were simulated under the influence of the WSRS and climate change.Missing: flora | Show results with:flora
  109. [109]
    Plant Diversity Research in Shangqiu Yellow River Ancient Course ...
    The survey revealed five dominant families in the flora of the Shangqiu Yellow River Ancient Course National Forest Park, comprising 64 genera and 110 species.
  110. [110]
    Soil Properties under Artificial Mixed Forests in the Desert-Yellow ...
    Vegetation is vital to desert ecosystems and has an important role to play in the restoration of desert soil. The mixed vegetation patterns of Populus alba var.
  111. [111]
    Detection and Attribution of Vegetation Dynamics in the Yellow River ...
    Apr 5, 2024 · Our analysis revealed a widespread greening trend across 93.1% of the YRB, with 83.2% exhibiting significant increases in kNDVI (p < 0.05).
  112. [112]
  113. [113]
    [PDF] Non-native aquatic species in the Yellow River Basin, China
    May 15, 2025 · The Yellow River is the second largest river in China and it supports a rich biodiversity and numerous endemic fish species (Atrilinea ...
  114. [114]
    Telomere-to-telomere reference genome of Rhinogobio nasutus, an ...
    Mar 20, 2025 · Rhinogobio nasutus is an endemic fish species native to the middle and upper reaches of the Yellow River in China, renowned for its high ...
  115. [115]
    Fish assemblage changes over half a century in the Yellow River ...
    The temporal change in species assemblages was found with increased nonendemic species and fewer natives. Fish species richness of the river declined 35.4% over ...
  116. [116]
    Fish assemblage changes over half a century in the Yellow River ...
    Mar 30, 2018 · The number of fish species decreased from 164 to 106 species over the past 50 years.
  117. [117]
    Effects of dam construction and fish invasion on the species ...
    Sep 1, 2021 · This is because 'the barrier effect' caused by dams has led to considerable losses of access to spawning and nursery habitats for migratory fish ...
  118. [118]
    An Analysis of the Threats to Fish Habitat in the Lower Yellow River ...
    Jul 10, 2025 · Dams block migratory routes for fish species that rely on upstream spawning grounds. ... “Impacts of the Dam-Orientated Water-Sediment ...
  119. [119]
    Thousands of common cranes play and feed along the Yellow River
    Mar 13, 2024 · Common cranes are finding sanctuary and sustenance in the Yellow River wetlands of Shizuishan, a vital migration stopover.
  120. [120]
    Acute impacts of reservoir sediment flushing on fishes in the Yellow ...
    The dramatic change of channel form damaged the original spawning grounds of carp and catfish, affecting the natural reproduction of these native fish. ...
  121. [121]
    Effect of dam construction on spawning activity of Yellow River carp ...
    Aug 28, 2022 · Dam construction changes the connectivity of rivers, affecting or even removing fish migration channels; has negative effects on fish behavior; ...
  122. [122]
    Wetland Loss and Degradation in the Yellow River Delta, Shandong ...
    Aug 10, 2025 · The results indicated that landscape changes of wetlands were mostly tremendous in the whole delta, namely loss of wetland area, surface water ...<|separator|>
  123. [123]
    Changes and driving forces analysis of alpine wetlands in the first ...
    Aug 22, 2023 · Analysis on vegetation changes of Maqu alpine wetlands in the Yellow River source region. Land Surface Remote Sens. II. 9260, 926020. doi ...<|separator|>
  124. [124]
    Ecological restoration in the Yellow River Basin enhances ... - Nature
    Mar 15, 2025 · We examine China's Yellow River, once the world's most sediment-laden river, using eco-hydrological and reservoir regulation models.
  125. [125]
    Ecological restoration in the Yellow River Basin enhances ...
    Mar 15, 2025 · Hydropower has been the leading renewable energy source worldwide, with a total capacity of 1,268 GW by the end of 2023, accounting for 14% of ...
  126. [126]
    Ecological programs changed the forest landscape pattern in the ...
    May 13, 2025 · In the past 20 years, the area of cropland in the YRB decreased by 4.13%, while the area of forest and grassland increased by 1.34% and 0.56%, ...
  127. [127]
    [PDF] 1 LWS_V 548 943 2025SS Major Project Sustainable Sediment ...
    This report focuses on the ongoing issue of reservoir sedimentation in the Yellow River Basin, especially within the Xiaolangdi Reservoir. The heavy buildup of ...Missing: stocks | Show results with:stocks
  128. [128]
    Biodiversity and distribution of zoobenthos in the ecological water ...
    The coastal wetland of the Yellow River Estuary, one of China's largest wetlands, is essential for biodiversity conservation and ecosystem services.Missing: efficacy | Show results with:efficacy
  129. [129]
    (PDF) Evaluation of ecological restoration effectiveness of Zoige ...
    Sep 27, 2024 · These areas showed significant improvements in water conservation, vegetation coverage, and a reduction in ecological and environmental problems ...
  130. [130]
    Long-term succession of fish biodiversity in the Yellow River Estuary ...
    Oct 13, 2025 · Original Research. Long-term succession of fish biodiversity in the Yellow River Estuary under the influence of water–sediment regime changes.Missing: endemic endangered
  131. [131]
    Conservation and restoration efforts have promoted increases in ...
    In this study, we tested whether conservation and restoration efforts of a coastal wetland along the Yellow River Delta can improve shorebird habitat and ...2.2. Land Cover Data · 3. Results · 4. DiscussionMissing: afforestation stocks
  132. [132]
    Correlation Analysis of Wetland Pattern Changes and Groundwater ...
    Yellow River water levels and discharge directly impacted the area of rivers and flooding wetlands. The decline in groundwater levels led to the degradation of ...Missing: loss percentage
  133. [133]
    Ecological Change Assessment and Protection Strategy in the ...
    A systematic evaluation of ecosystem changes in the Yellow River basin showed that the ecosystem structure was generally stable, and the ecological quality has ...
  134. [134]
    Sustainable development in the Yellow River Basin: Issues and ...
    Aug 1, 2020 · Especially heavy metals pollution, the concentrations of arsenic, cadmium, lead and total nitrogen increased gradually from upstream to ...
  135. [135]
    Nitrate pollution of groundwater in the Yellow River delta, China
    Aug 7, 2025 · The results indicated that there were three nitrate sources in groundwater: (1) manure and sewage waste input (MSWI), (2) sediment nitrogen ...
  136. [136]
    Fertilizers and nitrate pollution of surface and ground water
    Mar 31, 2021 · Nitrate pollution of ground and surface water bodies all over the world is generally linked with continually increasing global fertilizer nitrogen (N) use.
  137. [137]
    Analysis of the Water Quality Status and Its Historical Evolution ...
    Aug 27, 2024 · Currently, COD levels meet Class I standards, while NH3-N and CODMn ... middle reaches of the Yellow River based on the Budyko framework.
  138. [138]
    [PDF] China's Water Crisis Part II – Water Facts At A Glance
    ... fish species native to the Yellow River had disappeared due to damming or pollution. 20 . •. An estimated 20,000 chemical factories, half of which are along ...
  139. [139]
    Assessment of surface sediment properties and heavy metal ...
    Mar 19, 2025 · River sediments serve as a source and sink of potential heavy metal pollutants and offer crucial information for aquatic ecosystem health.
  140. [140]
    Spatial association of surface water quality and human cancer in ...
    Jul 8, 2023 · This study used water monitoring and population-level cancer data from across China to examine spatial associations between water pollutants and types of ...
  141. [141]
    Emergy evaluation of human health losses for water environmental ...
    Apr 21, 2021 · A quantitative method of human health loss based on risk is proposed. The number of cancer caused by water pollution accounts for 10–20% of the ...<|separator|>
  142. [142]
    Concentration, Health Risk, and Hydrological Forcing of Heavy ... - NIH
    The carcinogenic risk of Cr in the post-WSRS II season was at an unacceptably high level, particularly at sites near the dam. Hydrological characteristics ( ...
  143. [143]
    Streamflow Decline in the Yellow River along with Socioeconomic ...
    We show that the streamflow from the Yellow River to the sea has decreased by more than 80% in total over the last 60 years due to increased water consumption.
  144. [144]
    Yellow River water rebalanced by human regulation - PMC
    Jul 4, 2019 · We find that between the 1950s and the 1980s, human water consumption contributed more than 90% to streamflow reduction, but from the 1970s ...
  145. [145]
    [PDF] Water Management in the Yellow River Basin - CGSpace
    First, the reach includes some of the Yellow River's major tributaries such as the. Fen and the Wei, which contribute substantially to the total flow. Second, ...
  146. [146]
    Drought in the Yellow River - an Environmental Threat to the Coastal ...
    and the dry channel extended over 700km in 1997 (Table 6). The 1997 drought was terminated in October by artificial diversion of water from sources upstream. In ...
  147. [147]
    [PDF] Effects of water discharge and sediment load on evolution of modern ...
    Sep 5, 2011 · Dramatic sediment accumulation on the delta-coast has caused the large-scale avulsion of the Yellow River chan- nel in the last few thousand ...Missing: color | Show results with:color
  148. [148]
    Groundwater quality changes induced by overexploitation in the ...
    Aug 26, 2025 · In the Yellow River irrigation zone, historically high groundwater levels have led to persistent soil salinization problems. SAMPLING AND ...
  149. [149]
    [PDF] Yellow River Basin Green Farmland and High-Quality Agriculture ...
    The water utilization coefficient for farmland irrigation will increase from 0.56 in 2020 to 0.57 in 2025. According to the Opinions of the Ministry of Water ...
  150. [150]
    Integrated strategies for water sustainability in the Yellow River Basin
    Water scarcity will worsen in the 2030 s, but mitigation can reduce it by 15.2 %. •. Irrigation efficiency improvements serving as the most effective measure ( ...Missing: degradation | Show results with:degradation
  151. [151]
    Regions along Yellow River promote efficient utilization of water ...
    Aug 16, 2022 · It accounts for only 2 percent of China's total water resources, but feeds 12 percent of the country's population, irrigates 17 percent of the ...
  152. [152]
    Implications of agricultural success in the Yellow River Basin and its ...
    Agricultural production is the largest user of water, using more than 70% of the total water, and total agricultural water use in the Yellow River Basin ...
  153. [153]
    Advanced tech boosts water efficiency in Yellow River irrigation area
    The irrigation area collects about 4.6 billion cubic meters of water from the Yellow River every year, accounting for one-eighth of the total water ...
  154. [154]
    Sustainable agricultural water management in the Yellow River ...
    Oct 1, 2023 · They found that subsurface drip irrigation worked better than drip irrigation on the soil surface and alternate drip irrigation in improving ...Editorial · 4. Soil Moisture... · 5. Crop Water Demand...
  155. [155]
    Advanced tech boosts water efficiency in Yellow River irrigation area
    Aug 29, 2023 · "The technology saves about 40 percent of irrigation water and 40 percent of fertilizer while helping increase the per-mu yield by about 10 ...
  156. [156]
    Soil moisture and salinity dynamics of drip irrigation in saline-alkali ...
    Mar 9, 2023 · Compared with traditional flood irrigation, drip irrigation significantly improved the water use efficiency of maize. The water use efficiency ...
  157. [157]
    Grain yield and food security evaluation in the yellow river basin ...
    Compared with dryland or rain-fed agriculture, irrigation has the potential to increase the yield of most crops by 100–400%, contributing 40% of the world's ...
  158. [158]
    Characteristics and Risk Assessment of Soil Salinization in ... - MDPI
    The average salt content in the soil of the Yellow River Delta region was 4.59 g/kg, indicating a relatively high salinity overall. The dominant cation in the ...Missing: fertility | Show results with:fertility
  159. [159]
    Reinforced soil salinization with distance along the river: A case ...
    Apr 1, 2023 · Soil salinization was reinforced by the distance along the river, as a trade-off between soil ion accumulation and nutrient regulation.
  160. [160]
    Yellow River Yangqu Hydropower Station - NS Energy
    May 20, 2022 · The Yellow River Yangqu project is a 1.2GW run-of-the-river hydroelectric power station under construction in the Qinghai province, China.<|separator|>
  161. [161]
    China's high-altitude hydropower station generates 3.5-billion-kWh ...
    Apr 1, 2025 · Located at an average altitude of 3,300 meters in Qinghai, northwest China, the station has a total installed capacity of 2.32 million kilowatts ...
  162. [162]
    Xiaolangdi Hydroelectric Power Plant - Power Technology
    Feb 18, 2001 · The 1,836MW Xiaolangdi dam is now generating 5.1 billion kWh of electricity a year. ... The 1,836MW Xiaolangdi Project was completed in 2000, one ...
  163. [163]
    A case study of Longyangxia station in the Yellow River, China
    Sep 15, 2017 · Especially in the past three decades, the yearly electricity generation has increased 15-fold from 351.4 TWh in 1983–5347.4 TWh in 2013 [7].
  164. [164]
    Sedimentation problems and management strategies of Sanmenxia ...
    Sep 21, 2005 · Sanmenxia Dam, located on the middle reach of the Yellow River, in China, is notorious for its severe sedimentation problems.
  165. [165]
    Silt, Hydroelectricity, and the Sanmenxia Dam, 1929-1973
    The silting of the reservoir, however, frustrated the ambition of the Chinese leaders and engineers and resulted in the production of much lower and unstable ...
  166. [166]
    Complementary Characteristics Between Hydro-Solar-Wind Power ...
    The upper reaches of the Yellow River represent the primary runoff-producing area of the basin and serve as a focal point for the integrated wind-solar-hydro- ...
  167. [167]
    CHN Energy's High-altitude Hydrostation Goes into Full Operation
    Dec 31, 2024 · The station also maximizes the utilization of surrounding new energy resources, integrating hydro, wind and solar ... Yellow River Basin, helping ...
  168. [168]
    A long-term scheduling method for cascade hydro-wind-PV ...
    Feb 25, 2025 · The coordinated scheduling of hydropower, wind and PV power plays an important role in promoting the large-scale development of new energy.
  169. [169]
    First Inland Waterway Shipping Channel in the Yellow River Basin ...
    Jul 18, 2023 · First Inland Waterway Shipping Channel in the Yellow River Basin Completes its Maiden Voyage · The photo shows the thousand-ton cargo ship Luqing ...
  170. [170]
    The Yangtze River waterway, 70 years have brought thousands of ...
    Jun 8, 2021 · In 2020, the trunk line cargo throughput will exceed 3 billion tons. This inland waterway with the largest traffic volume and busiest navigable ...
  171. [171]
    Yellow River in Lanzhou
    It boasts a large open riverside park and 25 themed parks and sculptures. It is home to 22 modern bridges, 14 wharves and various types of ships. It has tourism ...<|separator|>
  172. [172]
    History of the Yellow River Bridges-Dahe.cn - 大河网
    Jul 18, 2018 · At present, there are 15 various Yellow River bridges in Henan. By 2020, there will be another 7 bridges built and opened to traffic on the ...
  173. [173]
    Da Yu | Flood Control, Yellow River & Sage Ruler | Britannica
    Aug 29, 2025 · Da Yu, in Chinese mythology, the Tamer of the Flood, a saviour-hero and reputed founder of China's oldest dynasty, the Xia.
  174. [174]
    Yu the Great 大禹(www.chinaknowledge.de)
    Yu the Great (Da Yu 大禹) was in Chinese mythology the forefather of the Xia dynasty 夏(17th-15th cent. BCE) and a demi-god who tamed the floods.
  175. [175]
    Yu Rebuilds the Earth | Research Starters - EBSCO
    It is generally accepted that Yu lived during a period of intense flooding in central China, especially in his home along the Yellow River. His father battled ...
  176. [176]
    Bringing in the Wine - Poem by Li Bai - American Literature
    See how the Yellow River's water move out of heaven. Entering the ocean,never to return. See how lovely locks in bright mirrors in high chambers,
  177. [177]
  178. [178]
    Huang He floods | History, Damage, Death Toll, & Facts | Britannica
    Oct 6, 2025 · As the world's most heavily silted river, the Huang He is estimated to have flooded some 1,500 times since the 2nd century bce, causing ...
  179. [179]
    The Yellow River 黄河 (www.chinaknowledge.de)
    The Yellow River (Huanghe 黄河), before the Han period just called "River" (He 河), can be seen as the cradle of Chinese Culture.
  180. [180]
  181. [181]
    [PDF] CHINA - Yellow River Basin Ecological Protection and ...
    Oct 9, 2023 · The Yellow River Basin (YRB) plays an important role in China's—and also the world's—economic and social development. The Yellow River is ...
  182. [182]
    Water–Energy–Food Nexus in the Yellow River Basin of China ...
    Aug 25, 2024 · The YRB is also known for China's raw coal and grain production area, accounting for 66.89% and 18.16% of the country, respectively, by 2019 [45] ...
  183. [183]
    World's largest yellow waterfall prepares for record visitors
    Sep 29, 2025 · Authorities in Shanxi Province will limit daily visitors to 30000 at the famous Hukou Waterfall on the Yellow River during China's upcoming ...
  184. [184]
    A roaring holiday scene at N China's Hukou Waterfall - Facebook
    Oct 8, 2025 · Daily tourist numbers peaked at nearly 30,000, as travelers flocked to admire the spectacular natural wonder in its autumn splendor. To enrich ...Missing: 2020s | Show results with:2020s
  185. [185]
    Counting the Costs of Floods in China - CWR - China Water Risk
    Currently, global average annual flood losses are estimated at $104 billion. The country incurring the highest losses is China, followed by the USA and India.
  186. [186]
    The Yellow River in transition - ScienceDirect
    The Yellow River basin is the site of myriad water resource problems: they include water scarcity, pollution, and flood risk. In 1997 there were 226 'no flow' ...