Fact-checked by Grok 2 weeks ago

Syr Darya

The Syr Darya is Central Asia's longest river, extending roughly 2,500 kilometers from its headwaters in the Mountains of and , flowing generally west and northwest through , , and to discharge into the remnants of the northern . Historically known as the Jaxartes, it marked the farthest eastern advance of Alexander the Great's conquests in 329 BCE, serving as a strategic boundary in ancient and Hellenistic spheres. The river's basin sustains vital irrigation for agriculture across arid lowlands, particularly and , supporting economies dependent on water-intensive farming despite the region's low precipitation. However, large-scale diversions since the mid-20th century for Soviet-era projects have drastically reduced inflows to the , causing its shrinkage by over 90% in surface area and volume, with cascading ecological consequences including , loss of fisheries, and regional health impacts from exposed toxic sediments. Transboundary management remains contentious, with upstream nations like and prioritizing and downstream and emphasizing water for , complicating cooperative restoration efforts amid climate variability.

Etymology and Naming

Historical Designations

The Syr Darya was known to authors as the Jaxartes (Ἰαξάρτης), a designation appearing in Herodotus's Histories (c. 440 BCE), where it marked the northeastern boundary of Scythian-inhabited regions, and in Ptolemy's (c. 150 CE), which mapped it as flowing into the from the east. This Greek name derived from the Yakša-arθa (or Yakhsha Arta), connoting a "shining" or "pearly" river, reflecting Achaemenid Persian recognition of it as a separating settled Iranian domains from (Saka) nomadic territories beyond. In medieval Islamic geographical literature, the river bore names such as Sayhun or Sihun, recorded in and texts from the onward, often as a counterpart to the (Amu Darya) and emphasizing its role in Transoxiana's . These designations, rooted in local Iranian and Turkic hydronyms like (yellow or turbid), persisted through Timurid-era mappings, such as those by the 16th-century Shaibani sources, which listed variants including Sir and Sayhun without conflating it with the western Oxus system. Russian imperial cartography in the 19th century, amid the conquest of (completed by 1868), formalized the "Syr-Darya" on official surveys and maps, drawing from indigenous Turkic-Persian usage (Sīr Daryā, "yellow river") to denote its silt-laden waters; this standardization appeared in Tsarist administrative divisions, including the Syr-Darya Oblast established in 1867 with as its center.

Linguistic Origins and Variations

The name Syr Darya combines elements from and prevalent in , with daryā deriving from daryā ("river" or "sea," cognates in modern Tajik and other ) and syr from Turkic roots, interpreted in philological contexts as denoting "marsh," "swamp," or a secretive/mysterious quality tied to the river's extensive, often inundated floodplains. This hybrid form emerged through centuries of cultural and linguistic exchange between Iranian-speaking groups (such as Sogdians and ) and incoming Turkic nomads from the onward, stabilizing as the dominant toponym by the medieval era without reliance on mythological or folk etymologies. Contemporary variations reflect post-1991 national language standardizations in the river's riparian states, preserving the core syr-daryā structure while adapting to orthographic and phonetic norms: Sïr Dariýasy in Kazakh (using Cyrillic or Latin script per 2017 reforms), Sirdaryo in Uzbek (Latinized since 1993), Сырдария (Syrdariya) in Kyrgyz Cyrillic, and Daryoi Sir in Tajik (reversing word order per Persian grammar). These forms evolved empirically from shared Turko-Persian substrate dialects under Soviet multilingualism, with no documented impositions of politically motivated renamings post-independence; instead, they align with endogenous philological shifts and official gazetteers.

Geography and Physical Characteristics

River Course and Basin Extent


The Syr Darya forms at the confluence of the and Kara Darya rivers in the eastern , near the borders of , , and , with its headwaters originating in the mountains of . From this junction, the river flows generally northwest through the , then westward across the arid lowlands of and , covering a distance of 2,212 kilometers before reaching the remnant near the Kazakhstan-Uzbekistan border.
The river's basin encompasses approximately 782,000 square kilometers, spanning the territories of four Central Asian nations: (which holds the largest share), , , and . Major tributaries, such as the Chirchik and Angren (also known as Akhangaran) rivers, contribute significant drainage from the surrounding mountain ranges and valleys, particularly joining the main stem in the middle reaches through . The terrain along the Syr Darya's course transitions from high-elevation alpine zones in the , characterized by steep gradients and glacial influences, to flat, arid plains and steppes in the lower reaches, where the predominates. This shift from mountainous headwaters to low-relief desert basins promotes high in the upper sections, with annual loads reaching about 12 million tons delivered to the terminal , reflecting the erosive power of the upstream against the depositional tendencies of the downstream environment.

Hydrological Features and Flow Dynamics

The Syr Darya exhibits a predominantly nival hydrological regime, with flow dynamics driven by seasonal from the and Pamir-Alai mountain ranges, where over 80% of the basin's annual runoff originates in upstream headwaters. Peak discharges typically occur from to August, averaging around 2,000 m³/s during these months, as snow accumulation from winter melts under rising spring temperatures. This seasonality results in highly variable intra-annual flows, with summer peaks comprising up to 50-60% of the total annual volume in unregulated upstream sections, while base flows remain low during winter, often dropping below 200 m³/s at gauging stations like those on the Naryn River. The river's average annual discharge, based on long-term gauging records, measures approximately 37 km³ at mid-basin stations, lower than the Amu Darya's ~79 km³ despite the Syr Darya's longer course of 2,212 km, due to its more arid intermontane valleys and lesser influence. Headwater contributions from glaciers in the account for 4-61% of across sub-basins, with ice melt specifically providing 1-22% of annual runoff, rendering upper reaches sensitive to decadal melt cycles that amplify variability. Gauging data from stations such as those on the and Karadarya rivers indicate historical pre-intensive regulation flows (pre-1960s) averaged 40-45 km³ annually in the basin, with observed reductions of 10-20% in peak snowmelt volumes by the late linked to natural climatic oscillations rather than diversions. Flow variability is further influenced by interannual precipitation patterns, with runoff coefficients in snow-dominated catchments ranging from 0.3-0.5, meaning 30-50% of precipitation translates to , as measured at upstream stations like town. Recent analyses of hydrological records from 1930-2015 show weak increasing trends in annual totals (~1-2% per decade) in upper basins, attributed to enhanced melt from warming, though spring peak timing has advanced by up to 10-15 days since the mid-20th century. These dynamics underscore the river's reliance on cryospheric inputs, with recession in the —losing ~27% of ice volume since 1961—projected to initially boost short-term flows before long-term declines.

Historical Significance

Pre-Modern Periods

In 329 BCE, crossed the Syr Darya, then known as the Jaxartes River, during his campaign against the nomads, culminating in the near modern-day , where his forces defeated Scythian cavalry using innovative raft constructions reinforced with arrows and caltrops. This crossing marked a northern limit of his conquests, establishing Hellenistic outposts that facilitated Greco-Bactrian trade and cultural exchange along the river's middle course. The Syr Darya basin served as a vital corridor for commerce from the 2nd century BCE onward, supporting oasis settlements like those in the Fergana-Syrdarya region, where archaeological remains of fortified towns, such as and the Oasis, reveal mud-brick citadels, caravanserais, and irrigation channels that sustained trans-Eurasian exchange of silk, ceramics, and spices between Han China, Sogdiana, and Persia. These sites, evidenced by excavated murals, coins, and pottery, underscore the river's role in linking nomadic routes to sedentary agricultural hubs, with (ancient Chach) emerging as a key by the 7th century CE due to its position at a Syr Darya . During the Mongol invasions of 1219–1221 , Genghis Khan's forces devastated Khwarazmian cities along the Syr Darya, including , where the governor Inalchuq's execution of Mongol envoys provoked the siege and razing of urban centers, disrupting local networks and pastoral supply lines, though sediment core analyses indicate pre-existing hydroclimatic drying had already weakened basin resilience by reducing river flows over two centuries prior. The invasions shifted regional dynamics toward nomadic dominance, with Mongol tumens exploiting the river's floodplains for horse-breeding pastures while sparing some qanat-fed villages that supported tributary economies. In the Timurid era (1370–1507 CE), reinforced Syr Darya defenses by constructing a fortress in 1392 CE at a strategic ford near modern Akkurgan to control crossings and trade, integrating the river into his empire's hydraulic architecture through localized canals that bolstered Samarkand's provisioning without large-scale diversions. These fortifications, alongside (karez) systems documented in aerial surveys near Sauran, enabled mixed economies where underground galleries tapped aquifers for small-scale farming of grains and fruits amid arid steppes, sustaining both sedentary orchards and transhumant of sheep and camels north of the river. The basin's riparian zones thus demarcated to the north, reliant on seasonal floods for , from irrigated oases to the south, fostering interdependent exchanges of for agricultural surplus until the .

Imperial and Soviet Developments

The Russian Empire's conquest of Central Asia, commencing with the capture of in 1865 and extending through the 1880s, incorporated the Syr Darya basin into Turkestan Governorate, facilitating Russian settlement and initial irrigation works to support agricultural colonization. Engineers constructed modest feeder canals from the river to irrigate new farmlands for settlers, diverting water from main channels like the Syr Darya to expand and production amid nomadic-pastoral landscapes. These efforts, though limited compared to later scales, marked the onset of systematic , with navigation introduced on the lower Syr Darya from Fort Raim by the mid-19th century to aid and . Following the Bolshevik Revolution, Soviet authorities intensified cotton monoculture in the 1920s–1960s to achieve self-sufficiency, designating —including the Syr Darya basin—as the USSR's primary supplier and diverting up to 90% of river flow for irrigation via expansive networks. The Great Fergana Canal, completed in 1939–1940 after mobilization of 500,000 laborers, spanned 250 kilometers to channel Syr Darya tributaries into and , boosting irrigated acreage by enabling year-round cultivation and yields that fed Soviet industries. This expansion, while raising output from 0.7 million tons in 1930 to over 7 million tons annually by the 1980s across the union, induced early soil salinization due to inefficient conveyance losses exceeding 50% and inadequate drainage. To regulate seasonal flows for , , and , the Soviets erected major reservoirs on the Syr Darya and its , including the Toktogul Reservoir, whose construction spanned 1957–1975 with a capacity of 19.5 billion cubic meters for multi-year storage. Upstream facilities like Kurpsai and Tash-Kumyr complemented Toktogul, collectively harnessing over 40 cubic kilometers of storage by the late Soviet period to mitigate variability in the river's 37 billion cubic meters annual discharge, though operations prioritized downstream over ecological balance. These infrastructures supported peak demands but amplified upstream-downstream tensions by altering natural hydrographs.

Economic Utilization

Irrigation Systems and Agricultural Productivity

The Syr Darya basin's irrigation infrastructure, developed primarily during the Soviet era, consists of extensive canal networks totaling over 10,000 kilometers of main and inter-farm channels that divert river flows to irrigate approximately 4 million hectares of arable land, supporting agricultural output for a basin population exceeding 50 million people. These systems have been instrumental in boosting economic productivity, particularly through cotton monoculture; Uzbekistan, drawing heavily on Syr Darya waters, achieved peak raw cotton production of 5.16 million metric tons in 1985, enabling the country to supply 25 percent of global cotton exports during the 1970s and 1980s. In the , a densely irrigated hub spanning , , and , the Syr Darya's waters facilitate intensive cultivation of , , and other staples, with contributing 20 to 58 percent of provincial gross regional product across the valley's oblasts. This has driven rural employment and alleviation by enabling high-yield farming practices, such as multi-cropping on terraced fields serviced by major canals like the 270-kilometer Big Fergana Canal, which sustains outputs critical to regional and export revenues. Empirical data from field studies indicate water for in the valley averaging 0.5-0.8 kilograms per cubic meter, reflecting efficient on-farm application despite broader systemic constraints. Despite these gains, irrigation efficiency remains low due to design flaws from centralized Soviet , which emphasized rapid of unlined earthen canals—comprising about 65 percent of networks—resulting in seepage and losses of 40-68 percent of diverted water before it reaches fields. Such losses, exacerbated by poor maintenance and in arid conditions, limit overall yields and necessitate excessive withdrawals, though targeted lining efforts in select canals have demonstrated potential reductions in seepage by up to 50 percent.

Hydropower Generation and Infrastructure

The primary hydropower infrastructure along the Syr Darya is concentrated in upstream , where the river's tributary hosts a of and designed for seasonal storage and peak power generation. The Toktogul HPP, the basin's largest facility with an installed capacity of 1,200 MW, stores up to 19.5 billion cubic meters of water, enabling output that meets approximately 40% of 's total electricity demand, particularly during winter when releases align with high energy needs for heating. Supporting facilities include the Kurpsai HPP (with a reservoir capacity of 370 million cubic meters and annual generation around 2,630 GWh) and the Uch-Kurgan (Kirov) HPP (180 MW capacity), forming an integrated system that prioritizes run-of-river and reservoir-based peaking to harness the river's high-altitude flow dynamics. These upstream assets provide critical winter energy benefits by accumulating during summer and releasing it when natural flows are low, thus stabilizing Kyrgyzstan's amid its heavy reliance on (over 85% of national ). However, this operational regime creates inherent trade-offs, as winter peaking depletes reservoirs, reducing summer outflows essential for downstream power and other uses, while excessive releases can exacerbate flooding risks in lower reaches. Post-independence underinvestment has compounded technical challenges, with aging turbines, buildup, and deferred maintenance eroding across the ; reports indicate operational losses from outdated equipment and suboptimal water management, necessitating upgrades to restore full potential. Modernization efforts, including retrofits, aim to minimize these losses while preserving the dams' role in balancing the basin's energy demands against hydrological variability.

Environmental Consequences

Aral Sea Depletion and Delta Ecosystem Collapse

The , fed primarily by the and rivers, maintained a volume of approximately 1,060 cubic kilometers prior to the , with historical records indicating natural fluctuations in water levels over millennia due to climatic variations, though never approaching the scale of later decline. Beginning in the mid-20th century, Soviet-era diversions reduced inflows from these rivers by up to 90 percent, with the Syr Darya contributing significantly to the northern basin's as roughly 80 percent of its flow was redirected for agricultural use, primarily . By 2000, the sea's volume had diminished by over 90 percent to around 100 cubic kilometers, splitting into isolated remnants and exposing vast tracts of seabed. The Syr Darya , once spanning about 5,500 square kilometers of wetlands supporting diverse riparian habitats, contracted to fragmented patches by the 1990s as receding waters severed hydrological connections, leading to soil salinization and vegetation die-off across thousands of square kilometers. This collapse cascaded through the , with the commercial —peaking at around 40,000 metric tons annually in the , sustaining over 60,000 people—plummeting to near zero by the due to hypersalinity exceeding 100 grams per liter and habitat loss. Soviet policies prioritizing exports, which expanded irrigated acreage from 2 million hectares in 1950 to over 7 million by 1980, directly enabled short-term industrial output but ignored downstream ecological feedbacks, resulting in the formation of the covering 40,000 square kilometers of exposed lakebed by 2000. Dust storms from this desiccated surface now mobilize salts and sediments, affecting an area exceeding 100,000 square kilometers regionally and exacerbating respiratory illnesses and agricultural degradation in adjacent territories. While some partial stabilization occurred in the northern Aral via damming in , the southern basin's delta remains largely irretrievable without massive inflow restoration.

Pollution Sources and Water Quality Degradation

The primary sources of pollution in the Syr Darya River stem from agricultural runoff, which introduces pesticides, s, and salts via return flows and drainage waters. Intensive and cultivation in the basin, particularly in and , has led to widespread application of agrochemicals, resulting in detectable residues of legacy organochlorine pesticides such as in river sediments and , with concentrations varying seasonally and posing ecological risks to aquatic organisms. and evaporative concentration from inefficient systems elevate levels, which rise from upstream averages of 0.3–0.6 g/L to 1.5–2.0 g/L in the lower reaches during dry periods, exacerbating salinization and reducing downstream usability for despite the economic imperative of sustaining high-yield in arid conditions. Industrial effluents contribute significantly, especially from manufacturing hubs near , where untreated discharges from chemical, oil, and textile factories enter via tributaries like the Chirchik and Akhangaran rivers. Soviet-era infrastructure, including unfiltered sewer outflows and legacy waste dumps, persists as a for , hydrocarbons, and other contaminants, with municipal and industrial wastewater ranking as the second-leading pollution source after . These inputs degrade overall , often exceeding standards for potable and agricultural use in downstream . Water quality degradation has measurable human health consequences, including elevated cancer incidence in riparian populations, with long-term morbidity rates in the basin—encompassing the Syr Darya delta—reported at 1.5 times higher than control regions, linked to chronic exposure to like (VI) and persistent pesticides. Stochastic risk assessments indicate carcinogenic risks exceeding acceptable thresholds (e.g., >1×10⁻⁴) from river contaminants, alongside non-cancer effects such as renal and hepatic dysfunction, though these must be weighed against the basin's role in supporting for millions through irrigated farming.

Transboundary Governance and Disputes

Soviet-Era Water Allocation Frameworks

The Soviet Union's centralized water management system for the Syr Darya basin, operational from the 1930s through the 1980s, was overseen by Moscow-based ministries such as the Ministry of Melioration and Water Management, which enforced protocols prioritizing for in downstream republics like and . These protocols, including early frameworks like the 1945 agreement on Syr Darya reclamation, mandated seasonal releases to ensure summer flows met strict production quotas, which expanded irrigated areas to over 4 million hectares across by the 1970s, driving export revenues equivalent to 45% of the region's earnings. This top-down approach achieved in , coordinating vast canal networks and diversions that boosted agricultural output, but it distorted local incentives by treating water as a free administrative good, fostering overuse without regard for hydrological fluctuations. Inter-republican coordination balanced upstream hydropower needs in Kyrgyzstan and Tajikistan against downstream irrigation demands through a barter system, where summer water releases from upstream reservoirs supported cotton quotas in exchange for winter deliveries of fossil fuels or electricity from downstream states. Established via annual protocols under central authority, this exchange sustained GDP growth—cotton and related industries contributing up to 20% of regional output—by leveraging the river's regulated for dual water-energy utilization, with upstream storage compensating for the basin's natural spring regime. However, the system's rigidity, enforced through quotas ignoring basin-wide variability such as annual swings of 20-30%, prioritized short-term fulfillment of targets over , embedding inefficiencies like unpriced water leading to seepage losses exceeding 50% in some canals. Key infrastructure legacies included over 20 major reservoirs and dams constructed between the 1950s and 1980s, such as the Toktogul Reservoir (completed 1975, capacity 19.5 km³) and Kayrak-Kum (1960s, 4.4 km³), which regulated 70-80% of the Syr Darya's flow for equitable allocation under Soviet directives. The 1987 creation of the Syr Darya Basin Water Organization formalized inter-republican oversight, but its protocol-driven operations perpetuated centralized flaws, including suppressed innovation in water-saving technologies due to soft budget constraints in state farms. While enabling rapid industrialization—irrigation-supported growing at 4-5% annually in the 1960s-1970s—the framework's incentive structure, rewarding quota compliance over efficiency, systematically overlooked upstream ecological feedbacks and long-term limits.

Post-Independence Conflicts and Bilateral Tensions

Following the , upstream states and prioritized hydropower generation from the Syr Darya, necessitating winter water releases from reservoirs like Toktogul for peak energy demand during cold months, which conflicted with downstream Uzbekistan and Kazakhstan's reliance on summer flows for irrigating and crops across millions of hectares. , contributing 74% of the basin's flow, argued this approach asserted sovereign control over resources to alleviate domestic , while downstream states viewed it as hoarding that undermined established usage patterns supporting 80% of regional crop production. The 1998 Agreement on the Use of Water and Energy Resources in the Syr Darya Basin, signed by , , and (with acceding later), sought to mitigate these frictions via annual protocols for seasonal water releases in exchange for downstream fuel and energy deliveries to upstream operations, but implementation collapsed amid accumulating debts exceeding tens of millions of dollars for undelivered and gas. Downstream non-compliance with obligations—intended to compensate upstream for foregone winter storage—prompted upstream retaliation, as cited unpaid energy credits as justification for deviating from agreed summer discharge schedules. Specific incidents underscored the bilateral strains: in 1999, Kyrgyzstan blocked water from Syr Darya reservoirs into Kazakhstan until overdue coal shipments were fulfilled, reducing downstream irrigation availability and threatening harvests in the Kyzylorda region's rice fields, which produce 85% of Kazakhstan's rice. Similar standoffs recurred in the early 2000s, with upstream states accused of prioritizing domestic hydro needs over basin-wide equity, leading to Kazakh crop losses estimated in the hundreds of millions of dollars annually from insufficient summer flows. Downstream viewpoints emphasized historical Soviet-era allocations favoring their agricultural economies, critiquing upstream actions as infringing on de facto rights derived from basin hydrology and prior infrastructure investments. Upstream counterarguments invoked developmental , asserting that energy-scarce and —lacking fossil fuels—hold legitimate claims to exploit headwater resources for , especially given their disproportionate flow contributions versus minimal downstream benefits returned. Tensions were exacerbated by mutual accusations of mismanagement, including downstream claims of in upstream hydro projects inflating construction and operational costs through favoritism and kickbacks, though quantitative estimates vary and remain contested amid opaque state-controlled sectors. These disputes highlighted a core asymmetry: upstream seasonal hydro imperatives versus downstream imperatives, with no durable mechanism to reconcile claims against equitable utilization.

Contemporary Challenges and Prospects

Climate Change Influences

Glaciers in the mountains, the primary source of the Syr Darya's headwaters, have undergone substantial retreat, losing approximately 27% of their ice mass over the past 50 years through 2020, with area reductions of 18% across nearly 3,000 square kilometers. This empirical trend, documented via and ground measurements, reflects accelerated melting since the , where extent in the region diminished by 20-30% overall, altering seasonal flow dynamics. Rising temperatures have shifted melt patterns, increasing winter as snowpacks deplete earlier and reducing reliable summer , which historically constitutes the bulk of the river's volume from glacial and contributions estimated at 40-50% of annual runoff. Such changes disrupt traditional hydrological timing, with peak flows advancing by weeks in monitored upper tributaries like the . Hydrological models project further discharge reductions for the Syr Darya, with estimates indicating a potential 5% decline in average flow by 2050 under moderate warming scenarios, driven by diminishing glacial storage amid continued temperature increases of 1-2°C regionally. These projections, derived from ensemble simulations incorporating and variability, contrast with short-term increases observed in some upstream reaches due to enhanced melt rates, but long-term trends point to net losses as glaciers approach equilibrium lines. Population pressures in the basin, encompassing Syr Darya tributaries and supporting around 50 million residents as of recent counts with ongoing growth from 16 million in , amplify scarcity risks, as water availability already hovers below 2,000 cubic meters annually. Empirical attribution studies quantify human abstractions—primarily withdrawals for and —as the dominant factor in historical runoff declines, accounting for 83-99% of observed reductions from 1930-2015, overshadowing climatic contributions including natural oscillatory cycles like those in the . While warming accelerates glacial retreat beyond baseline variability, causal analysis underscores that , expanded since the Soviet era, represents the principal driver of basin-wide water deficits, with signals superimposed on pre-existing overuse patterns evidenced in records predating significant CO2 forcing. This distinction highlights the interplay of measurable forcings, where models isolating natural cycles show periodic fluctuations in and but insufficient magnitude to explain the sustained drawdown without consumptive withdrawals exceeding 90% of natural recharge in downstream segments.

Management Reforms and International Initiatives

The International Fund for Saving the Aral Sea (IFAS), founded in 1993 by Central Asian states, coordinates transboundary efforts to manage Syr Darya resources, including post-2000 initiatives for upgrades and data exchange amid ongoing basin degradation. World Bank-supported projects under the Syr Darya Control and Northern framework, launched in 2001, targeted hydraulic improvements, such as removing flow obstructions and building flood dikes, to minimize river losses and enhance reliability across , , and . Phase I outcomes included stabilized downstream flows, though broader adoption of canal lining to curb seepage—estimated at 30-50% in unlined systems—has progressed unevenly due to funding constraints. Kazakhstan's Kokaral Dam, completed in 2005 with financing, isolated the from further Syr Darya diversions southward, raising water levels by 3-4 meters initially and up to 12 meters by 2008 through regulated inflows. This partial restoration revived local ecosystems, boosting commercial fisheries from near collapse (under 100 tons annually pre-dam) to 1,360 tons by 2006, supporting over 1,000 jobs in Aralsk via reintroduced species like and . Subsequent phases expanded capacity, reducing seasonal inundation risks in the . In the 2020s, bilateral pacts have advanced operational coordination, exemplified by a 2025 tripartite protocol among , , and setting Syr Darya release schedules for vegetation periods, allocating specific volumes like 491 million cubic meters to for summer . These include quarterly joint sampling at four border points for and flow data, fostering transparency despite upstream priorities. Enforcement of such reforms, however, has been hampered by , with states prioritizing domestic needs over IFAS mandates, leading to compliance and persistent allocation disputes that limit scalable efficiencies. Regional assessments note that while pilot yields 10-20% loss reductions in targeted segments, systemic underinvestment and assertions undermine basin-wide gains.

References

  1. [1]
    The Syr Darya River Basin Upstream Downstream Disputes
    May 21, 2017 · The river flows approximately 2,500 km. For the basin as a whole, Kyrgyzstan and Tajikistan are the upstream countries, while Uzbekistan and ...Missing: length mouth
  2. [2]
    The Syr Darya River - World Atlas
    The Syr Darya River flows for a distance of 2,212 kilometers through the Central Asian countries of Uzbekistan, Tajikistan, and Kazakhstan.Missing: length source mouth
  3. [3]
    Syr Darya River Floodplain, Kazakhstan, Central Asia
    Oct 31, 2010 · The river was one of the farthest points reached by the ancient Greek leader Alexander of Macedon (or Alexander the Great). The floodplain is ...Missing: significance | Show results with:significance
  4. [4]
    Water, Climate Change and Cooperation in the Aral Sea Basin
    Nov 2, 2022 · The countries of the region are united by two great rivers: the Amu Darya and the Syr Darya, which provide water for household uses, agriculture ...Missing: environment | Show results with:environment
  5. [5]
    The Demands On Central Asia's Great Naryn And Syr Darya Rivers
    Aug 7, 2021 · The Syr Darya features prominently in Central Asian history and its importance today for the four countries it passes through would be difficult ...<|control11|><|separator|>
  6. [6]
    Reviving the Aral Sea: A Hydro‐Eco‐Social Perspective
    Nov 22, 2023 · The increase in the water withdrawals from the Amu Darya and Syr Darya Rivers has resulted markedly reduced inflow to the Aral Sea. The ...
  7. [7]
    Nature–society linkages in the Aral Sea region - ScienceDirect
    The artificial capture and re-channeling of the Syr Darya, and the resulting expansion of the Little Aral has, for this small part of the Aral Sea, enabled the ...
  8. [8]
    The value of cooperation under climate change in Central Asia's Syr ...
    Jun 7, 2023 · Cooperation in the water-energy-food-ecosystems nexus among countries sharing the Syr Darya River Basin can improve local livelihoods.
  9. [9]
  10. [10]
    [PDF] ANCIENT GEOGRAPHICAL NAMES CENTRAL ASIA. IN ~~
    Jaxartes flowing to the Aral by a more direct course than the present line of the. Syr Darya. " In fact," he adds, '1 there is at the present day, along the ...
  11. [11]
    The Jaxartes River, the Battle Where Alexander Defeated the ...
    Dec 7, 2024 · The Jaxartes, also known in classical sources as Orexartes (a name derived from the Persian Yakhsha Arta, meaning “Great Pearly” in reference to ...
  12. [12]
    HYDRONYMS OF CENTRAL ASIA IN THE SOURCES OF SHAIBANI ...
    Apr 8, 2025 · Also, the names of Amudarya such as Jayhun, Okuz, Vakhsh, Amu, Ob-i Omuya, names of Syrdarya such as Sir, Sayhun, Khojand, its inflows such as ...
  13. [13]
    (PDF) Some Information on the Syr Darya River in Historical and ...
    Aug 10, 2025 · The Syr Darya is one of the most frequently mentioned hydronyms in the historical and geographical works of the late Middle Ages and the Modern ...
  14. [14]
    Integration of Historical and Contemporary Data Sources in ... - MDPI
    Figure 3. Tsarist Russia historical map presenting the Syrdarya River and the Syrdarya Delta, georeferenced with GIS and laid on a modern satellite image.
  15. [15]
    The Syr Darya River - the Queen of Central Asia - Peopletravel
    u00a0By his hypothesis, the Syr Darya also was called "Yaksart" - an ancient local name, which probably was distributed among the local Saks tribes. Strabon ...<|control11|><|separator|>
  16. [16]
  17. [17]
    New Evidence from the Syr River in Central Asia in "Sui Shu·Tiele ...
    Aug 8, 2025 · Its name is probably related to the Tianshan Mountains where the Syr Darya originated. The Turkic language at that time called Tianshan Baishan, ...
  18. [18]
    Syr Darya River, one of the major rivers of Uzbekistan and Central ...
    The Syr Darya forms the northern and eastern limits of the Kyzyl Kum desert. Alexander the Great in his conquest of Persia reached the river in 329 BC and may ...Missing: significance | Show results with:significance
  19. [19]
    Uzbekistan Rivers - Advantour
    Syr Darya. Syr Daya is the longest river of Central Asia. Its length is over 2200 km. It flows through the territories of Kyrgyzstan, Uzbekistan, Tajikistan ...
  20. [20]
    Syr Darya | River, Map, Basin, & Facts - Britannica
    With a length of 1,374 miles (2,212 km)—1,876 miles (3,019 km) including the Naryn—the Syr Darya is the longest river in Central Asia, but it carries less water ...Missing: mouth | Show results with:mouth
  21. [21]
    Water resources of Syr Darya River basin - CAWater-Info
    The length of the river is 3,019 km from the headwater (and 2,212 km from the junction point), while the catchment area is 219,000 km2. Average annual Syr ...
  22. [22]
    Lower & Middle Syr Darya - Freshwater Ecoregions of the World
    Major lakes and rivers of the ecoregion include the Malyy Aral Sea (a lake),Syr Darya [Sirdario] River, Chirchik River, Arys River, Angren River, Sarysu River, ...
  23. [23]
    [PDF] Water, Climate, Food, and Environment in the Syr Darya Basin - WEAP
    The climate here is strongly determined by alpine vertical zonality, and because of that is moderately humid at high elevations to arid at the lower elevations.
  24. [24]
    [PDF] DRAINAGE BASIN OF THE ARAL SEA AND OTHER ... - UNECE
    June, July and August are the months with peak flow (on average 2,000 m3/s). Pressure factors. Besides the general pressure factors in the Amu Darya and. Syr ...Missing: snowmelt | Show results with:snowmelt
  25. [25]
    Runoff Regime, Change, and Attribution in the Upper Syr Darya and ...
    Annual total runoff has weakly increased from 1961 to 2016 for the entire USD and UAD, while the subbasins displayed divergent flow changes. Spring runoff ...
  26. [26]
    Interannual variations of the discharge of Amu Darya and Syr Darya ...
    Its total length is 2500 km. The average annual flow of the Syr Darya River is 37 km3 (Micklin, 2000). In parallel to Amu Darya, even prior to ...
  27. [27]
    [PDF] What Are the Long-Term Implications of Glacier Melt in the Tien ...
    Sep 22, 2025 · Glacier melt initially augments river flows, contributing 4–61% to streamflow in major basins, with ice melt alone accounting for 1–22% ...
  28. [28]
    (PDF) Long-term variations in runoff of the Syr Darya River Basin ...
    Aug 7, 2025 · In this study, we analyzed the hydrological and meteorological data from the Syr Darya River Basin during the period of 1930–2015 to investigate ...
  29. [29]
    Long-term variations in runoff of the Syr Darya River Basin under ...
    Jan 4, 2021 · In this study, we analyzed the hydrological and meteorological data from the Syr Darya River Basin during the period of 1930–2015 to investigate variations in ...Missing: features | Show results with:features
  30. [30]
    Accelerating River Discharge in High Mountain Asia - AGU Journals
    Aug 13, 2025 · We observed significant increasing trends in river discharge for 11,113 reaches (∼10%), particularly in smaller rivers of the Syr Darya, Indus, ...
  31. [31]
    [PDF] A snow and glacier hydrological model for large catchments - HESS
    ... Syr Darya River where the snowmelt is more likely to dominate the discharge. Snow melting is the dominate component of the runoff at the six gauging stations.<|separator|>
  32. [32]
    Battle of Jaxartes, 329 BC - Alexander's Best Battle? | Ancient Origins
    Jul 9, 2024 · Fought in 329 BC and taking place in the Dyr Darya River, historically known as the Jaxartes, the battle showed off the great Greek leader's strategic acumen.Missing: evidence | Show results with:evidence
  33. [33]
    Battle of Jaxartes - Alexander's Campaign
    The Battle of Jaxartes was a battle fought during the Persian Campaign of Alexander III the Great in 329 BCE against the Scythians at the Syr Darya Rver.Missing: evidence | Show results with:evidence
  34. [34]
  35. [35]
    Silk Roads: Fergana-Syrdarya Corridor
    It contains the remains of an early feudal castle with murals. The archaeological site is a distinctive example of Ancient and Medieval civil architecture ...
  36. [36]
    Silk Roads: Fergana-Syrdarya Corridor - World Heritage Site
    Silk Roads: Fergana-Syrdarya Corridor by Solivagant. The “Archaeological sites of Otrar Oasis” T List site consists of the remains of 7 ruined towns ...Missing: Tashkent evidence
  37. [37]
    River sediment history suggests it was climate change, not Mongol ...
    Dec 15, 2020 · An international team of researchers has found evidence in ancient river sediments that suggest climate change, not a Mongol invasion, ultimately doomed the ...
  38. [38]
    A hydromorphic reevaluation of the forgotten river civilizations of ...
    Dec 14, 2020 · ... Mongol invasions were contingent on regional hydroclimatic conditions. The Arab conquest took place at a time that was probably one of the ...
  39. [39]
    Renaissance - Period of Amir Timur and the Timurids
    In 1392 by order of Amir Timur a mighty fortress was built at the site of a major ford across the Syr Darya River (now the Akkurgan district of Tashkent region) ...
  40. [40]
    The karez of the Sauran region of Central Asia - ResearchGate
    Aug 6, 2025 · A large number of lines of water collection wells were identified by aerial surveys in the arid region near the ancient city of Sauran on the Middle Syr Darya.Missing: 19th | Show results with:19th
  41. [41]
    Russian Colonialism in Central Asia 1860-1890 - Resisting Empire
    Aug 24, 2022 · From 1860 to 1890, Russia conquered Central Asia. What started as crafting a strong border along their Siberian territories grew into the conquest of most of ...
  42. [42]
  43. [43]
  44. [44]
    Desiccation of the Aral Sea - Seventeen Moments in Soviet History
    The Aral Sea dried due to water diversion for irrigation, causing its surface area to decline and becoming saline lakes. This led to dust storms and health ...
  45. [45]
    Central Asia's dam debacle - Dialogue Earth
    Mar 1, 2012 · The Toktogul Dam, the largest of the lot, was finished in 1973 and served to control the inter-annual variability of water resources and to ...
  46. [46]
    Basin Water Organization “Syr Darya”
    2790 km, basin area is 150 100 km2.
  47. [47]
  48. [48]
    Irrigation development in the Aral Sea basin - CAWater-Info
    By 1999 total length of mains and inter-farm canals was 47,748 km (specific length 17,93 m/ha) from which 13,5 th km (28%) are covered with lining, 77% of water ...
  49. [49]
    Human and Natural Impacts on the Water Resources in the Syr ...
    The Syr Darya River Basin has a hot and arid climate in the downstream plains but a cool and humid climate in the mountains [26]. Due to the snow and ...Missing: terrain alpine
  50. [50]
    "Louder than Words": A Profile of the Destruction of the Aral Sea and ...
    For example, between 1960 and 1985, the amount of irrigated land in the Uzbek SSR, the Soviet Union's biggest cotton grower, rose by 33 percent. In the ...
  51. [51]
    [PDF] Economic Policy and Cotton in Uzbekistan - ERS.USDA.gov
    Oct 1, 2012 · Uzbekistan accounted for 25 percent of world cotton trade in the 1970s and 1980s, more than any other exporter.
  52. [52]
    Irrigation Infrastructure in Fergana Today: Ecological Implications
    (2012), agriculture in FV contributes between 20.8 % (Fergana province) to 58 % (Sogd province) to the gross regional product. The total production of cotton, ...
  53. [53]
    (PDF) Analysis of Cotton Water Productivity in Ferghana Valley of ...
    Aug 6, 2025 · PDF | Cotton water productivity was studied in Fergana Valley of Central Asia during the years of 2009, 2010 and 2011.
  54. [54]
    [PDF] Irrigation in Central Asia in figures
    ... percent concrete canals, 21.9 percent pipes and the remaining 64.8 percent unlined earthen canals. Water losses between the source and the fields depend on ...
  55. [55]
    [PDF] Efficient Irrigation and Water Conservation in Central Asia
    40% of water is lost due to filtration from irrigation canals, and over 50% of irrigated lands are afflicted by salinisation.
  56. [56]
    Comparison of water losses between unlined and lined ...
    It was observed that for the lined watercourses, the irrigation water losses ranged from 35 to 52 percent and for the unlined these were from 64 to 68 percent.<|control11|><|separator|>
  57. [57]
    [PDF] COMPARISON OF WATER LOSSES BETWEEN UNLINED AND ...
    The study was conducted on 16 watercourses, which revealed that water seepage losses from lined watercourses ranged from 8 to 19.8% of inflow. PERI (1993) ...
  58. [58]
    Power plant profile: Toktogul, Kyrgyzstan - Power Technology
    Oct 21, 2024 · Toktogul is a 1,200MW hydro power project. It is located on Naryn/Syr Darya river/basin in Jalal-Abad, Kyrgyzstan. According to GlobalData ...Missing: dam | Show results with:dam
  59. [59]
    Kyrgyzstan's Hydropower Problems Causing Concern In ... - RFE/RL
    Apr 15, 2021 · The Toktogul HPP provides some 40 percent of Kyrgyzstan's electricity, but the water level at the reservoir has been falling in recent years, ...
  60. [60]
    Power plant profile: Kurpsai, Kyrgyzstan - Power Technology
    Oct 21, 2024 · The hydro reservoir capacity is 370 million cubic meter. The gross head of the project is 106m. The project generated 2,630 GWh of electricity.
  61. [61]
    [PDF] List of hydropower stations in the Kyrgyz Republic - CAWater-Info
    Naryn river (tributary of. Syrdarya river), down stream the Toktogulskaya HPS. Capacity – 180 Megawatt, power generation – 820 mln.kWt/h, dam height – 34 m, ...Missing: Toktogul | Show results with:Toktogul
  62. [62]
    A review of hydropower in Central Asia: Past, present, and future
    These plants also host the largest reservoirs in the Amu Darya and Syr Darya Basins, respectively, serving as key regulators of river flow [46] and ...
  63. [63]
    The Importance of Water, Energy, and Food Management in the ...
    Oct 11, 2025 · Intensive hydropower production and water releases in the basin during the winter lead to water shortages during the summer irrigation season.
  64. [64]
    [PDF] Towards Secure and Sustainable Energy Supply in Central Asia:
    This study focuses on the modernisation of the electricity infrastructure in Central Asia, in particular energy efficiency improvements and clean energy ...
  65. [65]
    Inefficient hydroelectric power plants, irrational irrigation and ...
    Aug 28, 2024 · Inefficient hydroelectric power plants, irrational irrigation and corruption. What is killing the Syr Darya and how to resist it.Missing: era | Show results with:era
  66. [66]
    Introduction - The Aral Sea Crisis
    The two rivers that feed it are the Amu Darya and Syr Darya rivers, respectively reaching the Sea through the South and the North. The Soviet government decided ...Missing: path | Show results with:path
  67. [67]
    Past, Present and Future of the Aral Sea -A Review of its Fauna and ...
    Diversion of water from its only two inflowing rivers caused the Aral Sea to regress in surface area from 67,499 km2 in 1960 to only 39,734 km2 in 1990. This ...
  68. [68]
    Water and energy in Central Asia - Preventing the slow death of the ...
    Geneva, 18 June 2004 - As much as 90% of the water of the two rivers that feed the Aral Sea – the Syr Darya and the Amu Darya (total flow 116 km3 a year) ...<|separator|>
  69. [69]
    Changes in water volume of the Aral Sea after 1960
    Jun 17, 2012 · This brackish water body was the world's fourth largest lake before it started to shrink in the 1960's due to water withdrawal for land ...
  70. [70]
    Saving a Corner of the Aral Sea - World Bank
    Sep 1, 2005 · Rich delta ecosystems were largely lost. Rusted ships stranded on the desiccated seabed and ghost fishing villages are a sad reminder of the ...Missing: loss | Show results with:loss
  71. [71]
    FISHERY IN THE LOWER AMU-DARYA UNDER THE IMPACT OF ...
    In good years the Aral Sea fishery produced close to 40 000 t of which the South Aral produced 25 000 t and about 98% of all fish output of Uzbekistan. More ...Missing: collapse statistics per
  72. [72]
    [PDF] coTTon PRodUcTion And wATeR insecURiTY
    The Karakum Canal, the world's longest irrigation canal, diverts around a fifth of the Amu Darya's waters into Turkmenistan's vast desert every year to ...
  73. [73]
    Dry Tears of the Aral | United Nations
    Jun 12, 2017 · The world's fourth largest lake in 1960, the Aral Sea has already shrunk to half its former size - a result of unsustainable cotton cultivation ...Missing: pre- | Show results with:pre-
  74. [74]
    Cotton irrigation and extreme droughts: how the Aral Sea turned into ...
    44,000km2 of the area turned into desert, contributing to further spread of desert areas and climate change. These changes resulted in frequent dust storms in ...
  75. [75]
    When the Aral Sea Dried Up, Central Asia Became Dustier - Eos.org
    Nov 30, 2022 · The dry lake bed of the former Aral Sea added about 7% more dust over Central Asia in the 2000s to 2010s compared with the 1980s and 1990s.
  76. [76]
    (PDF) PARTIAL RECOVERY OF THE NORTH ARAL SEA
    Jun 4, 2018 · The North Aral catch rose from 695 metric tons in 2005 to 6000 metric tons in 2016 (Micklin et al. 2018) . Unfortunately, millions of fish are ...
  77. [77]
    Legacy and current pesticide residues in Syr Darya, Kazakhstan
    Oct 1, 2020 · The primary goal of this investigation was to determine seasonal variations in ambient concentrations of modern and legacy pesticides in bottom sediment and ...
  78. [78]
    (PDF) Legacy and current pesticide residues in Syr Darya, Kazakhstan
    The primary goal of this investigation was to determine seasonal variations in ambient concentrations of modern and legacy pesticides in bottom sediment and ...
  79. [79]
    Degradation of the Aral Sea and South Prearalie - CAWater-Info
    During dry years, the mean annual salinity of the Amu Darya water entering into the sea reaches 0.8-1.6 g/l, and salinity in the Syr Darya amounts to 1.5-2.0 g/ ...
  80. [80]
    Water quality and dissolved load in the Chirchik and Akhangaran ...
    Aug 28, 2024 · In this study, the major and trace element chemistry of surface water and groundwater from the Chirchik–Akhangaran basin were investigated
  81. [81]
    [PDF] WATER QUALITY IN THE AMUDARYA AND SYRDARYA RIVER ...
    As a result, the river water quality has deteriorated due to discharges of saline and polluted drainage water and agrochemicals that were washed out into.
  82. [82]
    The Incidence of Malignant Tumors in Environmentally ...
    Long-time average annual levels of cancer morbidity in adult population living in the Aral sea region is 1.5 times higher comparing to the control region.
  83. [83]
    Comparative analysis and human health risk assessment of ...
    Stochastic risk assessment confirmed high cancer risks (>1E−4) due to Cr (VI) contamination of the Syr-Darya River. The study results indicate the serious ...
  84. [84]
    [PDF] changing principles of international water law in central asia ...
    Reclamation and Water Management on Syr Darya (1945). 19 Protocol No. 566 of ... chose to establish the water allocation quotas set by the Soviet Union (Table 7).
  85. [85]
    Water Security in the Syr Darya Basin - MDPI
    However, the Naryn supplies about 40 percent (14.5 km3) of the average annual flow of the Syr Darya River (37.2 km3) only [81]. The focus on the Naryn River ...Missing: discharge | Show results with:discharge<|separator|>
  86. [86]
    Cross-Border Water Cooperation in Central Asia: Past, Present, Future
    Feb 16, 2021 · In 1987, the Syr Darya and Amu Darya basin administrations were created for inter-republican distribution of water resources and the ...
  87. [87]
    Water and Energy Conflict in Central Asia - State of the Planet
    Aug 18, 2009 · The hydrological regimes of the two major rivers in the region, the Syr Darya and the Amu Darya, are complex and vulnerable to climate change.
  88. [88]
    Agreement between Kazakhstan, Kyrgyzstan and Uzbekistan on use ...
    The parties not take the actions breaking the approved mode of water use and supply of energy resources, and also infringing rights of other parties to receipt ...Missing: unpaid | Show results with:unpaid
  89. [89]
    [PDF] Transboundary River Governance in Central Asia: Managing Water ...
    debts, cut off gas ... Energy Resources in the Syr-Darya River Basin between Kyrgyzstan, Kazakhstan and Uzbekistan were adopted in 1998 (Agreement, 1998).
  90. [90]
    [PDF] Asia Report, Nr. 34: Central Asia - Water and Conflict
    May 30, 2002 · The problems of increasing demand and declining supplies have been compounded by the failure of the region's nations to work together. Under the ...
  91. [91]
    Bilateral Agreements Offer a Way Out of Central Asia's Water Woes ...
    In 1999, Kyrgyzstan prevented water from its Syr Darya reservoirs from reaching Kazakhstan until a coal delivery was completed.
  92. [92]
    Central Asia: Water and Conflict | International Crisis Group
    May 30, 2002 · Tensions focus on the two main rivers of the region that both flow to the Aral Sea – the Syr Darya from Kyrgyzstan through Uzbekistan and ...
  93. [93]
    [PDF] Water Disputes in Central Asia: The Syr Darya River Basin
    The essence of the disagreement lies in the fact that being poor in oil, gas and coal upstream Kyrgyzstan and Tajikistan sometimes use their plentiful water.
  94. [94]
    [PDF] Water Corruption in Central Asia: A Rapid Review
    Oct 16, 2023 · According to academic sources analyzed in this review, widely spread in all four water sectors are such forms of corruption as favoritism, ...
  95. [95]
    Substantial glacier ice loss in Central Asia's largest mountain range
    Along the Tien Shan, glaciers have lost 27% of their mass during the last 50 years. Almost 3000 square kilometres, 18% of the total glacier's area, has been ...<|separator|>
  96. [96]
    Glacier Runoff Variation Since 1981 in the Upper Naryn River ...
    Jan 13, 2022 · For the Tien Shan, the share in total annual runoff was found to be 5.9% for the middle reaches of the Syr-Darya river while it reached 46.7% ...
  97. [97]
  98. [98]
    Hydrological response to twenty-first century climate change in the ...
    Our study shows that although annual snowmelt streamflow sharply decreases, the modeled annual total streamflow continues to rise until the middle or the end of ...Missing: Syr | Show results with:Syr
  99. [99]
    [PDF] IFAS (Aral Sea): The Way to Regional Cooperation
    Oct 9, 1992 · The state of the bottom current of Syr-Darya and Amu Darya now carry out large- scale projects on construction of new water basins to detain ...
  100. [100]
    Kazakhstan - Syr Darya Control and Northern Aral Sea Project
    The Syr Darya Control and Northern Aral Sea (Phase I) Project, will improve the hydraulic control of the Syr Darya basin, and of increased river capacity, ...Missing: IFAS | Show results with:IFAS
  101. [101]
    Syr Darya control and Northern Aral Sea – Phase 1 (SYNAS I)
    Flood protection dikes were constructed to reduce river losses. Major obstructions to river flows between the Chardarah dam and the NAS were removed, to ...
  102. [102]
    [PDF] assessment of the water-food-energy-ecosystems nexus in the Syr ...
    Hydropower contributes to the energy mix in all basin countries, but it is most important for the economies of Kyrgyzstan and Tajikistan. Thermal power plants ...
  103. [103]
    World of Change: Shrinking Aral Sea - NASA Earth Observatory
    Before the project, the Syr Darya and the Amu Darya rivers flowed down from the mountains, cut northwest through the Kyzylkum Desert, and finally pooled ...Missing: path | Show results with:path
  104. [104]
    The country that brought a sea back to life - BBC
    Jul 22, 2018 · The return of the North Aral Sea has fuelled a revival of the fishing industry in Aralsk. In 2006, the annual fish catch totaled 1,360 tons, ...
  105. [105]
    Second Phase of the Syr Darya Control and Northern Aral Sea ...
    The development objectives of the Phase two of the Syr Darya Control and Northern Aral Sea Project for Kazakhstan are to improve flood management capacity ...Missing: IFAS | Show results with:IFAS
  106. [106]
    Kazakhstan, Kyrgyzstan and Uzbekistan agree on water balance
    Sep 14, 2025 · The main agreement took the form of a protocol on the operating modes of energy and water allocation for the vegetation period of the Syr Darya ...Missing: bilateral | Show results with:bilateral
  107. [107]
    Central Asian states are sharing water resources - Eurasianet
    Jun 3, 2025 · Under the agreement, which runs from June through the end of August, Kazakhstan is allotted 491 million cubic meters of water for crop ...
  108. [108]
    Section 4. Bilateral water cooperation between the countries of ...
    According to the Work Plan, joint sampling on the Syr Darya River should be carried out on a quarterly basis at 4 agreed border sampling points – two in ...Missing: 2020s | Show results with:2020s
  109. [109]
    The Future of Water Management in Central Asia - MP-IDSA
    May 2, 2024 · The ICWC and IFAS have been unable to fully reflect the evolving national interests of the CARs. In seeking to strengthen their cooperation, ...Missing: criticisms nationalism