• KGS/USD = 0.01143 0%
  • KZT/USD = 0.00205 0%
  • TJS/USD = 0.10724 0.09%
  • UZS/USD = 0.00008 0%
  • TMT/USD = 0.28571 0%
  • KGS/USD = 0.01143 0%
  • KZT/USD = 0.00205 0%
  • TJS/USD = 0.10724 0.09%
  • UZS/USD = 0.00008 0%
  • TMT/USD = 0.28571 0%
  • KGS/USD = 0.01143 0%
  • KZT/USD = 0.00205 0%
  • TJS/USD = 0.10724 0.09%
  • UZS/USD = 0.00008 0%
  • TMT/USD = 0.28571 0%
  • KGS/USD = 0.01143 0%
  • KZT/USD = 0.00205 0%
  • TJS/USD = 0.10724 0.09%
  • UZS/USD = 0.00008 0%
  • TMT/USD = 0.28571 0%
  • KGS/USD = 0.01143 0%
  • KZT/USD = 0.00205 0%
  • TJS/USD = 0.10724 0.09%
  • UZS/USD = 0.00008 0%
  • TMT/USD = 0.28571 0%
  • KGS/USD = 0.01143 0%
  • KZT/USD = 0.00205 0%
  • TJS/USD = 0.10724 0.09%
  • UZS/USD = 0.00008 0%
  • TMT/USD = 0.28571 0%
  • KGS/USD = 0.01143 0%
  • KZT/USD = 0.00205 0%
  • TJS/USD = 0.10724 0.09%
  • UZS/USD = 0.00008 0%
  • TMT/USD = 0.28571 0%
  • KGS/USD = 0.01143 0%
  • KZT/USD = 0.00205 0%
  • TJS/USD = 0.10724 0.09%
  • UZS/USD = 0.00008 0%
  • TMT/USD = 0.28571 0%

Viewing results 19 - 24 of 86

Up to Eighty Persian Leopards Now Roam Turkmenistan

Between 60 and 80 Caucasian leopards, also known as Persian leopards, currently inhabit Turkmenistan, according to extensive monitoring conducted throughout 2025. The findings confirm not only the stable presence of this rare predator in key ecological zones but also provide encouraging signs of population recovery. A recent report by Conservation X Labs estimates Turkmenistan’s Persian leopard population at 60-80 individuals. Most breeding activity occurs within protected natural reserves, while border zones serve as critical migration corridors that support the dispersal and genetic diversity of the species. The Persian leopard is one of the largest leopard subspecies and plays a vital role in maintaining biodiversity in Turkmenistan. The majority of the national population is concentrated along the Kopetdag Mountains, near the border with Iran. Camera trap data also confirms a significant presence in the Uly-Balkan Range, an area of ecological importance. It supports the potential repopulation of the Garabogazgol region and sustains habitat connectivity with neighboring Kazakhstan. The re-confirmed presence of leopards along the southern coast of Garabogazgol is viewed as a particularly meaningful indicator of the species’ gradual return to its historical range. In 2025, monitoring efforts were significantly expanded. A wide network of camera traps was deployed across key habitats, providing more accurate and consistent long-term data. The data confirms that individual leopards have been present in the same territories over multiple years. Notably, a third breeding female has now been recorded in the Uly-Balkan mountains, an important development for the species’ viability. Conservation X Labs researchers describe the findings as “an important step in the conservation of the species,” citing improvements in habitat quality, sufficient prey availability, and the cumulative impact of long-term conservation efforts. Despite this progress, the global outlook for the Persian leopard remains fragile. Experts estimate that the total wild population numbers between 750 and 1,044 individuals, including only 450-626 adults. The majority of these leopards live in fragmented and declining habitats across the region. As such, the subspecies is listed as endangered in the IUCN Red List of Threatened Species. Turkmenistan’s leopard population thus serves as a rare example of regional recovery, underscoring the importance of continued monitoring, cross-border cooperation, and sustained habitat protection.

Ashgabat to Host Regional Center for Combating Desertification in Central Asia

A regional center dedicated to combating desertification will be established in Turkmenistan's capital Ashgabat. The center aims to coordinate efforts among Central Asian nations to address environmental and water management challenges. According to Pirli Kepbanov, Director of the National Institute of Deserts, Flora and Fauna under Turkmenistan’s Ministry of Environmental Protection, the new institution will consolidate regional scientific and practical capacities to tackle transboundary issues affecting agriculture and water resources. “Based at the center, the region’s states will be able to cooperate on shared concerns related to agricultural production and water infrastructure,” Kepbanov said. Ashgabat’s selection as the host city is no coincidence. Turkmenistan has long been a regional hub for desert science, with established research institutions specializing in land degradation, desert ecosystems, and the adaptation of economic activity to arid conditions. “There are only four such scientific institutes worldwide, and one of them is the National Institute of Deserts, Flora and Fauna of Turkmenistan,” Kepbanov added. He also emphasized Turkmenistan’s historical role in developing desert science across Central Asia and beyond. “The first Chinese desert scientists trained here,” he said, adding that contemporary Chinese experts acknowledge Turkmenistan’s important contributions to their national school of desert research. Currently, the National Institute collaborates with the Xinjiang Institute of Ecology and Geography in China, the A.N. Kostyakov Federal Scientific Center for Hydrotechnics and Land Reclamation in Russia, and is receiving partnership proposals from universities across Central Asia.

Turkmen Scientists Develop Plan to Extinguish the Darvaza Gas Crater

Scientists from the Scientific Research Institute of Natural Gas, under the state concern Turkmengaz, have proposed a method to extinguish the Darvaza gas crater, an uncontrolled fire that has been burning for decades in Turkmenistan’s Karakum Desert. The development was reported by Nebit-Gaz. The proposed solution involves drilling a new well to divert natural gas away from the crater. Researchers believe this strategy could significantly reduce, and eventually halt, the gas flow fueling the fire. If successful, the plan would allow Turkmenistan to mitigate environmental damage and conserve valuable energy resources. Turkmen officials have increasingly framed the Darvaza fire as both an environmental liability and an economic loss. Burning methane contributes to greenhouse gas emissions, while the continuous flare represents wasted natural gas in a country heavily dependent on energy exports for revenue. Located roughly 270 kilometers north of Ashgabat, the crater, officially named the “Glow of the Karakum”, sits atop the Chaljulba structure of the Zeagli-Darvaza group of gas fields. It measures approximately 60 meters in diameter and is 20 meters deep. The formation resulted from the collapse of an exploratory gas well. To prevent methane from harming local populations and wildlife, scientists ignited the gas, expecting the fire to burn out within days. However, the blaze has continued uninterrupted. Gas has been burning at the site since 1971, making the crater one of Central Asia’s most unusual natural and industrial spectacles. Researchers at the institute have conducted in-depth studies of the region’s geological structure, identifying a complex network of thin gas-bearing layers between 200 and 950 meters underground. These layers are interspersed with water-bearing and dense rock formations and are often hydrodynamically connected, enabling gas migration between them. Experts caution that extinguishing the fire has never been straightforward. The crater is fed not by a single reservoir but by multiple interconnected gas pockets, complicating efforts to isolate and shut off the fuel source. This interconnectivity explains why the fire persists despite the initial reservoir being relatively modest. Previous attempts to extinguish the fire included examining the crater floor to locate the original wellbore. Turkmengaz safety teams descended into the crater in hopes of installing flow-control equipment, but gas was found to be leaking from multiple surface outlets, rendering those efforts ineffective. Engineers found that sealing individual outlets risked increasing pressure elsewhere in the field, raising concerns that poorly planned interventions could trigger new leaks rather than resolve the problem. Now, using updated geological and production data, scientists have proposed drilling an operational and appraisal well in the Chaljulba field. By intensively extracting gas from the most productive reservoir, they aim to alter subsurface pressure conditions and redirect the gas away from the crater. According to Nebit-Gaz, this scientifically grounded approach offers a realistic path toward halting the fire and minimizing its environmental impact. If successful, the strategy could also allow some of the diverted gas to be captured for industrial use, potentially turning a long-standing liability into a limited economic resource. The Darvaza fire has drawn global attention...

Turkmenistan and Spain Eye Regional Center to Combat Desertification in Central Asia

Turkmenistan and Spain have discussed closer cooperation to address desertification in Central Asia, including the possible creation of a regional center focused on land degradation. The talks took place in Ashgabat during a meeting between Turkmenistan’s Minister of Environmental Protection and Spain’s ambassador to Russia, Ricardo Martínez Vázquez, who is also accredited in Turkmenistan. The discussions followed Turkmen President Serdar Berdimuhamedov’s proposal at the United Nations General Assembly to establish a specialized regional center to combat desertification in Central Asia. The initiative is intended to strengthen cooperation among regional states and attract international expertise and funding. [caption id="attachment_41076" align="aligncenter" width="1000"] Image: mineco.gov.tm[/caption] Desertification is a growing concern across Central Asia, a region where arid and semi-arid landscapes dominate much of the territory. The United Nations Convention to Combat Desertification defines desertification as land degradation in dry areas caused by climatic variations and human activities. According to the UNCCD, more than 20% of land in Central Asia is already degraded, affecting around 30% of the population. Much of this damage is linked to unsustainable water use, intensive agriculture, overgrazing, and the long-term effects of climate change. Spain’s interest in desertification in Turkmenistan is rooted in their shared status as nations on the front lines of climate change. As one of the European countries most vulnerable to soil degradation, Spain co-launched the International Drought Resilience Alliance (IDRA) to export its expertise in "dryland" management and water conservation, which is directly applicable to the arid landscapes of Central Asia. This common challenge has fostered a diplomatic partnership focused on the United Nations Convention to Combat Desertification (UNCCD), where countries exchange strategies for land restoration and drought resilience. Beyond environmental solidarity, Spain views Turkmenistan as a critical emerging market for its advanced engineering and agricultural sectors. Major Spanish firms, such as TYPSA, are already active in the region, providing technical assistance for massive infrastructure projects, such as desalination plants on the Caspian Sea, and modernizing irrigation systems for thousands of hectares of farmland. This commercial engagement is bolstered by Spain's support for Turkmenistan’s proposal to host a Regional Center for Climate Change Technologies, which would serve as a hub for Spanish green tech in Central Asia. The bilateral relationship also aligns with the broader EU Strategy for Central Asia, which prioritizes environmental stability as a means of ensuring regional security. By helping Turkmenistan manage its dwindling water resources and combat the encroaching Karakum Desert, Spain contributes to the EU for a Green Turkmenistan initiative. This cooperation helps prevent resource-driven migration and instability, and strengthens trade ties in a region that is becoming increasingly vital for global energy and logistics. One of the most visible examples of desertification in the region is the collapse of the Aral Sea. Once the world’s fourth-largest inland lake, the Aral Sea began shrinking rapidly in the 1960s after its feeder rivers were diverted for large-scale irrigation projects. By the early 2000s, the sea had lost roughly 90% of its volume. [caption id="attachment_13621" align="aligncenter" width="2560"] Desert ships on the former...

Russia Revives Plan to Redirect Siberian Rivers as Central Asia Faces Worsening Water Crisis

The long-contested idea of diverting Siberian rivers to Central Asia has re-emerged after the Russian Academy of Sciences announced on November 14 that it is studying a new version of the project. The updated proposal revives elements of a Soviet-era plan from the 1970s and 1980s that aimed to channel water from the Ob River basin to arid regions of Central Asia. This time, however, the focus is on a closed pipeline system, rather than open canals, to transport large volumes of water to countries facing acute shortages, particularly Uzbekistan, according to Fergana News. Discussions within the Russian Academy had reportedly already begun prior to the announcement. Researchers are now calling on Russia’s Ministry of Science and Higher Education to include a full study of the project in its state research plan. They argue that Central Asia is entering a critical phase of water scarcity that demands long-term strategic solutions. The renewed interest comes amid escalating water stress across the region. Rapid population growth, retreating glaciers, and intensifying irrigation demands have pushed existing water systems to their limits. While some view the proposed pipeline as a potential lifeline for stabilizing regional water supplies, environmental concerns remain central to the debate, echoing the very reasons the original project was shelved. A Long History of Controversy The idea of redirecting northern rivers is not new. It was first proposed in the 19th century by Ukrainian-born engineer Yakov Demchenko, who envisioned transferring water from the Ob and Irtysh rivers to replenish the shrinking Aral Sea. In the Soviet period, the concept gained political traction. By the late 1960s, it had entered official planning discussions, prompting detailed studies by the Academy of Sciences, the State Planning Committee, and the Ministry of Water Resources. In 1970, the project was formally designated a state priority, with plans for transferring up to 25 cubic kilometers of water annually. Extensive technical documentation was produced, and construction began on supporting infrastructure, including the Irtysh-Karaganda canal. Designs for the main channel envisioned a span of more than 2,500 kilometers and a capacity exceeding 1,000 cubic meters per second. However, by 1986, the project was halted due to mounting economic pressures, scientific opposition, and growing awareness of potential environmental risks. Experts warned of large-scale flooding, disruptions to groundwater, damage to fish stocks, displacement of Indigenous communities, and unpredictable impacts on permafrost and regional climate systems. Renewed Debate in a Region Under Stress Though shelved in the late Soviet era, the project has resurfaced multiple times since the collapse of the USSR. Former Moscow mayor Yuri Luzhkov advocated for its revival in 2002, and Russian and Kazakh presidents discussed it publicly in 2010. Yet concerns about environmental and geopolitical ramifications have consistently stalled progress. Meanwhile, the water crisis in Central Asia has only deepened. Glaciers in the Tien Shan and Pamir mountains which feed the Amu Darya and Syr Darya rivers have shrunk by more than 25% in recent decades. The region’s population has grown to approximately 80 million, nearly 50% higher...

Turkmenistan Identified as World’s Largest Source of Methane Super-Emitters

Turkmenistan has emerged as the top global source of major methane emissions in the oil and gas sector, according to new data published by the U.S.-based Stop Methane project. The findings, widely reported by Central Asian media, are based on satellite observations collected between January 1 and November 12 of this year. Researchers at the University of California, Los Angeles, which leads the project, compiled the ranking using satellite data to identify sites with the highest methane emissions over specific time intervals. The list includes locations where emissions ranged from 3.7 to 10 tons per hour, levels deemed significant contributors to atmospheric pollution. Industrial facilities in Turkmenistan, particularly near Esenguly and Turkmenabat in the Balkan province, accounted for the majority of high-emission events. Out of the 25 entries in the ranking, 17 are located in Turkmenistan, far more than any other country. The remaining positions are held by a handful of other states, including Venezuela, Iran, Pakistan, and the United States. Decades-old Soviet-era infrastructure is widely cited by independent energy analysts as one of the main reasons Turkmenistan dominates global methane-leak rankings. Much of the country’s gas production network relies on older pipelines, compressors, and separation units that were never modernized to international leak-prevention standards. Because methane is colorless and odorless at industrial concentrations, these failures can persist unnoticed for long periods without satellite monitoring. Experts note that relatively inexpensive upgrades - such as replacing valves, improving maintenance, and installing continuous monitoring - could sharply reduce emissions if implemented. Stop Methane analysts based their assessment on over 3,000 methane plumes detected at approximately 2,000 oil and gas sites worldwide. The data was collected using the U.S.-operated Tanager-1 satellite, which monitors key oil and gas extraction zones. The satellite’s capabilities allow for the detection of large leaks that are often invisible from the ground. The surge in methane detection over the past two years reflects not a sudden rise in leaks but a leap in the resolution of satellite instruments now able to spot plumes previously undetectable. Earlier monitoring systems could identify only massive blowouts, whereas newer platforms - including Tanager-1 and NASA’s EMIT - can map medium-sized leaks in near-real time. This technological shift has revealed a methane footprint far larger than governments and companies had reported, making emissions visible to the international community and accelerating calls for transparency and mitigation. The organization highlighted the serious environmental impact of methane, emphasizing its role in both air pollution and climate change. Beyond the climate implications, methane leaks represent a direct economic loss for Turkmenistan. The International Energy Agency estimates that most methane emissions in the oil and gas sector can be avoided at little or no net cost because the captured gas can be sold. For a country whose budget relies heavily on gas exports, the volume of methane escaping from super-emitter sites translates into millions of dollars of lost revenue annually. Addressing these leaks, therefore, offers both environmental and fiscal benefits. For context, a site emitting five tons of methane...