​University Research

The university’s research and innovation agenda is organized around six integrated clusters that address both national development priorities and global sustainability goals:

Hydrology, Hydraulics, and Sustainable Environmental Engineering

At the heart of KazNUWMI’s academic foundation lies advanced hydrology and hydraulic engineering—the study of water flow, infrastructure design, and basin-scale management. Research focuses on nature-based and hybrid engineering solutions, such as constructed wetlands, river restoration, and green flood protection systems that enhance ecosystem services while protecting infrastructure.
Special attention is given to artificial groundwater recharge systems, including managed aquifer recharge (MAR) and infiltration basins that store seasonal flows and treated wastewater in subsurface reservoirs. These approaches help stabilize groundwater levels, improve water quality, and increase drought resilience in arid regions.
Students and researchers apply AI, IoT, and satellite technologies to design, monitor, and optimize these systems—creating smart, adaptive water networks for sustainable urban and agricultural development.

Water Sanitation and Hygiene (WASH)

Research focuses on low-cost, decentralized solutions for safe water supply, wastewater treatment, and hygiene promotion in rural and vulnerable communities. Innovations include biochar/sand filtration, solar desalination, and IoT-enabled monitoring for water quality assurance. The integration of behavioral science enhances the social sustainability of sanitation initiatives, ensuring equitable access to clean water in line with SDG 6.

Sustainable Water Infrastructure and Climate Resilience

KazNUWMI develops climate-adaptive water infrastructure that integrates engineered and natural systems. Projects explore AI-driven dam operations, sediment control through vegetated buffers and wetlands, and IoT-based diagnostics for aging hydraulic networks.
Nature-based flood management — including retention ponds, riparian forest buffers, and urban green corridors — complements traditional hydraulic structures, enhancing the resilience of cities and agricultural zones to extreme hydrological events. The center also promotes artificial recharge as a strategy for aquifer recovery, seasonal water storage, and ecosystem stabilization under changing climate conditions.

Precision Water Management for Agriculture

Combining remote sensing, precision irrigation, and soil-water modeling, this area advances sustainable agricultural production. Research focuses on satellite-guided drip/sprinkler systems that adjust irrigation based on soil moisture and crop needs, supported by solar-powered micro-irrigation for smallholder farms.
Projects incorporate salinity management, nutrient recovery, and reuse of treated wastewater—applying circular economy principles to agricultural water systems. Artificial recharge and subsurface storage of excess irrigation return flows are being tested as part of integrated water–soil–crop management strategies in Kazakhstan’s main irrigation basins.

​​Hydrology and Ecosystem Restoration

​​This research area applies machine learning-based watershed modeling, isotope tracing, and eco-hydrological interventions to restore degraded river basins and wetlands. Initiatives address challenges such as Aral Sea rehabilitation, wetland recovery, and industrial pollution control through phytoremediation and biogeochemical buffering systems.
Nature-based approaches—such as floodplain reconnection, reforestation of riparian zones, and constructed recharge wetlands—are used to restore natural hydrological cycles and biodiversity. These systems also contribute to groundwater replenishment and improved ecosystem resilience under climate stress.

​​Water–Energy–Food Policy Nexus

Recognizing the interdependence of water, energy, and agriculture, this area develops integrated governance models for transboundary basins like the Syr Darya and Amu Darya. Research aligns hydropower operations, wastewater reuse, and agricultural productivity with climate adaptation and conflict prevention.
Projects also evaluate policy instruments for artificial recharge, water trading, and nature-based investments, ensuring that Kazakhstan’s water management frameworks promote sustainable growth and regional cooperation.

​​AI and Remote Sensing Water Solutions

​​Leveraging multi-sensor satellite data (optical, SAR, LiDAR, hyperspectral) and machine learning, this area develops real-time water monitoring and predictive analytics for surface and groundwater systems. Applications include drought/flood forecasting, snowmelt modeling, and cryosphere dynamics.
AI-driven tools help identify potential recharge zones, assess land-use change impacts on hydrology, and optimize nature-based flood control infrastructure. These insights are embedded into cloud-based decision support platforms for policymakers, utilities, and basin organizations.

Mission and National Role

​KazNUWMI serves not only as an academic institution but also as a national scientific and technical authority in support of Kazakhstan’s state-run water programs.

Its mission includes:

By combining scientific excellence, policy engagement, and practical implementation, KazNUWMI strengthens Kazakhstan’s ability to manage its water resources responsibly and resiliently.

Vision and Outlook

​KazNUWMI envisions becoming a regional and global center of excellence in Integrated Water Resources Management (IWRM), advancing Kazakhstan’s leadership in sustainable water engineering, climate resilience, and transboundary cooperation.

Through interdisciplinary education, digital innovation, and strong partnerships with national ministries, research institutes, and international organizations, the university drives progress toward a water-secure, climate-smart, and ecologically balanced future.

Empowering innovation, nature-based resilience, and scientific leadership for a sustainable water future.