Environment - The Times Of Central Asia

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Satellites

Kyrgyzstan Prepares to Launch Its First Homegrown Satellite

Kyrgyzstan plans to launch its first domestically developed and assembled satellite in early October, according to the Agriculture Ministry. The spacecraft is intended to collect imagery of farmland, pastures, glaciers, and water resources. The Agriculture Ministry plans to use the data to assess crop conditions and yields, detect drought, and monitor water resources. The satellite has been under development for about two and a half years. Final preparations are underway in Bishkek, including assembling its main components, installing electronic equipment, and testing the system. The launch is scheduled to take place from California during the first week of October. Kyrgyz media have reported October 1 as the planned launch date. The project is being carried out by the state-owned company Kyrgyz Asman. It was established in 2026 under the name Kyrgyz Sputnik and renamed in June. The Times of Central Asia previously reported that the company was created to develop the use of satellite technologies and data in agriculture and natural resource management. The company is to be based in Karakol in the Issyk-Kul region. The imagery is also expected to help assess areas affected by emergencies. For Kyrgyzstan, one of the most obvious applications of such imagery is water management. Mountain glaciers feed the rivers on which agricultural irrigation depends, while satellite observation makes it possible to regularly track changes across large and difficult-to-access areas. Similar projects are emerging elsewhere in Central Asia. In August, the Chinese-built Samarkand-2028 hyperspectral Earth observation satellite was launched carrying an artificial intelligence module developed by specialists from Uzbekistan’s Uzbekcosmos space agency. The data obtained from the satellite is expected to be used for agriculture, environmental monitoring, water and natural resource management, and other applications. Samarkand-2028 was built by China’s STAR.VISION Aerospace. Uzbekistan’s own scientific satellite, Mirzo Ulugbek, is being developed by a team of seven Uzbek engineers undergoing training at Japan’s Kyushu Institute of Technology. Its launch is planned for 2028.

Water Security

Opinion: Chinese Firms Expand Their Role in Kyrgyzstan’s Water Infrastructure

Kyrgyzstan plays a central role in Central Asia’s water system and is of growing interest to China. According to figures cited by President Sadyr Japarov in April 2026, approximately 50 billion cubic meters of surface runoff are generated annually within the country. About 12 billion cubic meters are used domestically, while around 7 billion, or 14% of the total, flow to China. Kyrgyzstan has five main water-management basins. The Issyk-Kul–Tarim management area includes both the closed Issyk-Kul basin and rivers flowing toward China, making its transboundary component a distinct area of bilateral cooperation. The Aksu River, which originates in Kyrgyzstan and feeds the Tarim River in China’s Xinjiang Uyghur Autonomous Region, is particularly important. Estimates put its contribution at 70–80% of the Tarim’s flow. Given Xinjiang’s importance to China’s domestic stability and the Belt and Road Initiative, these shared waters have economic and long-term geopolitical significance for Beijing. Legal and Regional Context Kyrgyzstan and China established a strategic partnership in 2013, but no publicly available bilateral agreement specifically governs the allocation and management of their shared waters. Neither country is a party to the 1992 UNECE Convention on the Protection and Use of Transboundary Watercourses and International Lakes or the 1997 UN Convention on the Law of Non-navigational Uses of International Watercourses. The significant asymmetry in the countries’ economic and negotiating capacities makes the absence of a dedicated water-sharing framework a potential source of vulnerability for Kyrgyzstan. Its importance could grow as water stress intensifies and economic activity in the shared basins expands. For Central Asia, China’s involvement has broader implications. Kyrgyzstan is an upstream country whose rivers supply its downstream neighbors. Chinese participation in water infrastructure adds another external actor to a sector that has historically been one of the most sensitive areas in regional relations. The Changing Nature of China’s Presence China’s involvement in Kyrgyzstan’s water sector includes bilateral assistance for irrigation as well as construction contracts financed by multilateral institutions. These channels coexist, making it important to distinguish Chinese funding from work undertaken by Chinese companies. Kyrgyzstan’s chronic electricity shortage and need to modernize its water and energy infrastructure have created opportunities for greater Chinese involvement. The upgrading of bilateral relations to a comprehensive strategic partnership in the new era in 2023 provided an additional political framework, with hydropower identified as a priority for practical cooperation. Agreements totaling more than $1 billion were signed at the Kyrgyz-Chinese business forum in Urumqi in August 2023, underscoring the broader expansion of economic ties. Chinese companies are also winning contracts funded by international financial institutions. In September 2025, a Sinohydro Bureau 16–Sinohydro joint venture signed a contract for water-conveyance structures and the powerhouse for the second generating unit at Kambarata-2, financed by the Eurasian Fund for Stabilization and Development. The tender had been launched in 2024. The Asian Development Bank lists a $12.8 million contract dated July 2025 for an Issyk-Kul wastewater treatment plant, awarded to a joint venture involving China Road and Bridge Corporation. That contract includes three years...

Japanese Investment

Japanese Investment Tackles Uzbekistan’s Aral Sea Crisis

Until recently, the rehabilitation center in Akmangit, a settlement in Karakalpakstan, relied on sewage trucks to remove wastewater. Although it receives about 3,500 patients with disabilities each year, the center had no sewer system. In March 2025, a Johkasou system, a compact Japanese unit that treats wastewater biologically, was installed at the center. The treated water can now be reused for irrigation instead of being hauled away. Similar systems were installed at a kindergarten and a specialized school. In their first four months of operation, the three units treated more than 16,400 cubic meters of wastewater. Although these installations are small relative to Karakalpakstan’s water and sanitation needs, they illustrate Japan’s approach in Uzbekistan’s Aral Sea region through local pilot projects tied to longer-term development programs. During an October 2025 visit, a United Nations Development Programme (UNDP) delegation and a representative of the Embassy of Japan in Uzbekistan saw residents using the program to introduce drip irrigation and expand small businesses. A smoked-fish producer in Samanbay employed 12 people. Since 2020, Japan has funded trials of water-saving and wastewater-treatment technologies in the region, supported climate-resilient agriculture, and introduced local business-development models. These projects draw less attention than Central Asia’s uranium, critical-mineral, energy, and transport deals. In Karakalpakstan, however, Japan has pursued influence through smaller projects intended to remain in place for years. Water and Agriculture Projects In September 2023, Japan provided $2 million for a UNDP program promoting climate-resilient agriculture in four districts of Karakalpakstan. By the program’s conclusion in 2025, more than 7,700 residents had gained access to clean drinking water. The Johkasou units were among the program’s most visible elements. Developed in Japan in the late 1940s amid sanitation problems, the decentralized systems offer an alternative where centralized sewer networks are impractical. Their treated water can be reused for irrigation. The program tested another Japanese technology on the dried Aral Sea bed. In 2024, UNDP planted 1,000 saxaul seedlings using a superabsorbent polymer (SAP) that retains moisture around plant roots. Saxaul, a desert shrub or small tree, helps stabilize sand and limit the spread of salt and dust from the former seabed. The 1,000 seedlings formed part of UNDP’s Green Aral Sea initiative. Between 2020 and March 2025, the program planted 823,000 trees across 658.2 hectares. In February 2026, Japan and UNDP launched a $4.6 million project scheduled to run through 2028. Its work includes irrigation rehabilitation, digital water monitoring, wastewater reuse, and desalination powered by renewable energy. More than 1,000 farmers and households are expected to benefit. Local Business Models Japan has paired these technologies with models for local economic development. One is the One Village, One Product Movement (OVOP), which began in Japan’s Oita Prefecture in 1979. Under the model, communities develop marketable products based on local resources and skills. In Karakalpakstan, OVOP has been applied to agriculture, handicrafts, and food processing, including the small businesses visited by the delegation in October 2025. Another Japanese approach is kaizen ("continuous improvement"). It seeks to improve production and...

Nature Investment

Opinion: Financing Nature: Why Biodiversity Investment Matters for Central Asia

Just imagine: only 50 years ago, wildlife was far more abundant across many of the world’s forests, grasslands, rivers, and seas. According to the World Wide Fund for Nature’s Living Planet Report 2024, the average size of monitored vertebrate populations fell by 73% between 1970 and 2020, based on data from almost 35,000 populations worldwide. That extraordinary decline has taken place within a single human lifetime. We are used to treating this as an environmental statistic, a sad fact trotted out in a nature documentary to which we have little emotional connection. Seen this way, we miss a vital truth: food, agriculture, construction, and forestry all depend immensely on natural systems. Pollination, water filtration, soil fertility, and flood control are among the functions that biodiversity provides for us. When that infrastructure fails, the economy built on top of it becomes more expensive, then less reliable, and eventually, in some places, unworkable. Emergency Room Most of what passes for environmental action today is triage. A river floods a city that paved over its wetlands, and engineers are called in to build higher walls. A heat wave kills crops, and governments subsidize irrigation for farmland that used to be forest. A fishery collapses, and the response is a moratorium, arriving years after the fish are already gone. This is the pattern across almost every domain of environmental policy: we manage consequences with enormous expense, and we manage causes almost as an afterthought. It is also the least efficient way to run a planet. Treating a symptom after it has metastasized costs orders of magnitude more than preventing it, financially as much as ecologically. Some of this triage is now unavoidable. The carbon already in the atmosphere will continue influencing the climate for years regardless of what we do next, while a great deal of the damage caused by air pollution is already locked in and can only be managed, not undone. These are debts we are stuck repaying. Biodiversity is often different because it is still substantially in our hands. A species pushed to the edge can, with sustained effort, be pulled back from it. A degraded watershed can, over a generation, recover its function. In Kazakhstan, recent estimates place the snow leopard population at between 152 and 189 animals, close to levels last recorded in the 1980s. The recovery has been associated with sustained monitoring and habitat protection. It demonstrates that when species and ecosystems are effectively managed and adequately protected, conservation measures can deliver tangible results by maintaining biodiversity and helping threatened species recover. That kind of recovery is rare in climate policy. This disconnect risks creating dangerous trade-offs. We cannot decarbonize an economy while continuing to bulldoze the ecosystems around it. An electric vehicle removes tailpipe emissions from a city street, and that is real progress. But it also requires critical minerals such as lithium, copper, nickel, and cobalt, whose extraction can carry substantial environmental costs. None of this is a criticism of electric vehicles. It is a reminder...

Aral Sea

From Solastalgia to Solutions: What the First Aral School Cohort Discovered in Karakalpakstan

“They are producing food in a place where people believe there is nothing,” said Martina Manterola. In Karakalpakstan, the autonomous republic in western Uzbekistan where the retreat of the Aral Sea has left large areas increasingly arid, farmers continue to grow crops, while fishing survives in pockets of water near Moynaq. The Mexican researcher and artist, whose work focuses on food systems, ecology, and feminism, spent six months in the region as one of 22 participants in the first Aral School, an interdisciplinary residency based in Nukus, the regional capital, that brought together postgraduate researchers and specialists working across architecture, anthropology, water management, and food systems. Their task was to examine how environmental change is reshaping daily life and what outside researchers can learn from people who have remained in the region. What they found challenged familiar images of a landscape defined solely by environmental collapse: alongside farming and fishing, traditional buildings offer practical lessons in coping with heat, dust, and water scarcity. The Uzbekistan Art and Culture Development Foundation, the state-backed body behind the school, has opened applications for a second cohort. The next residency will run from January to June 2027 under the theme “Climate and Landscape.” The Times of Central Asia spoke with four members of the first cohort about what they learned. [caption id="attachment_56544" align="aligncenter" width="657"] Image: Aral School[/caption] Adapting to Heat, Dust, and Water Scarcity For Akhmed Kaipbergenov, an architect from Nukus, the program changed how he looked at the city where he grew up. “I always knew the environment around me. I knew how hot the summers are, how strong the wind can be, how much dust there is. But when you are a child, you don’t really think about these things as part of architecture.” After studying architecture and urban regeneration in Rome, Kaipbergenov began paying closer attention to the ways traditional buildings in Nukus respond to local conditions. Courtyards create shade and protected spaces away from the street. Building materials and orientation can reduce exposure to the sun, while ventilation matters in a city where summers are extremely hot and rainfall is scarce. “I don’t see them only as old or traditional elements,” Kaipbergenov said. “I see them as solutions that were developed because people had to live with this climate.” For him, that means contemporary architecture in Karakalpakstan should begin with simple measures rather than importing designs developed for very different environments. “Orientation, shading, ventilation, courtyards, materials and the relationship between indoor and outdoor spaces can make a big difference before we even start talking about complicated technologies,” he said. Landscaping also needs to reflect the scarcity of water. Instead of trying to reproduce water-intensive green spaces, Kaipbergenov argues that planners could make greater use of shaded pedestrian areas, courtyards, and places to sit. “I would start with shade,” he said. “It sounds very simple, but in Nukus, shade can completely change how you experience a public space.” Traditional courtyards, he believes, could also be reinterpreted in schools, libraries, and cultural...

Nuclear Waste

Central Asia Makes Progress on Uranium Cleanup, but Major Risks Remain

Radioactive waste lies beside the river in Mailuu-Suu, a former uranium town in Kyrgyzstan’s picturesque mountain landscape. Engineers preparing to secure it found a problem inside one of its dams. Additional drilling revealed tailings within the dam structure itself. Two subsequent studies concluded that waste from two connected ponds would have to be moved to a safer location. The discovery changed the cleanup design and increased its cost, according to the International Atomic Energy Agency’s revised master plan. Material that planners had intended to secure in place could no longer safely remain there. Once known as Mailbox 200, the town was founded in 1946 for a secret Soviet uranium program. Its workforce included Germans treated as politically suspect and former Red Army soldiers punished for surrendering during World War II. Uranium mining and processing at Mailuu-Suu ended in the late 1960s, leaving waste buried along the river. Cleanup is expected to continue until 2032. Even then, the authorities will need to maintain the restored sites and check that contamination remains contained. Mailuu-Suu illustrates why Central Asia’s uranium cleanup has stretched across decades. The waste sits in places where rivers and unstable slopes can carry it beyond the original industrial sites. Making those places safer requires extensive engineering, followed by public oversight that must outlast the contractors. [caption id="attachment_56370" align="aligncenter" width="1774"] Archival photograph of Mailuu-Suu’s old mill and uranium tailings; image: Peter Waggit/IAEA[/caption] The International Atomic Energy Agency’s latest assessment, published in January 2026, records substantial progress. Four out of seven priority sites have been remediated since the original regional plan was adopted in 2017. But Mailuu-Suu remains one of the largest and most complex projects, with work expected to extend beyond the updated regional plan’s 2030 horizon. Across the region, former uranium operations left radioactive residue after mining and processing ended. The IAEA describes facilities abandoned without adequate plans for safe closure. National governments inherited responsibility for sites where no private owner remained to pay for the work. The geography compounds the situation. The IAEA’s original planning framework identifies tailings ponds near major rivers in seismically active areas. Flooding or a landslide can undermine containment and lead to contaminated materials traveling downstream. The location of a deposit therefore helps determine the urgency and design of its cleanup. At Mailuu-Suu, the European Bank for Reconstruction and Development (EBRD) announced a €23 million grant in 2023. The original design included soil covers two meters thick to reduce water entering the waste and prevent access to it. The project concerned more than two million cubic meters of tailings along the river and its tributaries. Following the devastating 2023 earthquake in Turkey and Syria, Kyrgyzstan’s Ministry of Construction required further checks on the dams’ stability. Drilling revealed tailings inside the dam at pond seven. Subsequent studies found that the waste in ponds five and seven could not safely remain in place. The IAEA plan warns that a strong earthquake could cause the dam to collapse, allowing water-saturated waste to liquefy and enter the river....