Challenge-ID
67
Description

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.

Has this problem been acknowledged in the past?

Recognizing these challenges, the Pakistan Agriculture Research Council (PARC) updated the agro-ecological zones in 2023 to better align with contemporary environmental conditions and agricultural needs. This revision is crucial for identifying optimal areas for crop cultivation and livestock production, aiming to facilitate climate-smart agricultural practices that are robust against future climate extremes. However, persistent gaps between existing cropping practices and the newly defined zones highlight a critical disconnect that could undermine the socio-economic and environmental sustainability of Pakistan's agricultural sector.

Can this challenge be solved using space technologies and data?

This proposed challenge aims to merge cutting-edge technologies such as remote sensing, machine learning, data analytics, and econometric modeling to critically evaluate current agricultural land use practices and their future sustainability, thereby supporting the agricultural land use policy process in Pakistan. The work is structured around three major scientific components: 

  1. A package focused on the evaluation of land use practices and change analysis from 1980s to 2025 using satellite remote sensing and machine learning algorithms; 
  2. A spatially explicit econometric land use model that incorporates household survey data, government policies, and related statistical data to analyze the drivers of land use change and explore the potential socioeconomic effects; 
  3. An environmental evaluation model that is integrated with the land use model to assess the impacts of land use changes on ecosystem services and land degradation.

Through ongoing collaboration with relevant national agencies, the findings from these components will be synthesized to effectively accelerate the agricultural land use policy process in Pakistan.

We have access to the required datasets, primarily through the institutions involved in the assessment. These include field data for crops, water use statistics, water availability, and crop type distribution, among others.

For more detailed analysis and crop identification, we will require high spatial and temporal resolution imagery. Satellite data with <1m resolution and high revisit frequency would be ideal. Access to high-resolution hyperspectral imagery, soil moisture maps, and evapotranspiration products will also be important.

We see strong value in leveraging space-based technologies—especially using deep learning algorithms on high-frequency satellite data for crop mapping and water monitoring. Additional use cases may include the identification of solar panels in agricultural fields and other emerging challenges relevant to water-energy-food systems.

Expected timeframe to develop a solution

2-3 years

Potential consequences if no action happens

If no action is taken, the growing water crisis and intensifying climate change will severely threaten food security, with projections indicating that up to 50 per cent of global food production could be compromised by 2050. In Pakistan, unsustainable water use—such as the excessive extraction for water-intensive crops like rice, which consumes 3,000 to 5,000 litres per kilogram—will strain freshwater resources, jeopardizing both domestic food supply and agricultural exports. Coupled with environmental degradation and a rapidly growing population, the disconnect between current farming practices and sustainable water management poses a critical risk to long-term food and water security.

What are additional physical requirements for a solution?

  1. Advanced Data Infrastructure: High-performance computing facilities and cloud-based platforms to process and analyse large datasets, including high-resolution satellite imagery for crop and water resource mapping.
  2. Laboratories and Research Facilities: Well-equipped labs for soil and water testing, crop analysis, and the development of sustainable farming practices tailored to local conditions.
  3. Capacity Building Infrastructure: Training centres and demonstration farms to educate farmers and stakeholders on sustainable practices, water-efficient technologies, and data-driven decision-making.
  4. Policy and Institutional Frameworks: Strong institutional support with physical offices and resources to coordinate research, implementation, and monitoring of sustainable agricultural and water management strategies.

We have support from partners such as ICIMOD, PARC, and the Punjab Irrigation Department, who will contribute in terms of data, domain expertise, and institutional coordination.

Image of solar panels in dry climate

 

Map of groundwater levels in Lower Indus Basin
Problem Definition
Climate-induced stress in surface water in the Upper Indus Basin (UIB), amplifies the overuse of groundwater particularly in the Indus Basin Irrigation System (IBIS), highlights a critical issue. One of the world's largest systems utilizes 93 per cent of surface water and 60 per cent of groundwater for agriculture, primarily to cultivate crops that contribute minimally to the GDP relative to their water consumption. The rapid depletion of groundwater in areas like Multan, Lodhran, and Khanewal is exacerbated by a surge in tube wells and weak enforcement of existing water management policies. Although the Pakistan Agriculture Research Council (PARC) updated the agroecological zoning of Pakistan in 2023 to reflect current climate conditions, this revised zoning remains too broad to guide local-level crop zoning and planning effectively. This lack of detailed guidance hampers the ability to tailor agricultural strategies to the specific needs of diverse local environments, which is crucial for optimizing crop yields and ensuring sustainable agricultural practices across different regions.

To address these multifaceted challenges, there is a pressing need for a robust data-driven economic and sustainability assessment framework.
Success criteria
1. Develop an integrated data-modelling framework: To design and implement an innovative data-modelling and analysis framework incorporating AI-based data analytics technologies. This framework will map and analyse the distribution of crops, water resources, and future climate change scenarios across the redefined Agro-Ecological Zones (AEZs) of Punjab, contributing to a robust scientific knowledge base that informs agricultural land-use practices.
2. Assess historical and current crop patterns: To systematically evaluate changes in crop patterns from 1990 to the present, focusing on the influence of climate, market dynamics, industry, and policy shifts. This includes creating detailed crop calendars and crop zone maps using cloud computing platforms to analyse high-resolution satellite imagery and assessing temporal trends in crop production and water resource utilization.
3. Quantify water demand and sustainability: To assess sector-specific blue water demands (including agriculture, livestock, industrial, and domestic sectors) and evaluate water scarcity by comparing consumptive demands against renewable blue water availability. This study will include a critical analysis of the sustainability of water use practices since the beginning of the century.
4. Optimize cropping patterns for water efficiency: To develop and implement a spatial mapping tool that realigns current cropping patterns with agro-ecological suitability, thereby improving water-use efficiency (WUE) and reducing the ecological footprint of major crops.
Thematic focus area

Relevant data sources/publications

Habib. N., Manzoor. A. T., Abbas. S., & Irteza. S. M. “Evaluating the Effectiveness of Phase Difference in Early Drought Detection.” International Journal of Innovations in Science & Technology (2024): 139–150. https://www.researchgate.net/publication/382399450_Evaluating_the_Effec….

Javaid, U., Ahmed, S. R., Phalke, A. R., & Abbas, S. “Agricultural Intensification and Cropland Expansion in the Semi-Arid Foothills of Kirthar Range: Implications for Water Management and Food Security.” Earth Systems and Environment (2024): 1–20. https://www.researchgate.net/publication/387291847_Agricultural_Intensi….

Mahmood. M. U., Abbas. S., Usman. M., Qureshi. J., & Masood. A. “Spatio-Temporal Dynamics of Ground Water Level of Lahore Metropolitan and its Relationship with Urbanization and Rainfall.” International Journal of Innovations in Science & Technology (2024): 173–185. https://www.researchgate.net/publication/382446962_Spatio-Temporal_Dyna….

Qamer, F. M., Abbas, S., Ahmad, B., Hussain, A., Salman, A., Muhammad, S., Nawaz, M., Shrestha, S., Iqbal, B., & Thapa, S. “A framework for multi-sensor satellite data to evaluate crop production losses: the case study of 2022 Pakistan floods.” Scientific Reports 13 (2023): 1–11. https://doi.org/10.1038/s41598-023-30347-y.

Sattar. A., Irteza. S. M., Abbas. S., Khan. S. U., & Usman. M. “Comparative Assessment of Object-Based and Pixel-Based Approaches for Crop Cover Classification.” International Journal of Innovations in Science & Technology (2024): 257–269. https://www.researchgate.net/publication/382447321_Comparative_Assessme….

Syed. W., Abbas. S., Usman. M., Khalid. P., & Ghazi. S. “Assessment of Groundwater Potential Zones Using Electrical Resistivity in Muzaffargarh.” International Journal of Innovations in Science & Technology (2024): 270–286. https://www.researchgate.net/publication/382447263_Assessment_of_Ground….

Ullah. F., Abbas. S., Usman. M., Ameen. A., Abbas. Z. A., Irteza. S. M., & Khan. S. U. “Efficiency Assessment for Crop Classification Using Multi-Sensor Data in Google Earth Engine.” International Journal of Innovations in Science & Technology (2024): 294–304. https://www.researchgate.net/publication/382447141_Efficiency_Assessmen….

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

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

Keywords
Climate Zone
Habitat
Region/Country
Related SDGs
Relevant solutions