Center for Water Research and Climate Change

About the centre

Our Arena & Consortium

The Center for Water Research and Climate Change (CWRCC) operates as an interdisciplinary arena that integrates scientific research, policy engagement, and capacity building to address complex challenges related to water resources and climate variability. Our arena brings together expertise in water science, hydrology, hydrogeology, climate science, environmental engineering, geospatial analysis, ecology, and socio-economic assessment, enabling a holistic understanding of water–climate–human interactions. Through advanced modeling, field-based investigations, data-driven analytics, and community-centric approaches, the Center focuses on sustainable water management, climate resilience, risk reduction, and adaptive strategies across regional and global contexts. CWRCC also serves as a platform for dialogue between academia, government agencies, industry, and civil society, ensuring that research outcomes translate into actionable solutions and informed decision-making.

The CWRCC is a collaborative network of national and international universities, research institutes, policy bodies, and industry partners committed to advancing excellence in water and climate research. The consortium fosters joint research programs, faculty and student exchanges, co-supervision of doctoral research, shared laboratories and data resources, and co-hosted workshops and conferences. By leveraging diverse geographical perspectives and institutional strengths, the consortium enhances innovation, promotes knowledge transfer, and supports the development of scalable solutions to water security and climate change challenges. This collaborative framework strengthens global partnerships, builds regional capacity, and positions CWRCC as a knowledge hub dedicated to sustainable development and climate-resilient water futures.

The Center for Water Research and Climate Change (CWRCC) is embedded within a strong and expanding global network of academic institutions, research organizations, policy bodies, and development agencies dedicated to addressing water and climate challenges. Through strategic international collaborations, the Center promotes joint research, knowledge exchange, and capacity building across diverse climatic and socio-economic regions. These global networks enable collaborative projects, shared datasets, co-authored publications, and researcher and student mobility programs, fostering cross-border learning and innovation. By engaging with global platforms, professional societies, and multilateral initiatives, CWRCC aligns its research with international frameworks and best practices related to water security, climate adaptation, and sustainable development. This global connectivity enhances the Center’s ability to address transboundary water issues, support evidence-based policymaking, and contribute to global dialogues on climate resilience. Through its international partnerships, CWRCC strengthens its role as a global knowledge hub committed to developing inclusive, science-driven solutions for a climate-resilient and water-secure future.

Prof. (Dr.) Saranjit Singh, Vice Chancellor, KIIT-DU

Prof. (Dr.) Sutanu Mangal, Assistant registrar, KIIT-DU

Under plan and process

(i) National Chung Cheng University, Taiwan-MOU with CWRCC.
(ii) Shizuoka University: FY2025 University’s World Expansion Strengthening Project-InSPIRE – Industry-Upgrading Japan–India Co-Creation Human Resource Development Program (Collaborative Project)

We Offer

  • Water Resources Assessment & Management: Integrated assessment of surface water and groundwater systems, water availability, demand analysis, and sustainable management planning.
  • Climate Change Impact & Adaptation Studies: Climate risk assessments, vulnerability mapping, and development of adaptation and resilience strategies for water, agriculture, and urban systems.
  • Hydrological & Hydrogeological Modeling: Advanced modeling for river basins, aquifers, flood forecasting, drought analysis, and climate scenario-based simulations.
  • Flood, Drought & Disaster Risk Management: Hazard mapping, early warning system support, risk mitigation planning, and post-disaster assessment.
  • Groundwater Exploration & Sustainability: Aquifer characterization, recharge potential studies, groundwater quality assessment, and managed aquifer recharge planning.
  • Water Quality & Environmental Monitoring: Pollution assessment, water quality indexing, environmental impact studies, and compliance support.
  • Urban & Rural Water Solutions: Integrated water management for cities and rural areas, including rainwater harvesting and wastewater reuse strategies.
  • Policy Advisory & Regulatory Support: Evidence-based policy inputs, guidelines, and technical support for water and climate-related governance.
  • Capacity Building & Training: Customized training programs, technical workshops, and professional development for institutions and agencies.

  • Evidence-Based Policy Formulation: Translating scientific research into actionable policy recommendations for water resources management and climate adaptation.
  • Climate-Resilient Water Governance: Supporting the design of governance frameworks that integrate climate risk, sustainability, and resilience into water policies.
  • Advisory Support to Government & Institutions: Providing technical advice and expert inputs to national, state, and local governments, regulatory bodies, and planning agencies.
  • Alignment with National & Global Frameworks: Assisting in aligning policies with SDGs, Nationally Determined Contributions (NDCs), climate action plans, and water security goals.
  • Stakeholder Engagement & Dialogue Facilitation: Facilitating multi-stakeholder consultations among policymakers, researchers, practitioners, and communities.
  • Policy Briefs & Knowledge Products: Preparing policy briefs, white papers, guidelines, and strategic reports to inform decision-makers.
  • Mainstreaming Climate Adaptation & Mitigation: Integrating climate change considerations into sectoral policies related to water, agriculture, energy, and urban development.
  • Regulatory Review & Reform Support: Reviewing existing policies and regulations to identify gaps, risks, and opportunities for reform.
  • Capacity Building for Policymakers: Conducting targeted training and sensitization programs to strengthen institutional capacity in water and climate governance.
  • Advocacy for Inclusive & Sustainable Development: Promoting equity-driven, community-responsive, and science-led policy approaches for long-term water and climate resilience.

  • Research-Oriented Internships: Hands-on exposure to ongoing research projects in water resources, climate change, hydrology, and environmental sustainability.
  • Interdisciplinary Learning Environment: Opportunities to work across disciplines such as water science, hydrology, climate science, policy studies, and data analytics.
  • Field & Laboratory Exposure: Practical training through field surveys, data collection, sampling, and laboratory-based analysis (where applicable).
  • Data Analysis & Modeling Skills: Training in hydrological and climate modeling, statistical analysis, and use of scientific tools and software.
  • Policy & Development Sector Exposure: Engagement with policy briefs, impact assessments, and climate adaptation and mitigation studies.
  • Mentorship by Experts: Guidance from experienced faculty members, scientists, and industry professionals.
  • Short-Term & Long-Term Internships: Flexible internship durations tailored for undergraduate, postgraduate, and doctoral students.
  • Academic & Professional Skill Development: Support in scientific writing, report preparation, presentations, and research ethics.
  • Collaborative & Team-Based Work: Participation in interdisciplinary teams, workshops, seminars, and knowledge-sharing activities.
  • Certification & Career Support: Internship completion certificates, recommendation support, and guidance for higher studies or professional careers.

  • Professional Training Programs: Short-term and long-term training programs for professionals, researchers, and practitioners in water and climate-related sectors.
  • Technical Skill Development: Hands-on training in hydrological modeling, climate data analysis, GIS, remote sensing, and decision-support tools.
  • Climate Change Adaptation & Resilience Training: Capacity building on climate risk assessment, vulnerability analysis, and development of adaptation strategies.
  • Water Resources Management Workshops: Training on integrated water resources management (IWRM), groundwater sustainability, and basin-scale planning.
  • Policy & Governance Capacity Building: Programs designed for policymakers and administrators to strengthen evidence-based water and climate governance.
  • Field-Based & Experiential Learning: Practical exposure through field visits, case studies, and real-world problem-solving exercises.
  • Customized Institutional Training: Tailor-made training modules for government departments, academic institutions, NGOs, and industry partners.
  • Training for Students & Early-Career Researchers: Skill enhancement programs focusing on research methods, data handling, scientific writing, and ethics.
  • National & International Expert Engagement: Sessions delivered by leading experts from academia, research organizations, and global institutions.
  • Certification & Knowledge Dissemination: Certification upon completion and access to training materials, toolkits, and knowledge resources.

PhD degrees offered in Environmental Engineering and Environmental Science.

 

Objectives

“Water is the most precious resource on Earth. Without it, life as we know it would not exist.” It is not only supporting the life but also maintaining the balance of our planet’s ecosystems. The preservation and management of water resources are essential for the health of the environment and the continuity of life itself. In the recent decade the water pollution has been a critical global issue that affects ecosystems, human health, and economies due to different factors (Industrial discharges, agricultural runoff, sewage and wastewater, plastic pollution, oil spills, deforestation, climate change, etc.) expanding population, urbanization, and industrialization across the globe. The increasing rate of water demand has a negative impact on water supply and poses a significant effect on the ecosystem.

The climate change is intensifying the variability and extremes in water availability, resulting in more frequent and severe droughts, floods, and shifting weather patterns. Even, the flow of water streams has been changing due to the construction of dams, water abstraction, natural-anthropogenic activities, and consequently increased demand for water resources. Furthermore, the water becomes unusable when harmful substances contaminate water bodies, rendering them unsafe for consumption, recreation, and supporting wildlife. Therefore, there are several factors are affecting the world’s water resources such as Climate Change, Hydro-climatic variables, Land Use and Land Cover Change, Evapotranspiration, Groundwater extraction, precipitation and flood risk, soil erosion, earth’s radiation balance and albedo, population, urbanization, and industrialization. Addressing water pollution requires a combination of better waste management practices, stricter regulations, and increased public awareness to safeguard our water resources and protect both environmental and human health.

 

  • Target Projects/proposals focusing on water quality Monitoring and Management Technologies.
  • Bridge collaboration with various Govt. Initiatives to Implement CWRCC solutions to enhance the efficiency of water resource management systems.
  • Centre Explore: How the CWRCC supports climate change adaptation and mitigation by developing models and frameworks to bolster water resource resilience.
  • Consultancy projects.
  • Collaboration (National and International) by partnering and MOU.
  • Organize conferences, workshops, exchange programs, etc., emphasizing clean water and sanitation for global impact.
  • Develop and offer educational programs, training workshops, knowledge transfer, and skill development programs to build capacity in CWRCC among researchers, and practitioners.
  • Research publication and patents.
  • Multidisciplinary Programs, Training and PhD courses and degree offered in Environmental Engineering and Environmental Science.

Goals

Academic Programs at CWRCC

At CWRCC, we offer an array of interdisciplinary academic programs that combine theoretical knowledge with hands-on practical experiences. Our programs are designed to foster innovation, critical thinking, and problem-solving skills needed to tackle complex issues in water resource management and climate change.

PhD in Environmental Science: Designed for rigorous research in water remediation, sustainable resource management, and climate adaptation, preparing researchers for cutting-edge innovations in environmental science.

Tech in Environmental Engineering:Focuses on applying engineering solutions to environmental challenges, emphasizing water treatment, waste management, and sustainable infrastructure, with a strong scientific foundation.

PhD in Environmental Engineering: Research-based program that explores advanced environmental technologies, bioremediation, and climate-resilient infrastructure, preparing candidates for leadership roles in engineering innovation.

Certificate Course in Environmental Science and Engineering: Offers specialized training in environmental technologies and sustainable practices, equipping participants with fundamental knowledge and hands-on experience in environmental management.

Training in Environmental Science and Engineering: Provides practical training in environmental monitoring, water remediation, and engineering solutions, enhancing technical skills for solving real-world environmental challenges.

Our programs feature real-world learning opportunities through fieldwork, internships, and industry collaborations. Students have access to advanced research labs and participate in international exchange programs that allow them to gain global perspectives on water and climate issues.

Short-term Goals

–  Projects/proposals focusing on water quality Monitoring and Management Technologies.
–  Research publication and patents.
–  Consultancy projects.
–  Collaboration (National and International) by partnering and MOU

i) Funding of Research Projects from Govt and Private.

(ii) Consultancy projects.

(iii) Collaboration (National and International) by partnering and MOU.

(iv) Exchange programs, emphasizing clean water and sanitation for global impact.

(v) Research publication.

(vi) Summer program: Short term program on metal analysis in water and soil.

Long-term Goals

Bridge collaboration with various Govt. Initiatives to Implement CWRCC solutions to enhance the efficiency of water resource management systems.

Centre Explore: How the CWRCC supports climate change adaptation and mitigation by developing models and frameworks to bolster water resource resilience.

Multidisciplinary Programs, Training and PhD courses and degree offered in Environmental Engineering and Environmental Science.

Organize conferences, workshops, exchange programs, etc., emphasizing clean water and sanitation for global impact.

Develop and offer educational programs, training workshops, knowledge transfer, and skill development programs to build capacity in CWRCC among researchers, and practitioners.

i) Develop and offer educational programs, training workshops, knowledge transfer, and skill development programs to build capacity in CWRCC among researchers, and practitioners.

(ii) Research publication and patents.

(iii) Multidisciplinary Programs, Training and PhD courses and degree offered in Environmental Engineering and Environmental Science.

(iv) MSC, PhD in Next academic year

(v) News Letter/Journal publication (online and hardcopy).

Labs and Facilities

Our Research Facilities & Laboratories

CWRCC offers state-of-the-art laboratories and research facilities that support both academic and industrial research in water science and climate adaptation. Our labs are equipped with advanced instruments and technologies that enable cutting-edge research in areas such as hydrology, water quality analysis, and climate modelling.

Key Laboratories include

The Water Quality Analysis Lab at CWRCC is equipped with advanced instrumentation for testing the physical, chemical, and biological properties of water. This lab focuses on detecting contaminants, including heavy metals, organic pollutants, and microbial pathogens in surface and groundwater. The lab supports environmental monitoring projects, ensuring water safety and regulatory compliance.

The Water Remediation Lab develops innovative technologies for removing pollutants from water. Utilizing biochar, activated carbon, and photocatalytic materials, the lab works on solutions for purifying industrial wastewater and contaminated natural water systems.

The Environmental science and Biochemistry Lab focuses on understanding the biochemical pathways that contribute to environmental health. The lab explores the molecular mechanisms of pollutant detoxification, soil and water interactions, and microbial processes essential for bioremediation, supporting sustainable environmental management.

Equipment available: Different Institute/Group/Department in KIIT
Equipment available with Generic Name of Equipment Model, Make & year of purchase Remarks including accessories available and current usage of equipment
Free of charge
(Depend on availability)		 Minor Equipment (Micropipetter set, Stirrer, Pump, etc) Tarson/Genaxy/Remi, 2022 In Use
BOD Incubator shaker Scientech, 2022 In Use
Ultrasonic disintegrator Hielsler Ultrasonicator, 2019 In Use
Gel electrophoresis set up Cleaver, 2022 In Use
Freezer (4 and -20°C) Samsung, 2022 In Use
BOD Incubator Scientech, 2022 In Use
pH meter Hanna, 2021 In Use
Biosafety Cabinet BSL II Revaunee, 2021 In Use
Refrigerated centrifuge Remi C24 plus, 2022 In Use
Department/School
(Sample analysis in pay basis)		 Autoclave Osworld, 2019 In Use
-20°C freezer Vest Frost Solutions, 2018 In Use
Gel documentation system BioRad In Use
Spectrofluorometer FLS1000, 2022 In Use
UV-Vis Spectrophotometer Agilent Cary3500 and Cary60 In Use
FT-IR Thermo Nicolet iS50 FT-IR In Use
NMR Jeol 400, 2022 In Use
LCMS with MDS Agilent 6545XT In Use
HPLC Agilent 1290 Infinity II LC In Use
DLS 1260 Infinity II MDS Dual- In Use
Raman Spectrometer Renishaw InVia, 2022 In Use
MP-AES Agilent 4210 In Use
Central Research Facility
(Sample analysis in pay basis)		 SEM ZEISS EVO 18 SEM In Use
Ion Chromatography Metrohm 930 PEEK Professional Intelligent IC PC controlled with GLP/GMP compliance In Use
FESEM Zeiss Gemini SEM450 In Use
CHN Analyzer PerkinElmer 2400 Series II In Use
400MHz NMR SPECTROMETER JNM-ECZ400S/L1: 400MHz NMR Spectrometer MADE IN: JEOL, JAPAN In Use
X-ray diffraction (XRD) In Use
Micro-Raman Spectrometer RENISHAW InVia Raman Microscope In Use
Other Institute(s) in the region

Research Areas

(Research at CWRCC)
Research at CWRCC focuses on finding sustainable solutions to the most pressing water and climate challenges. Our interdisciplinary research approach brings together experts in water science, hydrology, climate science, engineering, environmental policy, and public health to address these issues holistically. Our key research areas include

Water Management and Water Quality

CWRCC’s research on Water Management and Water Quality focuses on developing advanced models to monitor and predict water scarcity, pollution, and contamination levels in various ecosystems. Through cutting-edge technologies, the center investigates the impacts of industrial pollutants, agricultural runoff, and urbanization on water systems. Additionally, the center strives to design efficient strategies for sustainable water resource management, emphasizing the implementation of real-time monitoring systems and innovative filtration technologies to enhance water quality and ensure access to safe, clean water for all communities.

Sustainable Water Technologies

The research at CWRCC under Sustainable Water Technologies explores innovative approaches to conserve water, reduce environmental impact, and promote renewable energy integration. The center is actively engaged in developing water-saving technologies. These technologies are designed to be scalable and cost-effective, addressing water scarcity in both urban and rural areas. By advancing eco-friendly solutions, CWRCC supports sustainable water use and reduces dependency on conventional, resource-intensive water management practices.

Climate Resilient Agriculture

In Climate Resilient Agriculture, CWRCC’s research focuses on adapting agricultural practices to withstand climate change-induced stressors such as drought, salinity, and extreme weather events. The center develops sustainable agricultural methods, including improved irrigation techniques, soil health management, and the introduction of drought-resistant crop varieties. By promoting the efficient use of water resources in agriculture, the center helps farmers adapt to changing climatic conditions while ensuring long-term agricultural productivity and food security.

Soil and Water Quality Enhancement with Phytoremediation

CWRCC’s research on enhancing soil and water quality through phytoremediation investigates the use of plants to remediate contaminated soils and restore ecosystem health. This innovative and eco-friendly approach applies to wetland ecosystems, where plants are utilized to clean contaminated water and soil. The center focuses on evaluating the effectiveness of different plant species in removing heavy metals and pollutants, as well as the influence of soil amendments on the phytoremediation process. Additionally, CWRCC aims to develop prototype models for wetlands and contaminated lands while monitoring soil and water quality through various strategic vegetation approaches, which will be valuable for industry-ready projects.

Climate Resilience in Water Infrastructure

CWRCC is dedicated to exploring innovative approaches to designing and retrofitting water infrastructure that can withstand the multifaceted impacts of climate change. As extreme weather events become more frequent and sea levels rise, the resilience of water systems is critical for safeguarding communities, ecosystems, and economies. CWRCC aims to contribute to the creation of robust water infrastructure that not only meets current demands but is also capable of adapting to future climate challenges, ensuring the sustainability and health of water resources for generations to come.

Climate Resilience in Water Infrastructure

Climate change is significantly impacting hydrological cycles, leading to changes in precipitation patterns, evaporation rates, and groundwater recharge. CWRCC’s research is crucial in analyzing these shifts, evaluating evaporation dynamics, and understanding groundwater recharge. The center develops models to assess vulnerabilities in water supply systems and identify regions at risk of water scarcity. By providing insights into these dynamics, CWRCC informs water management strategies and ensures sustainable water availability.

-Sustainable techniques for industrial waste management

-Ground water improvement

-Soil stabilization

-Geotechnical & geoenvironmental issues

-Phytoremediation of contaminated soil & groundwater

-Geopolymer in soil stabilization and industrial waste utilization

-Environmental Microbiology;

-Radiation Biology,

-Microbial Biotechnology Erath and Environmental Pollution Monitoring and Management (Water, and soil);

-Wastewater and soil treatment;

-Environmental nanotechnology,

-Environmental Biogeochemistry.

AI, Machine Learning & Big Data in Water Science: Application of artificial intelligence and data-driven approaches for forecasting, optimization, and decision-making.

Nature-Based Solutions (NbS): Exploring ecosystem-based approaches for flood control, groundwater recharge, and climate adaptation.

Climate–Water–Energy–Food Nexus: Integrated analysis of interlinkages among water, energy, food security, and climate change.

Climate Extremes & Compound Events: Research on floods, droughts, heatwaves, and compound climate extremes and their impacts on water systems.

Urban Climate Resilience & Smart Water Systems: Innovations in smart sensing, real-time monitoring, and climate-resilient urban water infrastructure.

Groundwater–Climate Interactions: Advanced studies on aquifer responses to climate variability and anthropogenic stress.

Carbon–Water Linkages: Understanding the role of water systems in carbon cycling, sequestration, and mitigation strategies.

Transboundary Water Challenges: Research on shared river basins, water diplomacy, and cooperative governance under climate change.

Socio-Hydrology & Climate Justice: Integrating human behavior, equity, and social dimensions into water and climate research and policy.

Projects

  • Applied Projects: Title: Design, Optimization, and Demonstration of Chemical Column and Pressure Injection Treatment to Enhance the Shear Strength Characteristics Along with Phytoremediation of the Abandoned Ash Pond. Funding: SERB_CRG, Govt of India.
  • Ongoing Projects: CWRCC is actively involved in numerous research projects that aim to tackle real-world challenges in water sustainability and climate adaptation. Some of our key projects include

Remediation of Toxic Elements and Organic Pollutants from Industrial Wastewater

CWRCC focuses on the remediation of toxic elements and organic pollutants from industrial wastewater using carbon-based materials such as biochar and activated carbon. These materials are effective in adsorbing heavy metals and organic pollutants, reducing their concentration in aqueous environments. This project aims to develop eco-friendly, cost-effective methods for wastewater treatment, contributing to cleaner water systems and environmental protection.

Monitoring of Toxic Elements and Organic Pollutants

This project involves the monitoring of toxic elements and organic pollutants like pesticides in groundwater and surface water. CWRCC employs advanced analytical techniques to assess contamination levels, providing crucial data for environmental monitoring and policy-making. The goal is to ensure water safety and prevent long-term ecological damage from pollutants.

Optimizing Chemical Treatment and Phytoremediation for Ash Pond Rehabilitation

CWRCC optimizes chemical additives and eco-friendly methods to improve soil, water, and contaminated land. It tests formulations, applies native plants to remove pollutants, and enhances biodiversity. The goal is to establish self-sustaining ecosystems with minimal maintenance, promoting long-term environmental health and rehabilitation.

Generation of Climate-Resilient Crops

This project focuses on creating climate-resilient crops through advanced agricultural techniques and biotechnology. By developing crop varieties that can withstand extreme weather, drought, and salinity, the project aims to ensure food security in the face of changing climate conditions, supporting sustainable agriculture.

  1. Title: ‘Exploring the potential of radiation-modified microbial/ bacteria consortia in bio augmentation of metal decontamination in polluted wastewater/groundwater’by Prof. Jyoti Prakash Maity. Collaborative Research Scheme (CRS) Project of UGC-DAE CSR, Govt of India (Ref. CRS/2024-25/02/1516)
  2. Title: ‘ Studies on the γ- adiation-induced effects of successive plant generations (F1, F2, and F3) and yield production from food grain, and correlation with heavy metal (e.g., As, Cr, Ni, Pb, etc.) tolerance/stress response‘ by Prof. Jyoti Prakash Maity. Collaborative Research Scheme (CRS) Project of UGC-DAE CSR, Govt of India. (Ref: CRS/2021-22/02/475)

Projects Experience by Team Members of Centre

SL No Name Designation Department/School
1 Prof (Dr.) Jyoti Prakash Maity Professor School of Applied Science
2 Dr. Dillip Kumar Bera Associate Professor and Dean School of Civil Engineering
3 Prof (Dr.) Prasanta Rath Professor and Dean School of Applied Science
4 Prof (Dr.)  Tapan Kumar Bastia Professor and Associate School of Applied Science
5 Dr. Aparupa Pani Associate Professor & Associate Dean (Research) School of Civil Engineering
6 Dr. Alok Kumar Panda Assistant Professor School of Applied Science
7 Dr. Kshyana Prava Samal Associate Professor & Associate Dean (Academics) School of Civil Engineering

Publication

ARTICLES
Sl. No Title Journal/Book/Patent Publication House IF Scopus/SCE Month/Year
1 Evaluation and mitigation of potentially toxic elements contamination in mangrove ecosystem: Insights into phytoremediation and microbial perspective Journal: Marine Pollution Bulletin Elsevier 4.9 Scopus and SCE 12/2024
2 Taiwan’s mysterious mollusks: a deep dive into the cryptic hybridization of Pomacea canaliculata and Pomacea maculata Journal: Evolutionary Ecology Springer Nature 2.1 Scopus and SCE 12/2024
3 Harnessing Environmental DNA to Explore Frugivorous Interactions: A Case Study in Papaya (Carica papaya) and Pineapple (Ananas comosus) Journal: Environmental DNA Wiley 5.6 Scopus and SCE 12/2024
4 Hydrothermal synthesis of hydroxyapatite nanoparticles using biosurfactant and application on mesenchymal stem cells Journal: Ceramics International Elsevier 5.6 Scopus and SCE 02/2025
5 Root-Associated Plant Growth-promoting Bacteria in Mangrove Ecosystem and its application in sustainable biotechnology Journal: Indian Journal of Microbiology Springer Nature 1.6 Scopus and SCE 03/2025
6 Trace elements in soils, their uptake by crops and potential health risks: Insights from a legacy mining area in Oruro, Bolivian Altiplano Journal of Environment al Science, Health & Sustainability Enviromind Solutions 2.8 Scopus and SCE 04/2025
7 Environmental DNA Metabarcoding Effectively Detects Invasive Species, Pests, and Community Changes in Taiwan’s Rice Fields Journal: BioRxiv - - Scopus and SCE 10/2025
8 Ultra-fast adsorption of the industrial cationic dye pollutant using nitric acid-activated rice straw biochar: insights into adsorption mechanisms Biomass Conversion and Biorefinery Springer Nature 4.1 Scopus and SCE 01/2025
9 Mycobacterial Small Heat Shock Proteins: Dissecting Their Roles in Pathogenesis and Development of Therapeutics ACS Infectious Diseases ACS 3.8 Scopus and SCE 02/2025
PATENT
1 NA - - - - -
2 NA - - - - -
BOOK / POPULAR ARTICLE / BOOK CHAPTER
1 Plant defense mechanisms and signaling pathways in response to Ozone stress: Impacts on crop productivity BOOK: In Role of Antioxidants in Abiotic Stress Management Elsevier - - 01/2025

Conference Publications

Maity, J.P., Das, U., Sarangi, B. S., Mahapatra, S., Mishra, T., Satapathy, S., Chattopadhyay, S., Daripa, S., Singha, S., 2025. The potential of radiation-modified bacteria consortia for metal removal from wastewater. 26th Odisha Bigyan ‘o’ Paribesh congress and 1st International Conference on ‘Sustainable Green Frontiers’

Mahapatra, S., Maity, J.P., Mishra T., Bhattacharya, P., 2025. Hidden pathways of pollution: microplastics in the Kuakhai River (tributary of Mahanadi) with possible groundwater infiltration. International Conference on Sustainable Groundwater Management for Societal Uses and Eco-System Services.

Mahapatra, S., Maity, J.P., Mishra T., Bhattacharya, P., 2025. Hidden pathways of pollution: microplastics in the Kuakhai River (tributary of Mahanadi). Odisha. 26th Odisha Bigyan ‘o’ Paribesh congress and 1st International Conference on ‘Sustainable Green Frontiers’.

Mishra, T., Singha, S., Mahapatra, S., Maity, J.P., Bhattacharya, P., 2025. Impact of seasonal recharge and anthropogenic activities on groundwater with reference to fluoride Contamination in Paradeep regions, Odisha. International Conference on Sustainable Groundwater Management for Societal Uses and Eco-System Services.

Mishra, T., Singha, S., Mahapatra, S., Maity, J.P., Bhattacharya, P., 2025. Impact of seasonal recharge and anthropogenic activities on groundwater with reference to fluoride Contamination in the Chilika & Paradeep regions, Odisha. 26th Odisha Bigyan ‘O’ Paribesh Congress and 1st International Conference on ‘Sustainable Green Frontiers’.

Satapathy, S., Maity, J.P., Maharana, R., 2025. A Sustainable waste management using phosphorus enriched composts to increase the nodulation, growth, and yield of Vigna radiata L.: A Green Alternative towards chemical fertilizer, Odisha. 26th Odisha Bigyan ‘O’ Paribesh Congress and 1st International Conference on ‘Sustainable Green Frontiers’.

Climate & SDGs Contribution

  • Advancing SDG 6 – Clean Water & Sanitation: Research and solutions focused on water availability, quality, efficiency, and sustainable management of water resources.
  • Supporting SDG 13 – Climate Action: Climate impact assessments, adaptation planning, and resilience-building strategies to address climate variability and extremes.
  • Contributing to SDG 11 – Sustainable Cities & Communities:Promoting climate-resilient urban water systems, flood risk reduction, and sustainable infrastructure planning.
  • Linkages to SDG 2 – Zero Hunger: Supporting climate-smart agriculture and irrigation efficiency through water–climate research.

  • Ecosystem Protection (SDG 14 & SDG 15): Research on freshwater ecosystems, watershed management, and nature-based solutions for biodiversity conservation.
  • Strengthening SDG 9 – Industry, Innovation & Infrastructure: Development of innovative tools, models, and technologies for water and climate resilience.
  • Policy Support for SDG Integration: Translating scientific evidence into policies aligned with national and global SDG frameworks.
  • Capacity Building for SDG Implementation: Training programs and skill development to support SDG monitoring, reporting, and implementation.
  • Data & Knowledge Sharing: Generating open, science-based data and knowledge products to support SDG indicators.
  • Global Partnerships (SDG 17): Fostering national and international collaborations to accelerate climate action and sustainable development goals.

Faculty Members

Prof (Dr.) Jyoti Prakash Maity

(Head CWRCC)

Scopus ID: 9042945300,
ORCID ID: 0000-0003-4702-335X,

 

Google Scholar ID: https://scholar.google.com/citations?user=2roEuREAAAAJ&hl=en

Prof. Maity focuses on water monitoring, particularly inorganic and organic contamination in surface and subsurface water (groundwater). His work includes developing innovative materials for water remediation, such as hydroxyapatite nanoparticles, and using biotechnological solutions for sustainable water pollution control. He also contributes to water conservation by promoting phosphorus management in saline soils and climate-resilient agriculture. His research highlights the integration of water resource management with climate change resilience, particularly in the fields of wastewater treatment and biofuel production from algae. Specialization: Erath and Environmental Pollution Monitoring and Management (Water, and soil); Wastewater and soil treatment; Environmental nanotechnology, Environmental Biogeochemistry; Environmental Microbiology, Radiation Biology, Microbial Biotechnology. Publication: >150; Citations: 6214 ; h-index: 48; i10-index: 91.

Prof. Prasanta Rath

Scopus Id: 7006729390
Google Scholar:
https://scholar.google.co.in/citations?user=npTTn9kAAAAJ&hl=en

Prof. Rath’s research covers water monitoring, heavy metal remediation, and water conservation. He assesses pollution levels in water bodies like the Mahanadi River, using advanced statistical techniques to track contamination. His work on water remediation involves removing arsenic and lead from water sources. His studies on nutrient cycling in aquatic ecosystems contribute to sustainable resource management. He also explores climate-resilient agriculture and the impact of climate change on water resources, integrating climate models and water quality data to predict future water management challenges.

Prof. Tapan Kumar Bastia

Scopus ID: 6508257147
Google Scholar:
https://scholar.google.com/citations?user=1TVx1A4AAAAJ&hl=en

Prof. Bastia’s research focuses on water monitoring, water remediation, and sustainable agricultural practices. He studies metal contamination in coastal ecosystems and uses bio-remediation techniques and nanomaterials to purify polluted water sources. His work in water conservation seeks to optimize water usage in agriculture, especially in drought-prone areas. He also investigates climate-resilient agriculture, focusing on nutrient cycling and optimizing fertilization under adverse climatic conditions. His research is vital for developing sustainable agricultural practices to mitigate climate change impacts.

Dr. Dillip Kumar Bera

Scopus ID: 57217099650
https://orcid.org/0000-0003-2319-7339

Dr. Bera’s research explores sustainable construction materials with direct implications for water conservation and remediation. He investigates the use of eco-friendly materials like fly ash and nano-slag to improve water filtration and reduce pollution. His work on pervious geopolymer concrete helps reduce surface runoff and promote groundwater recharge. By developing materials that enhance soil permeability, his research supports climate-resilient agriculture. His emphasis on green construction materials contributes to creating sustainable infrastructure while addressing climate change challenges.

Dr. Kshyana Prava Samal

Email: [email protected]
Scopus Id: 57191275619

https://orcid.org/0000-0003-0200-5182
Google Scholar: https://scholar.google.com/citations?user=PBj3vrAAAAAJ&hl=en

Dr. Samal’s work focuses on water quality assessment in urban areas using techniques like the Water Quality Index. Her research in water remediation includes analyzing water seepage in agricultural systems to optimize irrigation. She also investigates water conservation in urban environments, using decision trees and modeling to optimize household water usage. In climate-resilient agriculture, her work emphasizes improving irrigation efficiency and conserving water in water-scarce regions. Her research is crucial for understanding how climate change affects water systems.

Dr. Alok Kumar Panda

Email: [email protected]
Scopus Id: 54581436700

https://orcid.org/0000-0002-4452-993X
Google Scholar: https://scholar.google.com/citations?user=NUOQP6EAAAAJ&hl=en

Dr. Panda works on developing advanced materials for water remediation, such as nanocomposites for degrading organic pollutants in water. He explores eco-friendly solutions like biochar from agricultural waste for water purification. His contributions also extend to climate-resilient agriculture, where he develops stress-tolerant rice varieties to improve crop resilience. His research addresses climate change by evaluating greenhouse gas emissions from agricultural practices and exploring sustainable alternatives like bioplastics, providing strategies to mitigate environmental impacts.

Dr. Aparupa Pani

(Associate Professor & Associate Dean Research School of Civil Engineering)

SCOPUS ID: 57204563780

Email: [email protected]; [email protected];
Mob. No: +919861384939, +917008652310

ORCID ID: https://orcid.org/0000-0002-1457-2152, https://scholar.google.co.in/citations?user=CZCOfXMAAAAJ&hl=en,
Aparupa Pani pursed her B.Tech in Civil Engineering from KIIT University, Bhubaneswar. Further she pursued her Master and PhD in Geotechnical Engineering from NIT Rourkela, focusing on industrial waste management, with a full-time MHRD Scholarship, Government of India. During her PhD, she received the Best Presenter Award at the 50th Indian Geotechnical Conference in COEP, Pune, India. Dr. Pani specializes in geotechnical and geoenvironmental engineering, currently focusing on the chemical treatment of contaminated soil and groundwater while incorporating phytoremediation techniques. Her research expands into sustainable methods for industrial waste management, ground improvement, soil stabilization, landfill management, and municipal solid waste issues. Currently, she is actively engaged in projects on water monitoring, soil drying, and phytoremediation, particularly examining the effects of climate variations on water retention and food production. As part of her water conservation efforts, she investigates bio-based solutions to enhance soil water-holding capacity and integrates renewable energy into drying technologies to reduce the carbon footprint of agricultural practices. Additionally, her research on fly ash/ashpond stabilization enhances soil remediation and contributes to resilient infrastructure in climate-impacted regions. Currently she is working as an Associate Professor & Associate Dean Research in the School of Civil Engineering at Kalinga Institute of Industrial Technology (KIIT) in Bhubaneswar. Dr. Pani serves as a reviewer for numerous national and international journals and has published a significant number of high-quality research articles in high-impact journals (SCI/Scopus). She collaborates with various industries, state governments, and institutes to foster multidisciplinary research and recently secured a prestigious government-sponsored project on “Design, Optimization, and Demonstration of Chemical Column and Pressure Injection Treatment to Enhance the Shear Strength Characteristics Along with Phytoremediation of the Abandoned Ash Pond” worth approximately 42 lakh under the SERB_CRG scheme as the principal investigator. Her research interests include Geotechnical Engineering, Geo-environmental Engineering, Geopolymerization, Solid Waste Management, Soil Stabilization, Ground Improvement, and Phytoremediation. Passionate about learning and collaborative research, she believes such efforts lead to innovative solutions.

List of PhD Scholars

  • SARBANEE  MAHAPATRA: Occurrence of microplastic in surface water and soil ecosystem as well as their mitigation.
  • TANISHA  MISHRA: Occurrences, fate and transport, and mitigation of fluoride in Odisha
  • SIDDHARTHA DARIPA: Radiation effects of seed and plant
  • Aritra Krishana Dey: Earth radiation balance
  • SOURASIS CHATTOPADHYAY: Environmental modelling for climate change
  • SHAKTI PRASAD SATAPATHY:  Environmental Waste Management
  • Tuhin K. Jib: Waste to Wealth Conversion, Phytoremediation of Contaminated Land, Industrial Waste Management
  • Pratyasha Singh:Waste to Wealth Conversion, Phytoremediation of Contaminated Land, Industrial Waste Management and Utilization, Mines Overbuden Slope Stability Study
  • BHABANI SANKAR SARANGI: Environmental Monitoring & Assessment With Sustainable Remediation.

Collaboration with academic Institution

National

  • NIT Rourkela.
  • State Pollution Control Board, Odisha.
  • DY Patil University, Kolhapur, Maharastra, India.
  • UGC-DAE-CSR, Govt. of India.
  • State Pollution Control Board, Odisha

National Chung Cheng University, Taiwan.

KTH Royal Institute of Technology, Stockholm, Sweden.

University of California, Berkeley, USA.

China Agricultural University, Beijing, China.

Institute of Physics, Rosario, Argentina

Department of Geology, Ferdowsi University of Mashhad, IRAN.

National University of Singapore, Singapore.

McGill University, Canada.

TTPs NTPC, Odisha

Scope of works (As a faculty, Ph.D. scholar, post doc scholar, Industry or collaborative Industry: Mention separately)

  • Conducting cutting-edge research and Lead as well as coordinate interdisciplinary research programs in water resources and climate change.
  • Sustainable Funding received by the faculty member.
  • Supervise Ph.D., postdoctoral researchers, and student interns.
  • Develop research proposals and secure national and international funding.
  • Publish high-impact research and contribute to policy briefs and technical reports.
  • Design and deliver training, workshops, and academic courses.
  • Foster national and international collaborations and global networks.

  • Conduct original, high-quality research aligned with CWRCC’s thematic areas such as water and climate change.
  • The student design and develop the innovative methodologies
  • Apply advanced field, laboratory, modeling, and data-analytics techniques.
  • Publish research findings in peer-reviewed journals and conferences.
  • Contribute to consultancy, policy studies, and capacity-building programs.
  • Assist in mentoring junior researchers and interns.
  • Participate in national and international collaborative projects.

  • Undertake advanced, independent research in emerging areas of water and climate science.
  • Co-lead funded research projects and contribute to proposal development.
  • Publish extensively and support interdisciplinary integration.
  • Mentor Ph.D. scholars and postgraduate students.
  • Support technology development, modeling tools, and knowledge products.
  • Engage in international research exchanges and collaborations.

  • Collaborate on applied research, pilot projects, and technology validation.
  • Co-develop innovative solutions for water and climate challenges.
  • Provide real-world datasets, case studies, and technical inputs.
  • Support internships, training, and skill development programs.
  • Participate in joint funding proposals and translational research.

  • Establish long-term strategic partnerships for joint R&D initiatives.
  • Co-create policy-relevant tools, decision-support systems, and guidelines.
  • Support commercialization, scaling, and deployment of innovations.
  • Engage in capacity building, workshops, and executive training programs.
  • Contribute to national and global sustainability and SDG-driven initiatives.
  • Joint research and publications: Asper list of the publication
  • The joint provision of workshops: Under process
  • Exchange of undergraduate, graduate students, and research scholars: Under process

The Centre (CWRCC) will make transformative contributions across society, academia, and industry by addressing on Water Research and Climate Change.

a) Impact on Society

The Center for Water Research and Climate Change (CWRCC) has created a significant positive impact on society by addressing pressing water and climate challenges that directly affect communities and livelihoods. Through applied research, field-based studies, and community engagement, the Center contributes to improved water security, climate resilience, and disaster risk reduction. Its work supports better management of floods, droughts, groundwater depletion, and water quality issues, thereby enhancing public health, food security, and ecosystem sustainability. By promoting nature-based solutions and inclusive adaptation strategies, CWRCC helps vulnerable and marginalized communities cope with climate variability and extreme events. The Center also plays an important role in awareness generation by disseminating scientific knowledge in accessible forms, supporting stakeholder consultations, and encouraging community participation in water governance. Its policy-relevant research ensures that societal needs are reflected in planning and decision-making processes. Overall, CWRCC strengthens societal resilience, improves quality of life, and supports sustainable development by bridging science, policy, and community action in the face of climate change.

b) Impact on Academics

CWRCC has emerged as a strong academic hub that advances interdisciplinary research and academic excellence in water and climate sciences. The Center provides a collaborative platform for faculty, researchers, Ph.D. scholars, and students to engage in high-quality research, innovation, and knowledge creation. It enhances academic impact through peer-reviewed publications, collaborative projects, funded research, and participation in national and international conferences. By integrating advanced tools such as climate modeling, GIS, remote sensing, and data analytics, the Center strengthens research rigor and methodological innovation. CWRCC also contributes to academic capacity building through training programs, workshops, internships, and expert mentorship, fostering the next generation of scientists and policy-oriented researchers. Its collaborative networks facilitate joint supervision, faculty exchange, and global research exposure. The Center’s emphasis on translating research into policy and practice further enriches academic relevance and societal engagement. Overall, CWRCC elevates academic standards, promotes interdisciplinary learning, and strengthens the global visibility and impact of water and climate research.

c) Impact on Industry

The Center for Water Research and Climate Change creates tangible value for industry by enabling science-driven, sustainable, and climate-resilient solutions. Through industry collaborations, consultancy services, and applied research, CWRCC supports sectors such as water management, infrastructure, agriculture, energy, urban development, and environmental services. The Center provides technical expertise in risk assessment, resource optimization, climate impact analysis, and decision-support systems, helping industries manage climate risks and comply with environmental regulations. Collaborative projects allow industries to pilot innovative technologies, validate models, and adopt best practices in water efficiency and sustainability. CWRCC also contributes to workforce development by aligning training and internship programs with industry needs, thereby enhancing skill readiness and employability. Its research outputs support long-term planning, cost-effective operations, and resilience against climate uncertainties. By bridging academia and industry, the Center promotes innovation, supports responsible business practices, and accelerates the adoption of sustainable technologies, contributing to both economic competitiveness and environmental stewardship.

d) Impact on the Economy

CWRCC contributes to economic resilience and sustainable growth by supporting efficient resource management and reducing climate-related risks. Its research helps optimize water use in agriculture, industry, and urban systems, thereby improving productivity and reducing economic losses due to water scarcity, floods, and droughts. By informing climate adaptation and disaster risk reduction strategies, the Center helps minimize damage to infrastructure, livelihoods, and ecosystems. CWRCC’s policy inputs and planning tools support evidence-based investments and long-term economic planning at regional and national levels. Capacity-building initiatives enhance human capital by developing skilled professionals in water and climate sectors, strengthening the green economy. Collaborative projects and innovation-driven research also support technology development and knowledge-based economic activities. By enabling sustainable water governance and climate-resilient development, CWRCC plays a vital role in supporting economic stability, reducing vulnerability to climate shocks, and promoting inclusive and sustainable economic growth.

e) Impact on the Nation

At the national level, the Center for Water Research and Climate Change plays a strategic role in supporting sustainable development and climate resilience. Its research aligns with national priorities related to water security, climate adaptation, disaster management, and sustainable infrastructure. By providing scientific evidence, policy recommendations, and technical guidance, CWRCC strengthens national planning frameworks and governance mechanisms. The Center contributes to national commitments under global frameworks such as the Sustainable Development Goals (SDGs) and climate action plans. Its capacity-building programs enhance institutional capabilities across government, academia, and industry. Through national and international collaborations, CWRCC elevates the country’s research profile and knowledge leadership in water and climate science. The Center also supports innovation, self-reliance, and informed decision-making, contributing to long-term national resilience. Overall, CWRCC strengthens the nation’s ability to respond effectively to climate change, safeguard water resources, and pursue sustainable and inclusive development pathways.

The academic and training programs of the Center for Water Research and Climate Change (CWRCC) are distinct from regular programs due to their strong interdisciplinary, application-oriented, and problem-solving focus. These programs integrate water science, climate change, policy, technology, and data analytics with real-world case studies, hands-on tools, and expert mentorship. Unlike conventional theory-driven courses, CWRCC programs emphasize practical skills, research exposure, industry relevance, and policy linkage. Upon completion, students gain job-ready technical competencies, research and analytical skills, and professional confidence, enabling them to pursue careers in academia, industry, government, and development sectors or advance to higher research and leadership roles.

  • Core Skills:

The Outcomes of Core Skills at the Center for Water Research and Climate Change (CWRCC) reflect the development of strong interdisciplinary competencies in water and climate science. Through research, training, and applied projects, the Center builds expertise in scientific analysis, field and laboratory methods, data analytics, modeling, GIS and remote sensing, and policy translation. These core skills enable researchers and professionals to address complex water–climate challenges, design evidence-based solutions, and support informed decision-making. The outcomes include enhanced research quality, improved problem-solving capacity, effective stakeholder engagement, and the ability to contribute meaningfully to climate resilience, sustainable water management, and global development goals.

  • Expert Guidance:

The Outcomes of Expert Guidance at the Center for Water Research and Climate Change (CWRCC) are reflected in high-quality research, informed policy inputs, and practical solutions to water and climate challenges. Guidance from experienced national and international experts strengthens scientific rigor, methodological innovation, and interdisciplinary integration. It enhances the capacity of researchers, scholars, and professionals to undertake impactful studies, publish in reputed journals, and translate knowledge into policy and practice. Expert mentorship also supports career development, collaborative networking, and leadership skills, ensuring that outcomes contribute effectively to climate resilience, sustainable water management, and evidence-based decision-making.

  • Problem-Solving:

The Outcomes of Problem-Solving at the Center for Water Research and Climate Change (CWRCC) demonstrate its ability to address real-world water and climate challenges through applied, solution-oriented research. By integrating scientific analysis, field evidence, modeling, and stakeholder engagement, the Center develops practical strategies for water security, climate adaptation, and risk reduction. These outcomes include improved management frameworks, decision-support tools, and policy-relevant recommendations that respond to local and global needs. The problem-solving approach enhances resilience, supports sustainable development, and ensures that research outputs lead to measurable environmental, social, and institutional impact.

  • Career Opportunities:

The Outcomes related to Career Opportunities at the Center for Water Research and Climate Change (CWRCC) focus on enhancing employability and professional growth in water and climate-related sectors. Through research exposure, expert mentorship, training, and industry collaboration, the Center equips scholars and professionals with in-demand technical and analytical skills. These outcomes enable careers in academia, research institutions, government agencies, international organizations, NGOs, and industry. Engagement in interdisciplinary projects, policy studies, and global networks broadens professional pathways, supports higher education and leadership roles, and prepares individuals to contribute effectively to climate resilience, water security, and sustainable development initiatives.

Research outcome matrixes

ARTICLES
Sl. No Title Journal/Book/Patent Publication House IF Scopus/SCE Month/Year
1 Evaluation and mitigation of potentially toxic elements contamination in mangrove ecosystem: Insights into phytoremediation and microbial perspective Journal: Marine Pollution Bulletin Elsevier 4.9 Scopus and SCE 12/2024
2 Taiwan’s mysterious mollusks: a deep dive into the cryptic hybridization of Pomacea canaliculata and Pomacea maculata Journal: Evolutionary Ecology Springer Nature 2.1 Scopus and SCE 12/2024
3 Harnessing Environmental DNA to Explore Frugivorous Interactions: A Case Study in Papaya (Carica papaya) and Pineapple (Ananas comosus) Journal: Environmental DNA Wiley 5.6 Scopus and SCE 12/2024
4 Hydrothermal synthesis of hydroxyapatite nanoparticles using biosurfactant and application on mesenchymal stem cells Journal: Ceramics International Elsevier 5.6 Scopus and SCE 02/2025
5 Root-Associated Plant Growth-promoting Bacteria in Mangrove Ecosystem and its application in sustainable biotechnology Journal: Indian Journal of Microbiology Springer Nature 1.6 Scopus and SCE 03/2025
6 Trace elements in soils, their uptake by crops and potential health risks: Insights from a legacy mining area in Oruro, Bolivian Altiplano Journal: Journal of Environmental Science, Health & Sustainability Enviromind Solutions 2.8 Scopus and SCE 04/2025
7 Environmental DNA Metabarcoding Effectively Detects Invasive Species, Pests, and Community Changes in Taiwan’s Rice Fields Journal: BioRxiv - - Scopus and SCE 10/2025
8 Ultra-fast adsorption of the industrial cationic dye pollutant using nitric acid-activated rice straw biochar: insights into adsorption mechanisms Biomass Conversion and Biorefinery Springer Nature 4.1 Scopus and SCE 01/2025
9 Mycobacterial Small Heat Shock Proteins: Dissecting Their Roles in Pathogenesis and Development of Therapeutics ACS Infectious Diseases ACS 3.8 Scopus and SCE 02/2025
PATENT
1 NA
2 NA
BOOK/POPULAR ARTICLE/BOOK CHAPTER
1 Plant defense mechanisms and signaling pathways in response to Ozone stress: Impacts on crop productivity BOOK: In Role of Antioxidants in Abiotic Stress Management Elsevier 01/2025

Achievement

The Achievements of the Center for Water Research and Climate Change (CWRCC) reflect its growing impact in advancing water and climate science, policy, and practice. The Center has successfully undertaken interdisciplinary research projects, produced high-quality scientific publications, and contributed to evidence-based policy inputs. It has established national and international collaborations, supported capacity-building and training programs, and engaged students and professionals through internships and research initiatives. By integrating science, technology, and policy, CWRCC has developed practical solutions that strengthen climate resilience, promote sustainable water management, and contribute meaningfully to national priorities and global sustainable development goals.

Point of Contact

Prof (Dr). Jyoti Prakash Maity

Email: [email protected]