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Interview with Sawaid Abbas, Assistant Professor at the Centre for Geographical Information, University of the Punjab, Lahore, Pakistan

Sawaid Abbas, Assistant Professor at the Centre for Geographical Information System, University of the Punjab, Lahore, Pakistan discussed his extensive work in addressing water-related challenges through the nexus between smart sensing and space technologies. His thematic focus spans water scarcity, food security, climate risks, and environmental monitoring with an emphasis on the Asia-Pacific region, including Pakistan and China. Key Sustainable Development Goals (SDGs) guiding his work include SDG2 (Zero Hunger), SDG13 (Climate Action), SDG15 (Life on Land), and SDG11 (Sustainable Cities and Communities).  Abbas's passion for water emerged during his early career at the World Wide Fund for Nature (WWF), where he was involved in Pakistan’s Wetland Program and witnessed the impact of water on associated ecosystems. This sparked his interest in understanding and managing water, forestry, and wildlife resources. He recently studied coastal ecosystems and their responses to climate and anthropogenic stressors in the Asia-Pacific region. The Living Indus – Investing in Ecological Restoration has become a new focus of interest for him, addressing sustainability challenges related to food security, river basin management, and efficient water use in alignment with the UN Decade of Ocean objectives.  Abbas shared his fascination with water, recognizing its complex and essential nature. He is captivated by its beauty in all forms and acknowledges its fundamental importance for life on Earth. This water connection further motivates his commitment to addressing global water challenges and promoting sustainable water use through innovative solutions.  Sawaid Abbas's work, stimulated by both professional commitment and personal fascination, stresses the critical role of space technologies, particularly earth observation, smart sensing nexus, and artificial intelligence in addressing water-related challenges. His research contributes to the development of innovative solutions for sustainable water use, environmental protection, and disaster response, aligning with global goals for a more resilient and water-secure future. 

Interview with Verónica De Souza, Space Application Director, Bolivarian Agency for Space Activities (ABAE)

My name is Verónica De Souza. I have a degree in Physics with a minor in Geophysics and a Master's degree in Ocean, Atmosphere, and Continental Surface Science. I worked for 13 years at the Bolivarian Agency for Space Activities (ABAE), the last three years in the Space Applications Directorate, focusing primarily on the processing and use of satellite data, especially from Venezuela's VRSS-1/2 satellites. Recently, ABAE has been participating in an inter-institutional committee on the management and sustainability of the country's watersheds. This has led to a growing interest in collecting more up-to-date information on these areas, thereby improving public policies in this regard.

Interview with Dr. Pietro Campana

Dr. Pietro Campana studied environmental engineering with a focus on fluid dynamics, hydrology, and water resource management, before undertaking a PhD on solar irrigation systems. He is working on the water-food-energy nexus and is currently evaluating the first agrivoltaic system (a photovoltaic system that allows the combination of both electricity production and crop production on the same land to increase the land use efficiency) in Sweden. He constantly strives to work on something that can make a difference to people’s lives and finds developing tools and services that can solve water issues very exciting. He believes that to address the nexus challenges, we need novel technologies and more research and development funding.

The use of space-based technology and data for the Water-Energy-Food Nexus

The article discusses the use of space technology for the Water-Energy-Food (WEF) Nexus. The nexus was formed to address issues surrounding the increasing demand for water, energy and food. Drivers of the nexus are, for example, an increasing population, urbanisation and economic development. The article aims to demonstrate the inclusive solutions and initiatives from organisations such as United Nations, Food and Agriculture Organization (FAO) and Group on Earth Observations (GEO). Globally available data for the nexus and especially data from satellite remote sensing are discussed. Several case studies for finding solutions related to the nexus are examined. The case studies discuss hydrological modelling, water scarcity, irrigation practices and crop monitoring. The Global Land Evaporation Amsterdam Model dataset and Moderate Resolution Imaging Spectroradiometer instrument are used in these case studies. Satellite remote sensing products for the example case of the variable soil moisture are examined. Some of the leading missions for soil moisture are National Aeronautics and Space Administration (NASA) Soil Moisture Active Passive (SMAP) and European Space Agency (ESA) Soil Moisture and Ocean Salinity (SMOS). The article mentions NASA Gravity Recovery and Climate Experiment (GRACE) and Gravity Recovery and Climate Experiment Follow-On (GRACE-FO) missions, as well as ESA Climate Change Initiative (CCI) programme. Future work aims at an integrated approach and at achieving the Sustainable Development Goals.

Counting every drop: How space technology is rewriting water accounting and auditing

At sunrise in Bundelkhand, Northern India, farmer Ramesh Patel walks across a cracked wheat field, where the delayed and weak monsoon has left his crops wilting and wells running dry. Over the past five years, wells have sunk several meters, and groundwater levels in the region have fallen steadily for more than two decades (CGWB 2021; Niranjannaik et al. 2022). He is not alone: farmers, water managers, industries, and hydropower operators around the world face the same urgent question—how much water do we really have?  

Interview with Sawaid Abbas, Assistant Professor at the Centre for Geographical Information, University of the Punjab, Lahore, Pakistan

Sawaid Abbas, Assistant Professor at the Centre for Geographical Information System, University of the Punjab, Lahore, Pakistan discussed his extensive work in addressing water-related challenges through the nexus between smart sensing and space technologies. His thematic focus spans water scarcity, food security, climate risks, and environmental monitoring with an emphasis on the Asia-Pacific region, including Pakistan and China. Key Sustainable Development Goals (SDGs) guiding his work include SDG2 (Zero Hunger), SDG13 (Climate Action), SDG15 (Life on Land), and SDG11 (Sustainable Cities and Communities).  Abbas's passion for water emerged during his early career at the World Wide Fund for Nature (WWF), where he was involved in Pakistan’s Wetland Program and witnessed the impact of water on associated ecosystems. This sparked his interest in understanding and managing water, forestry, and wildlife resources. He recently studied coastal ecosystems and their responses to climate and anthropogenic stressors in the Asia-Pacific region. The Living Indus – Investing in Ecological Restoration has become a new focus of interest for him, addressing sustainability challenges related to food security, river basin management, and efficient water use in alignment with the UN Decade of Ocean objectives.  Abbas shared his fascination with water, recognizing its complex and essential nature. He is captivated by its beauty in all forms and acknowledges its fundamental importance for life on Earth. This water connection further motivates his commitment to addressing global water challenges and promoting sustainable water use through innovative solutions.  Sawaid Abbas's work, stimulated by both professional commitment and personal fascination, stresses the critical role of space technologies, particularly earth observation, smart sensing nexus, and artificial intelligence in addressing water-related challenges. His research contributes to the development of innovative solutions for sustainable water use, environmental protection, and disaster response, aligning with global goals for a more resilient and water-secure future. 

Interview with Verónica De Souza, Space Application Director, Bolivarian Agency for Space Activities (ABAE)

My name is Verónica De Souza. I have a degree in Physics with a minor in Geophysics and a Master's degree in Ocean, Atmosphere, and Continental Surface Science. I worked for 13 years at the Bolivarian Agency for Space Activities (ABAE), the last three years in the Space Applications Directorate, focusing primarily on the processing and use of satellite data, especially from Venezuela's VRSS-1/2 satellites. Recently, ABAE has been participating in an inter-institutional committee on the management and sustainability of the country's watersheds. This has led to a growing interest in collecting more up-to-date information on these areas, thereby improving public policies in this regard.

Interview with Dr. Pietro Campana

Dr. Pietro Campana studied environmental engineering with a focus on fluid dynamics, hydrology, and water resource management, before undertaking a PhD on solar irrigation systems. He is working on the water-food-energy nexus and is currently evaluating the first agrivoltaic system (a photovoltaic system that allows the combination of both electricity production and crop production on the same land to increase the land use efficiency) in Sweden. He constantly strives to work on something that can make a difference to people’s lives and finds developing tools and services that can solve water issues very exciting. He believes that to address the nexus challenges, we need novel technologies and more research and development funding.

Local Perspectives Case Studies

Integrated water resource management for sustainable agriculture: data-driven approaches to optimize crop patterns and water use in Pakistan

Image of dry landscape and solar panels in the distance
The environmental impacts of irrigated agriculture, which demands between 3,000 to 5,000 litres of water to produce just one kilogram of rice, are profound. Considering that 35 per cent of Pakistan’s freshwater is used for rice cultivation, often for crops destined for export, the need for a strategic realignment of water use priorities is evident. Current practices often treat water as an unlimited resource, a perspective that is unsustainable in the face of increasing domestic and international demands for food. The urgent need for systemic change is clear: only through the adoption of innovative technologies and the integration of up-to-date environmental data can Pakistan hope to meet the Zero Hunger (SDG 2) goal and achieve sustainable development. This project proposes using advanced remote sensing and land use modelling to effectively quantify agricultural land use practices and their changes over time. This integrated assessment framework is vital for building resilience against future climate extremes and for ensuring sustainable agricultural practices that align with societal and environmental priorities. By bridging the gap between current practices and agro-ecological suitability, this project aims to achieve a sustainable, food-secure future for Pakistan. We aim to interact with multiple stakeholders and agencies with diverse expertise to support data-driven approaches for sustainable water and crop management. Our goal is to build a network of professionals and researchers, facilitate knowledge and technology sharing, and contribute geospatial and analytical solutions to address the challenge.

Space-based Solution

Data-driven irrigation demand forecasting for rotational water management under the Warabandi system - in development

The proposed solution leverages Earth Observation (EO) and climate data to develop a machine learning-based irrigation demand forecasting system tailored for smallholder farmers operating under the Warabandi system. In regions where rotational irrigation governs water distribution, farmers often lack accurate tools to forecast short-term irrigation needs, leading to overuse or underuse of water, both of which impact productivity and efficiency.