Introduction
Water stress and scarcity have become critical global challenges, exacerbated by population growth, climate change, and unsustainable agricultural practices. The agricultural sector, consuming approximately 70% of global water resources, faces mounting pressure to improve water use efficiency and adopt sustainable irrigation techniques (Yang et al., 2023). To address these challenges, innovative approaches such as deficit drip irrigation (DDI) and inter-basin water transfers (IBTs) have emerged as potential solutions, albeit with varying degrees of effectiveness and social implications (Duan et al., 2022).
The global water crisis: An overview
The global water crisis is characterized by increasing water scarcity, declining water quality, and growing competition for limited water resources. In China, the world's largest irrigator, the irrigated area reached 74 million hectares in 2019, accounting for 50.3 percent of the country's total cultivated land (Yang et al., 2023). This extensive irrigation, while critical for food production, contributes significantly to the depletion of freshwater resources and raises concerns about groundwater pollution due to the leaching of chemicals and nutrients from crop root zones (Yang et al., 2023).
Defining water stress and water scarcity
Water stress refers to the condition where the demand for water exceeds the available amount during a certain period or when poor quality restricts its use. Water scarcity, on the other hand, occurs when water resources are insufficient to satisfy long-term average requirements. These concepts are crucial in understanding the challenges faced by the agricultural sector, particularly in regions like the Mediterranean, where the balance between water demand and availability is often under stress (Roo et al., 2021).
Water Stress and Scarcity: Key Research Areas
To address these challenges, researchers have focused on developing innovative irrigation techniques and water management strategies. One such approach is deficit drip irrigation (DDI), which has shown promise in increasing water-use efficiency while maintaining crop yields (Soothar et al., 2022). Additionally, inter-basin water transfers (IBTs) have been implemented as a large-scale solution to mitigate water shortages, although their long-term efficiency in alleviating inter-regional water stress remains a subject of debate (Duan et al., 2022).
Climate change and water availability
Climate change exacerbates water stress and scarcity, posing significant challenges to agricultural productivity and water resource management. Rising temperatures and altered precipitation patterns are projected to increase water demand for irrigation while simultaneously reducing water availability in many regions (Su & Karthikeyan, 2023). This dynamic necessitates the development and implementation of adaptive strategies to mitigate the impacts of climate change on water resources and agricultural systems (Saikanth et al., 2023).
Population growth and urbanization
Population growth and rapid urbanization exacerbate water stress and scarcity by increasing demand for freshwater resources in urban areas. This phenomenon is particularly evident in tourist destinations, where seasonal population fluctuations can place additional strain on water supply systems (Cao, 2024). To address these challenges, innovative approaches such as greywater recycling and rainwater harvesting have emerged as potential strategies for sustainable urban water resource management (Cao, 2024).
Agricultural water demand
Agricultural water demand continues to be a major driver of water stress, particularly in regions with intensive irrigation practices. In China, the implementation of drip fertigation systems has emerged as an advanced production technique, allowing for efficient and frequent delivery of water and fertilizer to crops (Yang et al., 2023). This approach not only addresses water scarcity concerns but also mitigates the risk of groundwater pollution by reducing the leaching of chemicals and nutrients from crop root zones (Yang et al., 2023).
Industrial water use
Industrial water use also contributes significantly to water stress, particularly in regions with rapidly expanding manufacturing sectors. In China, the industrial sector accounts for approximately 23% of total water consumption, with industries such as textiles, paper production, and chemical manufacturing being major contributors (Yang et al., 2023). To address this challenge, many industries are implementing water-saving technologies and adopting circular economy principles to reduce their water footprint and improve overall water use efficiency (Soothar et al., 2022).
Impact on Irrigation
The impact of water stress and scarcity on irrigation practices is profound, necessitating the adoption of innovative technologies and management strategies. Deficit drip irrigation (DDI) has emerged as a promising approach, demonstrating the potential to increase water-use efficiency while maintaining crop yields, particularly in water-scarce regions (Mugwanya et al., 2023). This technique, when combined with precision agriculture methods, can optimize water allocation and minimize waste, addressing the critical challenge of sustainable water management in irrigated agriculture (Laita et al., 2024).
Traditional irrigation methods and their limitations
Traditional irrigation methods, such as flood or furrow irrigation, often result in significant water waste and inefficient resource utilization. These methods can lead to overwatering, increased soil erosion, and nutrient leaching, contributing to groundwater pollution and the depletion of freshwater resources (Yang et al., 2023). To address these limitations, advanced irrigation technologies like drip fertigation systems have emerged as promising alternatives, offering precise water and nutrient delivery to crops while minimizing environmental impacts (Yang et al., 2023)
Innovative irrigation technologies
Innovative irrigation technologies such as deficit drip irrigation (DDI) and precision agriculture methods have shown promising results in optimizing water allocation and minimizing waste (Soothar et al., 2022). These approaches not only address water scarcity concerns but also contribute to increased water use efficiency and crop productivity, particularly in water-stressed regions (Bana et al., 2023).
Water-efficient crop selection
Water-efficient crop selection is a crucial strategy for mitigating water stress in agriculture. Crops with lower water requirements or higher drought tolerance, such as sorghum, millet, and certain varieties of wheat, can significantly reduce irrigation demands while maintaining productivity (Qin et al., 2021). Additionally, the application of silicon-based fertilizers, such as calcium silicate, has shown promise in improving water use efficiency and drought tolerance in crops like corn, particularly under deficit irrigation conditions (Bianchini & Marques, 2019).
Drought-resistant varieties
The development of drought-resistant varieties has become a crucial strategy in addressing water scarcity challenges in agriculture. Recent research on date palm cultivars has shown that varieties like Khalas and Barhee exhibit higher drought tolerance compared to others, demonstrating the potential for cultivar selection in water-stressed environments (Ali-Dinar et al., 2023). Additionally, studies on water-saving and drought-resistant rice varieties have revealed that certain cultivars, such as Hanyou 73, can maintain higher enzyme activities and better grain quality under alternate wetting and drying irrigation regimes, offering promising solutions for water-efficient rice production (Hou et al., 2023).
Alternative crops for water-stressed regions
In water-stressed regions, crops like quinoa, amaranth, and pearl millet have gained attention due to their exceptional drought tolerance and nutritional value (Qin et al., 2021). These crops not only require less water but also provide essential nutrients, making them suitable alternatives for sustainable agriculture in arid and semi-arid environments (Bianchini & Marques, 2019).
Water Shortage and Its Effects
Water shortage has far-reaching consequences on agricultural productivity, food security, and socio-economic stability. The impacts are particularly severe in arid and semi-arid regions, where climate change exacerbates existing water scarcity issues (Khondoker et al., 2023). To address these challenges, innovative approaches such as sustainable desalination technologies and climate-smart solutions are being explored to combat freshwater shortages and saline intrusion in agricultural sectors (Khondoker et al., 2023).
Economic implications
The economic implications of water shortage are far-reaching, affecting agricultural productivity, food security, and overall economic growth. In Mediterranean-African countries (MACs), where water scarcity is particularly acute, the annual renewable water resources are approaching the 500 m³/capita threshold of absolute water scarcity, severely constraining agricultural development (Frascari et al., 2018). This situation necessitates the development and implementation of integrated technological and management solutions to enhance wastewater treatment, reuse, and water efficiency in agriculture across these regions.
Food security concerns
Food security concerns are exacerbated by water scarcity, particularly in regions heavily dependent on irrigated agriculture. In Mediterranean-African countries (MACs), where water resources are approaching absolute scarcity thresholds, the situation necessitates integrated technological and management solutions to enhance wastewater treatment, reuse, and water efficiency in agriculture . These challenges are further compounded by climate change impacts, which are projected to increase water demand for irrigation while simultaneously reducing water availability in many regions .
Social and political tensions
The social and political tensions arising from water scarcity are particularly acute in transboundary river basins, where competing demands for limited water resources can lead to conflicts between upstream and downstream countries. In the Nile Basin, for example, the construction of the Grand Ethiopian Renaissance Dam has heightened tensions between Ethiopia, Sudan, and Egypt, highlighting the complex geopolitical challenges associated with water resource management in water-stressed regions (Ghalkhani et al., 2023). These tensions underscore the need for robust international cooperation and governance frameworks to ensure equitable and sustainable water allocation across national boundaries.
Environmental degradation
Environmental degradation resulting from water scarcity and unsustainable irrigation practices poses significant threats to ecosystems and biodiversity. The overexploitation of water resources, particularly in arid and semi-arid regions, has led to the depletion of aquifers, soil salinization, and the degradation of wetlands and riparian habitats (Torres et al., 2021). To address these challenges, innovative approaches such as deficit irrigation strategies and the use of reclaimed water are being explored to mitigate the environmental impacts of agricultural water use while maintaining crop productivity (Estrela-Segrelles et al., 2024).
Growth in Water-Stressed Environments
To address the challenges of growth in water-stressed environments, researchers have explored innovative approaches such as deficit drip irrigation (DDI) combined with biostimulants. A study on maize (Zea mays L.) demonstrated that moderate deficit irrigation at 75% of crop water requirements, coupled with the application of magnetized water and proline, significantly improved crop performance and water use efficiency in saline clay soils (Okba et al., 2022). This approach not only enhanced chlorophyll content and nutritional status but also reduced endogenous proline content and minimized consumptive water use, offering a promising solution for sustainable agriculture in water-scarce regions.
Plant physiological responses to water stress
Plant physiological responses to water stress involve complex mechanisms that affect growth, development, and yield. One key response is the closure of stomata to reduce water loss through transpiration, which is mediated by chemical signals such as abscisic acid (ABA) produced in drying roots (Chaves et al., 2010). Additionally, some grapevine varieties exhibit 'isohydric' behavior, maintaining relatively constant leaf water potential through stomatal control, while others display 'anisohydric' behavior, allowing leaf water potential to decrease under drought conditions (Chaves et al., 2010).
Adaptation mechanisms in crops
Adaptation mechanisms in crops involve complex physiological and morphological changes that enable plants to cope with water stress. For instance, some grapevine varieties exhibit 'isohydric' behavior, maintaining relatively constant leaf water potential through stomatal control, while others display 'anisohydric' behavior, allowing leaf water potential to decrease under drought conditions . These adaptive strategies can significantly influence crop performance and yield under water-limited conditions, as demonstrated in a study on almond varieties where 'Arrubia' and 'Texas' showed greater physiological acclimation to water stress while maintaining higher yields compared to the self-fertile 'Tuono' (de Oliveira et al., 2023).
Genetic engineering for improved drought tolerance
Genetic engineering for improved drought tolerance has emerged as a promising approach to enhance crop resilience in water-stressed environments. Recent studies have focused on manipulating genes involved in osmolyte production, antioxidant defense systems, and hormonal signaling pathways to improve plant water use efficiency and stress tolerance (Ismael et al., 2022). For example, research on Pinus radiata D. Don has demonstrated the potential of using genomic selection tools to identify drought-tolerant genotypes, which could significantly reduce the time required for traditional tree breeding programs (Ismael et al., 2022).
Enhancing Water-Use Efficiency
To further enhance water-use efficiency in agricultural systems, researchers have explored innovative approaches such as the combined use of deficit drip irrigation (DDI) and biostimulants. A study on maize (Zea mays L.) demonstrated that moderate deficit irrigation at 75% of crop water requirements, coupled with the application of magnetized water and proline, significantly improved crop performance and water use efficiency in saline clay soils . This approach not only enhanced chlorophyll content and nutritional status but also reduced endogenous proline content and minimized consumptive water use, offering a promising solution for sustainable agriculture in water-scarce regions.
Precision agriculture techniques
Precision agriculture techniques leverage advanced technologies such as remote sensing, geographic information systems (GIS), and variable rate application to optimize resource use and enhance water-use efficiency. A study utilizing small unmanned aerial systems (sUAS) demonstrated improved estimation of evapotranspiration partitioning in vineyards through the integration of high-resolution imagery and a modified two-source energy balance model (Gao et al., 2023). This approach enables more precise irrigation management at the plant scale, addressing the limitations of medium-resolution satellite imagery for precision agricultural applications.
Smart water management systems
Smart water management systems leverage advanced technologies such as Internet of Things (IoT) sensors, cloud computing, and artificial intelligence to optimize irrigation practices and enhance water-use efficiency (Borade, 2024). These systems enable real-time monitoring of soil moisture, weather conditions, and plant water requirements, allowing for precise and automated irrigation scheduling that minimizes water waste while maximizing crop productivity (Ahmed et al., 2023).
Wastewater recycling and reuse
Wastewater recycling and reuse have emerged as crucial strategies for addressing water scarcity in agriculture, particularly in arid and semi-arid regions. In Mediterranean-African countries (MACs), where water resources are approaching absolute scarcity thresholds, integrated technological and management solutions are being developed to enhance wastewater treatment, reuse, and water efficiency in agriculture . These approaches not only alleviate pressure on freshwater resources but also provide valuable nutrients for crop growth, potentially reducing the need for synthetic fertilizers (Etchebarne et al., 2019).
Rainwater harvesting
Rainwater harvesting has emerged as a promising strategy to address water scarcity challenges in both urban and rural settings. In Pakistan, where water scarcity is exacerbated by population growth and climate change, rainwater harvesting systems have been implemented to effectively collect surface runoff from residential rooftops, providing an alternative source of domestic water supply (Waseem et al., 2023). Similarly, in the Cycladic islands of Greece, traditional rainwater harvesting methods continue to play a vital role in water resource management, despite the introduction of desalination plants to combat water shortages (Zarikos et al., 2023).
Policy and Management Strategies
Effective policy and management strategies are essential for addressing water stress and scarcity challenges in agriculture. A comprehensive approach integrating technological innovations, economic incentives, and regulatory frameworks is necessary to promote sustainable water use practices (Ghalkhani et al., 2023). For instance, implementing tailored irrigation and nitrogen management strategies can significantly improve water use efficiency in wheat cultivation, while minimizing environmental impact (Chawla & Balasaheb, 2023).
Water pricing and allocation policies
Water pricing and allocation policies play a crucial role in managing water resources and promoting efficient use in agriculture. Effective pricing mechanisms can incentivize water conservation, improve allocation efficiency, and generate revenue for infrastructure maintenance (Dudu & Chumi, 2008). In Tunisia, for example, a block-pricing strategy has been proposed to reduce over-irrigation in citrus farms without significantly impacting farmers' incomes, potentially decreasing water overconsumption by 44.56% (Ajroudi et al., 2022).
Transboundary water management
Transboundary water management presents complex challenges, particularly in regions with shared river basins and limited water resources. The Nile Basin, for instance, exemplifies the intricate geopolitical dynamics surrounding water allocation and management, as evidenced by the ongoing negotiations regarding the Grand Ethiopian Renaissance Dam . To address these challenges, international cooperation frameworks and integrated water resource management strategies are essential for ensuring equitable and sustainable water distribution across national boundaries (Mallareddy et al., 2023).
Integrated water resources management (IWRM)
Integrated Water Resources Management (IWRM) is a holistic approach that promotes the coordinated development and management of water, land, and related resources to maximize economic and social welfare without compromising ecosystem sustainability (Kumar et al., 2023). In Algeria, the implementation of IWRM principles has led to the adoption of various economic instruments and regulatory frameworks to improve water governance in large irrigation schemes (Oulmane et al., 2022).
Future Research Directions
To address these complex challenges, future research should focus on developing integrated approaches that combine advanced irrigation technologies with climate-smart agricultural practices. One promising avenue is the exploration of deficit drip irrigation (DDI) combined with biostimulants, which has shown significant improvements in crop performance and water use efficiency in saline clay soils . Additionally, the implementation of smart water management systems leveraging Internet of Things (IoT) sensors and artificial intelligence offers potential for optimizing irrigation scheduling and minimizing water waste .
Climate-resilient water infrastructure
To address these challenges, innovative approaches such as climate-resilient water infrastructure and nature-based solutions are being explored. For instance, the implementation of small unmanned aerial systems (sUAS) in precision agriculture has demonstrated improved estimation of evapotranspiration partitioning in vineyards, enabling more precise irrigation management at the plant scale . This technology, combined with advanced modeling techniques, offers promising solutions for optimizing water use efficiency in water-stressed environments.
Artificial intelligence in water management
Artificial intelligence (AI) in water management has shown promising results in optimizing irrigation practices and enhancing water use efficiency. A study utilizing machine learning algorithms, including long short-term memory (LSTM) neural networks and extreme gradient boosting (XGBoost), demonstrated high accuracy in predicting optimal water and energy requirements for date palm irrigation in arid conditions (Mohammed et al., 2023). These AI-driven approaches, when combined with sensor-based controllers and solar-powered micro-irrigation systems, offer a powerful tool for sustainable water management in water-stressed environments.
Nanotechnology for water treatment and conservation
Nanotechnology applications in water treatment and conservation have shown promising results in enhancing water quality and reducing contaminants. Recent studies have demonstrated the effectiveness of nanomaterials such as graphene oxide and carbon nanotubes in removing heavy metals and organic pollutants from water, offering potential solutions for addressing water scarcity challenges in agriculture (Al-shaabani et al., 2023). Additionally, the integration of nanotechnology with smart irrigation systems has led to improved water use efficiency, with some implementations achieving up to 28% reduction in water consumption (Hassan et al., 2024).
Conclusion
To address these multifaceted challenges, a comprehensive approach integrating advanced irrigation technologies, climate-smart agricultural practices, and innovative water management strategies is essential. One promising avenue is the implementation of deficit drip irrigation (DDI) combined with biostimulants, which has demonstrated significant improvements in crop performance and water use efficiency, particularly in saline clay soils .
Addressing water stress and scarcity: A multidisciplinary approach
To effectively address water stress and scarcity, a multidisciplinary approach integrating technological innovations, policy frameworks, and sustainable management practices is essential. This approach should consider the complex interactions between climate change, population growth, and agricultural water demand, while leveraging advanced technologies such as artificial intelligence and nanotechnology for optimized water management . Furthermore, the implementation of climate-resilient water infrastructure and nature-based solutions offers promising avenues for enhancing water security and agricultural productivity in water-stressed environments (Laita et al., 2024).
The role of technology and innovation in securing water resources
Technology and innovation play a crucial role in securing water resources for agriculture and other sectors. Recent advancements in smart water management systems, leveraging Internet of Things (IoT) sensors and artificial intelligence, have demonstrated significant improvements in irrigation efficiency and water conservation . For instance, the implementation of drip irrigation technology with automatic gravity control systems has shown promising results in reducing water usage and labor costs in dry land vegetable farming (Halil, 2024).
References
Yang, P., Wu, L., Cheng, M., Fan, J., Li, S., dong Hai-Wang, & Qian, L. (2023). Review on Drip Irrigation: Impact on Crop Yield, Quality, and Water Productivity in China. Water.
Duan, K., Caldwell, P., Sun, G., McNulty, S., Qin, Y., Chen, X., & Liu, N. (2022). Climate change challenges efficiency of inter-basin water transfers in alleviating water stress. Environmental Research Letters, 17.
Roo, A. D., Trichakis, I., Bisselink, B., Gelati, E., Pistocchi, A., & Gawlik, B. (2021). The Water-Energy-Food-Ecosystem Nexus in the Mediterranean: Current Issues and Future Challenges. Frontiers in Climate, 3.
Soothar, R. K., Khan, W. A., Rahu, A. A., Wang, Y., Mirjat, M. U., Soomro, S. A., Chandio, F. A., Mangrio, M. A., Mohammed, M., Alhussain, Z., Osman, S., & Farooq, F. (2022). Integrated effects of water stress and plastic film mulch on yield and water use efficiency of grain maize crop under conventional and alternate furrow irrigation method. Water.
Su, Q., & Karthikeyan, R. (2023). Regional Water Stress Forecasting: Effects of Climate Change, Socioeconomic Development, and Irrigated Agriculture—A Texas Case Study. Sustainability.
Saikanth, D. R. K., Kumar, S., Rani, M., Sharma, A., Srivastava, S., Vyas, D., Singh, G. A., & Kumar, S. (2023). A Comprehensive Review on Climate Change Adaptation Strategies and Challenges in Agriculture. International Journal of Environment and Climate Change.
Cao, S. (2024). Comparative analysis of greywater recycling and rainwater harvesting as supplementary water sources for conventional urban and tourist resort water supplies. Applied and Computational Engineering.
Mugwanya, M., Kimera, F., Abdelnaser, A., & Sewilam, H. (2023). Coping with Water Stress: Ameliorative Effects of Combined Treatments of Salicylic Acid and Glycine Betaine on the Biometric Traits and Water-Use Efficiency of Onion (Allium cepa) Cultivated under Deficit Drip Irrigation. Biomolecules, 13.
Laita, M., Sabbahi, R., Azzaoui, K., Hammouti, B., Nasri, H., Messaoudi, Z., Benkirane, R., & Aithaddou, H. (2024). Optimizing water use and crop yield with deficit irrigation techniques: A comprehensive overview and case study from Morocco. Multidisciplinary Reviews.
Bana, R., Sepat, S., Rana, K., Pooniya, V., & Choudhary, A. (2023). Moisture-stress management under limited and assured irrigation regimes in wheat (Triticum aestivum): Effects on crop productivity, water use efficiency, grain quality, nutrient acquisition and soil fertility. Indian Journal of Agricultural Sciences.
Qin, A., Ning, D., Liu, Z., Li, S., Zhao, B., & Duan, A. (2021). Determining Threshold Values for a Crop Water Stress Index-Based Center Pivot Irrigation with Optimum Grain Yield. Agriculture.
Bianchini, H. C., & Marques, D. J. (2019). Tolerance to hydric stress on cultivars of silicon-fertilized corn crops: absorption and water-use efficiency. Bioscience Journal.
Ali-Dinar, H., Munir, M., & Mohammed, M. (2023). Drought-Tolerance Screening of Date Palm Cultivars under Water Stress Conditions in Arid Regions. Agronomy.
Hou, D., Wei, Y., Liu, K., Tan, J., Bi, Q., Liu, G., Yu, X., Bi, J., & Luo, L. (2023). The Response of Grain Yield and Quality of Water-Saving and Drought-Resistant Rice to Irrigation Regimes. Agriculture.
Khondoker, M., Mandal, S., Gurav, R. G., & Hwang, S. (2023). Freshwater Shortage, Salinity Increase, and Global Food Production: A Need for Sustainable Irrigation Water Desalination—A Scoping Review. Earth.
Frascari, D., Zanaroli, G., Motaleb, M. A., Annen, G., Belguith, K., Borin, S., Choukr-allah, R., Gibert, C., Jaouani, A., Kalogerakis, N., Karajeh, F., Rault, P. K. K., Khadra, R., Kyriacou, S., Li, W.-T., Molle, B., Mulder, M., Oertlé, E., & Ortega, C. (2018). Integrated technological and management solutions for wastewater treatment and efficient agricultural reuse in Egypt, Morocco, and Tunisia. Integrated Environmental Assessment and Management, 14.
Ghalkhani, A., Golzardi, F., Khazaei, A., Mahrokh, A., Illés, Á., Bojtor, C., seyed mohammad Mousavi, & Széles, A. (2023). Irrigation Management Strategies to Enhance Forage Yield, Feed Value, and Water-Use Efficiency of Sorghum Cultivars. Plants, 12.
Torres, N., Yu, R., Martínez-Lüscher, J., Kostaki, E., & Kurtural, S. (2021). Effects of Irrigation at Different Fractions of Crop Evapotranspiration on Water Productivity and Flavonoid Composition of Cabernet Sauvignon Grapevine. Frontiers in Plant Science, 12.
Estrela-Segrelles, C., Pérez-Martín, M., & Wang, Q. J. (2024). Adapting Water Resources Management to Climate Change in Water-Stressed River Basins—Júcar River Basin Case. Water.
Okba, S., Mazrou, Y., Mikhael, G., Farag, M., & Alam-Eldein, S. (2022). Magnetized Water and Proline to Boost the Growth, Productivity and Fruit Quality of ‘Taifi’ Pomegranate Subjected to Deficit Irrigation in Saline Clay Soils of Semi-Arid Egypt. Horticulturae.
Chaves, M. M., Zarrouk, O., Francisco, R., Costa, J. M., de Santana Santos, T., Regalado, A., Rodrigues, M. L., & Lopes, C. (2010). Grapevine under deficit irrigation: hints from physiological and molecular data. Annals of Botany, 105 5, 661–76.
de Oliveira, A. F., Mameli, M., Pau, L. D., & Satta, D. (2023). Almond Tree Adaptation to Water Stress: Differences in Physiological Performance and Yield Responses among Four Cultivar Grown in Mediterranean Environment. Plants, 12.
Ismael, A., Xue, J., Meason, D., Klápště, J., Gallart, M., Li, Y., Bellé, P., Gómez-Gallego, M., Bradford, K., Telfer, E., & Dungey, H. (2022). Genetic Variation in Drought-Tolerance Traits and Their Relationships to Growth in Pinus radiata D. Don Under Water Stress. Frontiers in Plant Science, 12.
Gao, R., Torres-Rua, A. F., Nieto, H., Zahn, E., Hipps, L., Kustas, W., Alsina, M. M., Bambach, N., Castro, S., Prueger, J., Alfieri, J., McKee, L., White, W., Gao, F., McElrone, A., Anderson, M. C., Knipper, K., Coopmans, C., Gowing, I., … Dokoozlian, N. (2023). ET Partitioning Assessment Using the TSEB Model and sUAS Information across California Central Valley Vineyards. Remote Sensing, 15, 756.
Borade, Ms. S. S. (2024). Blooms & Bytes Nurturing Garden with Smart Irrigation – Planning. INTERANTIONAL JOURNAL OF SCIENTIFIC RESEARCH IN ENGINEERING AND MANAGEMENT.
Ahmed, Z., Gui, D., Murtaza, G., Liu, Y., & Ali, S. (2023). An Overview of Smart Irrigation Management for Improving Water Productivity under Climate Change in Drylands. Agronomy.
Etchebarne, F., Aveni, P., Escudier, J., & Ojeda, H. (2019). Reuse of treated wastewater in viticulture: Can it be an alternative source of nutrient-rich water? BIO Web of Conferences.
Waseem, M., Ghazi, S. M. U., Ahmed, N., Ayaan, M., & Leta, M. K. (2023). Rainwater Harvesting as Sustainable Solution to Cope with Drinking Water Scarcity and Urban Flooding: A Case Study of Public Institutions in Lahore, Pakistan. CivilEng.
Zarikos, I., Politi, N., Gounaris, N., Karozis, S., Vlachogiannis, D., & Sfetsos, A. (2023). Quantifying the Long-Term Performance of Rainwater Harvesting in Cyclades, Greece. Water.
Chawla, R., & Balasaheb, K. S. (2023). Optimizing Water Use Efficiency and Yield of Wheat Crops through Integrated Irrigation and Nitrogen Management: A Comprehensive Review. International Journal of Environment and Climate Change.
Dudu, H., & Chumi, S. (2008). Economics of Irrigation Water Management: A Literature Survey with Focus on Partial and General Equilibrium Models. World Bank Policy Research Working Paper Series.
Ajroudi, N. H., Dhehibi, B., Lasram, A., Dellagi, H., & Frija, A. (2022). Toward Sustainable Water Resources Management in the Tunisian Citrus Sector: Impact of Pricing Policies on Water Resources Reallocation. Water.
Mallareddy, M., Thirumalaikumar, R., Balasubramanian, P., Naseeruddin, R., Nithya, N., Mariadoss, A., Eazhilkrishna, N., Choudhary, A., Deiveegan, M., Subramanian, E., Padmaja, B., & Vijayakumar, S. (2023). Maximizing Water Use Efficiency in Rice Farming: A Comprehensive Review of Innovative Irrigation Management Technologies. Water.
Kumar, S., Yadav, A., Kumar, A., Hasanain, M., Shankar, K., Karan, S., Rawat, S., Sinha, A., Kumar, V., Gairola, A., Prajapati, S. K., & Dayal, P. (2023). Climate Smart Irrigation Practices for Improving Water Productivity in India: A Comprehensive Review. International Journal of Environment and Climate Change.
Oulmane, A., Kechar, A., Benmihoub, A., & Benmehaia, M. A. (2022). Assessment of surface water management institutions: a case of public irrigation schemes in northern Algeria. Water Policy.
Mohammed, M., Hamdoun, H., & Sagheer, A. (2023). Toward Sustainable Farming: Implementing Artificial Intelligence to Predict Optimum Water and Energy Requirements for Sensor-Based Micro Irrigation Systems Powered by Solar PV. Agronomy.
Al-shaabani, E. M., AL-Obeid, A., Alrubaye, A. A., Wissam, A., Ahmed, Y. M., Al-maamri, H. A., & Al-budeiri, M. H. (2023). Effect of Surface, Subsurface Drip Irrigation and Nanotechnology Perfusion Methods on Irrigation Efficiency and Saved Water Ratio in Plowed and Unplowed Soils. IOP Conference Series: Earth and Environment, 1222.
Hassan, E. S., Alharbi, A. A., Oshaba, A. S., & El-Emary, A. (2024). Enhancing Smart Irrigation Efficiency: A New WSN-Based Localization Method for Water Conservation. Water.
Halil, H. (2024). A Technological Innovation Drip Irrigation for Dry Land Chile Farming in Rural Salut, Kayangan Sub-District, North Lombok Regency, West Nusa Tenggara, Indonesia. AJARCDE | Asian Journal of Applied Research for Community Development and Empowerment.