Introduction
The United States agricultural sector faces numerous challenges that limit its productivity and sustainability. One significant limiting factor is the impact of climate change, which has led to increased frequency and severity of extreme weather events, affecting crop yields and agricultural practices (Ogle et al., 2023). Additionally, the sector grapples with resource constraints, particularly in water management, necessitating the adoption of advanced irrigation techniques such as drip irrigation systems to optimize water use efficiency (Goyal et al., 2017).
Overview of U.S. agriculture's importance
The U.S. agricultural sector is a cornerstone of the nation's economy, contributing significantly to food security, employment, and export revenue. In 2021, agriculture, food, and related industries contributed $1.264 trillion to the U.S. gross domestic product, representing 5.4% of the total GDP (Dixit et al., 2023). This sector also provides employment for 19.7 million full- and part-time workers, accounting for 10.3% of total U.S. employment (Dixit et al., 2023).
Brief history of agricultural challenges in the U.S.
The history of agricultural challenges in the United States is marked by periods of significant adversity and innovation. During the 1930s, the Dust Bowl era exemplified the devastating effects of unsustainable farming practices combined with severe drought conditions, leading to widespread crop failures and soil erosion (Yang et al., 2023). This crisis prompted the development of soil conservation techniques and the establishment of federal programs to support farmers, shaping modern agricultural policies and practices.
Climate and Environmental Factors
Climate change poses significant challenges to U.S. agriculture, with rising temperatures and altered precipitation patterns affecting crop yields and agricultural practices. A study by Ogle et al. (2023) found that extreme weather events, such as prolonged droughts and intense heatwaves, have become more frequent and severe, leading to increased crop failures and reduced productivity . To address these challenges, farmers are adopting innovative technologies and management strategies, including advanced irrigation techniques and drought-resistant crop varieties (Keutgen, 2023).
Extreme weather events
Extreme weather events, such as prolonged droughts, intense heatwaves, and severe storms, have become increasingly frequent and intense in recent years, posing significant challenges to U.S. agriculture (Sun & Chang, 2023). These events can cause substantial crop damage, reduce yields, and disrupt agricultural operations, leading to economic losses for farmers and potential food security concerns (Marković et al., 2021).
Droughts
Droughts pose a significant threat to agricultural productivity in the United States, with severe economic implications for farmers and potential food security concerns. A study by Sun & Chang (2023) revealed that prolonged drought conditions in major agricultural regions have led to substantial crop yield reductions, particularly affecting water-intensive crops such as corn and soybeans . To mitigate these impacts, farmers are increasingly adopting drought-resistant crop varieties and implementing advanced irrigation techniques, such as drip irrigation systems, which have shown promising results in improving water use efficiency and maintaining crop yields under water-scarce conditions (R. Yang et al., 2023).
Floods
Floods pose another significant threat to U.S. agriculture, particularly in low-lying coastal areas and regions prone to heavy rainfall. These events can lead to soil erosion, crop damage, and loss of arable land, impacting both short-term productivity and long-term soil health . To mitigate flood-related risks, farmers are implementing improved drainage systems and adopting flood-resistant crop varieties, which have shown promising results in maintaining yields under challenging conditions (Lestari et al., 2024).
Heatwaves
Heatwaves pose a significant threat to agricultural productivity, particularly affecting crops during critical growth stages and increasing water demand for irrigation. A study by Marković et al. (2021) found that prolonged exposure to high temperatures can lead to reduced crop yields, altered plant physiology, and increased susceptibility to pests and diseases . To mitigate these impacts, farmers are implementing adaptive strategies such as adjusting planting dates, selecting heat-tolerant crop varieties, and improving irrigation efficiency (Dissanayaka et al., 2023).
Climate change impacts
Climate change impacts on U.S. agriculture extend beyond extreme weather events, affecting long-term temperature and precipitation patterns. Rising average temperatures are altering growing seasons and crop suitability zones, necessitating shifts in planting dates and crop selection (Grigorieva et al., 2023). Additionally, changes in precipitation patterns are leading to increased water stress in some regions, while others experience more frequent flooding events, both of which pose significant challenges to agricultural productivity and soil health (García et al., 2020).
Shifting growing seasons
The shifting of growing seasons due to climate change has significant implications for crop selection and management practices in U.S. agriculture. Research by Grigorieva et al. (2023) indicates that warmer temperatures are extending the growing season in many regions, allowing for the cultivation of longer-season varieties and potentially increasing crop yields . However, these changes also present challenges, such as increased pest pressure and altered water availability patterns, requiring farmers to adapt their agricultural practices accordingly (Oo et al., 2023).
Changes in precipitation patterns
Changes in precipitation patterns have led to increased variability in water availability across U.S. agricultural regions, with some areas experiencing more frequent and intense rainfall events while others face prolonged dry periods (Adekanmbi et al., 2023). This variability poses significant challenges for water management in agriculture, necessitating the adoption of adaptive strategies such as improved irrigation systems and water-efficient crop varieties (Goyal et al., 2017).
Soil degradation and erosion
Soil degradation and erosion pose significant challenges to U.S. agriculture, with implications for long-term productivity and environmental sustainability. A study by Yang et al. (2023) found that inappropriate agricultural management practices can accelerate soil erosion rates, particularly in regions with irregular rainfall patterns . To address these issues, conservation agriculture (CA) techniques have shown promise in reducing soil erosion risk, with one study demonstrating a 7.5% average decrease in soil loss rates compared to conventional management practices (Petito et al., 2022).
Water Resources
Water resource management is a critical challenge for U.S. agriculture, particularly in regions experiencing increased water stress due to climate change. The implementation of advanced irrigation technologies, such as drip irrigation systems, has shown promising results in improving water use efficiency and maintaining crop yields under water-scarce conditions (R. Yang et al., 2023). However, the adoption of these technologies is often hindered by factors such as high initial costs and limited farmer knowledge, especially in small-scale farming operations (Khokhar & Kumar, 2024).
Water scarcity
Water scarcity has become a critical issue in many agricultural regions of the United States, particularly in the arid and semi-arid western states. This scarcity is exacerbated by the increasing competition for water resources between agricultural, industrial, and urban sectors, as well as the growing impacts of climate change on water availability (García et al., 2020). To address these challenges, farmers are increasingly adopting water-efficient irrigation technologies, such as drip irrigation systems, which have demonstrated significant improvements in water use efficiency and crop yields under water-scarce conditions (R. Yang et al., 2023).
Groundwater depletion
Groundwater depletion has become a critical issue in many agricultural regions of the United States, particularly in areas relying heavily on aquifers for irrigation. A study conducted in Solapur, India, revealed that over-extraction for irrigation, combined with geological factors related to low permeability of basaltic rocks, has led to a significant decline in water table levels (Shaikh & Birajdar, 2024). This phenomenon is mirrored in various U.S. agricultural regions, where intensive irrigation practices have resulted in the rapid depletion of groundwater resources, threatening long-term agricultural sustainability and ecosystem health (Shaikh & Birajdar, 2024b).
Water quality issues
Water quality issues in U.S. agriculture encompass both surface and groundwater contamination, primarily due to nutrient runoff from agricultural activities. A study in Ireland found that nitrogen and phosphorus transfer to water bodies is mediated by soil water dynamics, which vary significantly across regions and seasons (Schulte et al., 2022). In the United States, similar patterns of nutrient pollution have been observed, with regional variations in nutrient concentrations and ratios affecting water quality and ecosystem health (Savić et al., 2022).
Land Availability and Use
Land availability and use in U.S. agriculture are influenced by various factors, including urbanization, climate change, and shifting agricultural practices. A study by Yang et al. (2023) found that inappropriate land management practices can lead to soil degradation and reduced agricultural productivity, emphasizing the need for sustainable land use strategies . Additionally, the expansion of urban areas into previously agricultural lands has resulted in a significant reduction of arable land, particularly in regions experiencing rapid population growth (Dawoud et al., 2024).
Urban sprawl and loss of farmland
Urban sprawl has significantly impacted agricultural land availability in the United States, with rapid population growth and urban expansion leading to the conversion of prime farmland into residential and commercial areas (Ahmed et al., 2021). This trend is particularly evident in peri-urban areas, where the development of residential neighborhoods and industrial units has fragmented agricultural lands, compelling farmers to adapt by creating multiple segregated farmlands within urban settings (Kuusaana et al., 2022).
Competition with other land uses
The competition for land use in U.S. agriculture extends beyond urban expansion, encompassing conflicts between agricultural production and environmental conservation efforts. A study by Goyal et al. (2017) found that the implementation of advanced irrigation technologies, such as drip irrigation systems, can significantly improve water use efficiency and crop yields, potentially reducing the land area required for agricultural production (Goyal et al., 2017). However, the adoption of these technologies is often hindered by factors such as high initial costs and limited farmer knowledge, particularly in small-scale farming operations .
Fragmentation of agricultural lands
The fragmentation of agricultural lands in the United States has been exacerbated by urban expansion and changing land use patterns, leading to a mosaic of smaller, disconnected farm parcels. This phenomenon has significant implications for agricultural productivity and ecosystem services, as it can disrupt natural habitats and increase the edge effects on farmland (Catarino et al., 2015). To address these challenges, some regions have implemented land consolidation programs and zoning regulations aimed at preserving contiguous agricultural areas and minimizing further fragmentation (Mntambo, 2022).
Economic and Market Factors
Economic and market factors play a crucial role in shaping the challenges faced by U.S. agriculture. The sector is subject to significant price volatility, with fluctuations in commodity prices impacting farm incomes and investment decisions (Mazzucato, 2023). Additionally, the increasing adoption of automation and robotics in farming practices presents both opportunities for increased productivity and challenges related to labor displacement and technological investment (Bazargani & Deemyad, 2024).
Fluctuating commodity prices
Fluctuating commodity prices in U.S. agriculture have significant implications for farm income stability and investment decisions. A study by Mazzucato (2023) found that price volatility in agricultural commodities has increased in recent years, driven by factors such as climate change, global market dynamics, and policy shifts . To mitigate the impact of price fluctuations, some farmers have adopted risk management strategies, including futures contracts and diversification of crop portfolios (Chen et al., 2021).
International trade policies and competition
International trade policies and competition significantly impact U.S. agricultural exports, with tariffs, non-tariff barriers, and bilateral agreements shaping market access and competitiveness (Boys et al., 2022). The implementation of organic equivalency agreements (OEAs) between the U.S. and countries such as Canada and Switzerland has been found to facilitate U.S. organic exports, demonstrating the potential effectiveness of such trade policy instruments in promoting international market opportunities for U.S. agricultural products (Boys et al., 2022).
Farm labor shortages
Farm labor shortages in U.S. agriculture have been exacerbated by factors such as changing immigration policies, aging workforce demographics, and increasing competition from other sectors (Prause, 2021). To address these challenges, some agricultural operations have begun integrating automation and robotics technologies, which offer potential solutions for labor-intensive tasks while also raising concerns about job displacement and the need for specialized skills among farm workers .
Rising production costs
Rising production costs in U.S. agriculture have been driven by factors such as increasing energy prices, higher input costs for fertilizers and pesticides, and the need for technological investments to maintain competitiveness (Goyal et al., 2017). To address these challenges, some farmers have adopted precision agriculture techniques, which optimize resource use and potentially reduce overall production costs while improving yields (Goyal et al., 2017).
Technological and Infrastructure Limitations
Technological and infrastructure limitations in U.S. agriculture encompass challenges related to the adoption of advanced farming techniques and the development of robust rural infrastructure. The implementation of precision agriculture technologies, such as automated irrigation systems and remote sensing devices, is often hindered by the high initial costs and the need for specialized technical knowledge (Ansari et al., 2023). Additionally, inadequate rural broadband connectivity impedes the effective utilization of digital farming tools and data-driven decision-making processes, particularly in remote agricultural regions (Rahmayanti & Wibowo, 2024).
Access to advanced farming technologies
Access to advanced farming technologies in U.S. agriculture is often limited by high initial costs and the need for specialized technical knowledge . A study by Ansari et al. (2023) found that the adoption of precision agriculture technologies, such as automated irrigation systems and remote sensing devices, is particularly challenging for small-scale farming operations due to financial constraints and limited technical expertise (Dhillon & Moncur, 2023).
Rural broadband connectivity
Rural broadband connectivity challenges extend beyond technological limitations, encompassing economic and policy barriers as well (Sanchez-Arias et al., 2023). A study in Far North Queensland, Australia, demonstrated that collaborative efforts between telecommunications providers, government entities, and community organizations can lead to improved digital connectivity and crisis resilience in rural areas (Marshall et al., 2023).
Aging infrastructure
Aging infrastructure in U.S. agriculture encompasses deteriorating irrigation systems, outdated storage facilities, and inadequate rural transportation networks. These infrastructure challenges can lead to inefficiencies in water distribution, crop storage, and product transportation, ultimately impacting agricultural productivity and profitability (Goyal et al., 2017). To address these issues, some regions have implemented modernization programs focused on upgrading irrigation systems and improving rural road networks, which have shown potential for enhancing agricultural efficiency and resilience (Bennedetti et al., 2023).
Policy and Regulatory Challenges
Policy and regulatory challenges in U.S. agriculture encompass a complex interplay of federal, state, and local regulations that impact farming practices, environmental conservation, and market dynamics. A key issue is the implementation of climate-smart agriculture programs, which face challenges in quantifying soil carbon sequestration and ensuring long-term carbon storage in soils (Ogle et al., 2023). Additionally, the development of effective water management policies is crucial, as evidenced by Morocco's experience with integrated water resource management, which highlights the need for interdisciplinary approaches to address water scarcity and access inequalities (Sánchez et al., 2022).
Environmental regulations
Environmental regulations in U.S. agriculture aim to balance agricultural productivity with ecological conservation, addressing issues such as water quality, soil health, and greenhouse gas emissions. The implementation of climate-smart agriculture programs faces challenges in accurately quantifying soil carbon sequestration and ensuring long-term carbon storage in soils . These regulatory frameworks must adapt to regional variations in environmental conditions and agricultural practices, necessitating flexible approaches that can accommodate diverse farming systems across the country.
Farm subsidies and support programs
Farm subsidies and support programs in the United States have historically aimed to stabilize farm incomes and support agricultural productivity. However, recent studies suggest that these programs may have unintended consequences on labor productivity in the agricultural sector (Bereżnicka & Wicki, 2021). The 2023 Farm Bill reauthorization presents an opportunity to reform key components such as the Agriculture Risk Coverage (ARC) and Price Loss Coverage (PLC) programs to better align with sustainability goals and promote regenerative agricultural practices (Chartampila et al., 2023).
Land use policies
Land use policies in U.S. agriculture have evolved to address the complex challenges of balancing agricultural productivity with environmental conservation and urban development. A study by Ansari et al. (2023) found that the implementation of conservation agriculture techniques, such as no-till farming and crop rotation, can significantly reduce soil erosion rates and improve long-term soil health . However, the effectiveness of these policies is often limited by inconsistent enforcement and varying regional priorities, necessitating a more harmonized approach to land use regulation across different agricultural zones (le Polain de Waroux et al., 2016).
Biological and Ecological Factors
Biological and ecological factors in U.S. agriculture encompass a wide range of challenges, including pest and disease management, biodiversity conservation, and ecosystem services preservation. The increasing prevalence of invasive species and emerging plant pathogens poses significant threats to crop yields and agricultural sustainability (Yang et al., 2023). Additionally, the intensification of agricultural practices has led to a decline in beneficial insect populations, particularly pollinators, which are crucial for maintaining crop productivity and ecosystem balance (Kovačević, 2021).
Pest and disease outbreaks
Pest and disease outbreaks in U.S. agriculture have become increasingly frequent and severe, posing significant threats to crop yields and food security (Jalaluddin & Othman, 2022). To address these challenges, farmers are adopting integrated pest management strategies, including the use of bio-based technologies and precision agriculture techniques for early detection and targeted treatment of infestations (Appiah et al., 2024).
Invasive species
Invasive species pose a significant threat to U.S. agriculture, with their rapid spread and adaptability causing substantial ecological and economic damage (Jarnevich et al., 2022). A study on Phytolacca americana in China demonstrates how introduced species can form monoculture communities, reducing native species diversity and threatening agricultural productivity (Nan et al., 2024).
Declining biodiversity
The declining biodiversity in U.S. agricultural landscapes has significant implications for ecosystem services and long-term agricultural sustainability. A study in Mediterranean environments found that natural regeneration of hedgerows, which promote biodiversity and multi-functionality, is often poor due to factors such as drought, herbivory, and herb competition (de León et al., 2023). These findings underscore the need for targeted conservation efforts and adaptive management strategies to maintain and enhance biodiversity in U.S. agricultural systems.
Conclusion
The implementation of climate-smart agriculture programs faces significant challenges, including the accurate quantification of soil carbon sequestration and ensuring long-term carbon storage in soils (Ogle et al., 2023). To address these issues, policymakers must carefully design interventions that balance direct regulations, subsidies, tax incentives, and carbon credit offsets while mitigating potential risks associated with each approach (Ogle et al., 2023).
Summary of key limiting factors
The key limiting factors in U.S. agriculture encompass climate change impacts, water resource constraints, land availability challenges, economic pressures, technological barriers, and policy complexities. These factors interact in complex ways, necessitating a multifaceted approach to address agricultural sustainability and productivity (Ogle et al., 2023). For instance, the implementation of advanced irrigation technologies, such as drip irrigation systems, has shown potential for improving water use efficiency and crop yields in water-scarce conditions, but their adoption is often hindered by high initial costs and limited technical expertise among farmers (Goyal et al., 2017).
Future outlook and potential solutions
To address these multifaceted challenges, a holistic approach integrating technological innovation, policy reform, and sustainable farming practices is essential. The development of climate-smart agriculture programs, coupled with precision farming techniques and advanced water management strategies, offers promising avenues for enhancing agricultural resilience and productivity . Additionally, the adoption of vertical farming and ocean farming in land-constrained and coastal regions, respectively, presents innovative solutions for diversifying agricultural production and optimizing resource use (Asem-Hiablie et al., 2023).
References
Ogle, S. M., Conant, R., Fischer, B., Haya, B. K., Manning, D. T., McCarl, B., & Zelikova, T. J. (2023). Policy challenges to enhance soil carbon sinks: the dirty part of making contributions to the Paris agreement by the United States. Carbon Management, 14.
Goyal, M., Panigrahi, B., & Panda, S. (2017). Micro Irrigation Scheduling and Practices.
Dixit, P. S., Singh, A. K., Tripathi, C. M., Singh, R., & Kumar, P. (2023). A Review on Protected Cultivation of Vegetables: Opportunities and Challenges. International Journal of Environment and Climate Change.
Yang, R., Harrison, M., & Wang, X. (2023). Current State and Limiting Factors of Wheat Yield at the Farm Level in Hubei Province. Agronomy.
Keutgen, A. (2023). Climate change: challenges and limitations in agriculture. IOP Conference Series: Earth and Environment, 1183.
Sun, W., & Chang, F.-J. (2023). Empowering Greenhouse Cultivation: Dynamic Factors and Machine Learning Unite for Advanced Microclimate Prediction. Water.
Marković, M., Šoštarić, J., Josipović, M., & Atılgan, A. (2021). Extreme Weather Events Affect Agronomic Practices and Their Environmental Impact in Maize Cultivation. Applied Sciences.
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.
Lestari, S., Roeswitawati, D., Syafrani, S., Maftuchah, M., & Purnama, I. (2024). Addressing Nitrogen-rich Biomass Production Challenges in Azolla microphylla Cultivation from Varying Shading and Water Depth Dynamics. Pertanika Journal of Tropical Agricultural Science.
Dissanayaka, D., Dissanayake, D., Udumann, S., Nuwarapaksha, T., & Atapattu, A. (2023). Agroforestry—a key tool in the climate-smart agriculture context: a review on coconut cultivation in Sri Lanka. Frontiers in Agronomy, 5.
Grigorieva, E. A., Livenets, A. S., & Stelmakh, E. (2023). Adaptation of Agriculture to Climate Change: A Scoping Review. Climate.
García, L., Parra, L., Jiménez, J. M., Lloret, J., & Lorenz, P. (2020). IoT-Based Smart Irrigation Systems: An Overview on the Recent Trends on Sensors and IoT Systems for Irrigation in Precision Agriculture. Italian National Conference on Sensors, 20.
Oo, A. T., Boughton, D., & Aung, N. (2023). Climate Change Adaptation and the Agriculture–Food System in Myanmar. Climate.
Adekanmbi, T., Wang, X., Basheer, S., Nawaz, R. A., Pang, T., Hu, Y., & Liu, S. (2023). Assessing Future Climate Change Impacts on Potato Yields — A Case Study for Prince Edward Island, Canada. Foods, 12.
Petito, M., Cantalamessa, S., Pagnani, G., Degiorgio, F., Parisse, B., & Pisante, M. (2022). Impact of Conservation Agriculture on Soil Erosion in the Annual Cropland of the Apulia Region (Southern Italy) Based on the RUSLE-GIS-GEE Framework. Agronomy.
Khokhar, H., & Kumar, C. (2024). Safeguarding Tomato Cultivation: Challenges and Integrated Pest Management Strategies in North India. BIO Web of Conferences.
Shaikh, M., & Birajdar, F. (2024b). GROUNDWATER DEPLETION IN AGRICULTURAL REGIONS: CAUSES, CONSEQUENCES, AND SUSTAINABLE MANAGEMENT: A CASE STUDY OF BASALTIC TERRAIN OF SOLAPUR DISTRICT. EPRA International Journal of Multidisciplinary Research.
Shaikh, M., & Birajdar, F. (2024a). GROUNDWATER AND ECOSYSTEMS: UNDERSTANDING THE CRITICAL INTERPLAY FOR SUSTAINABILITY AND CONSERVATION. EPRA International Journal of Multidisciplinary Research.
Schulte, R., Richards, K., Daly, K., Kurz, I., Mcdonald, E., & Holden, N. (2022). AGRICULTURE, METEOROLOGY AND WATER QUALITY IN IRELAND: A REGIONAL EVALUATION OF PRESSURES AND PATHWAYS OF NUTRIENT LOSS TO WATER. Biology and Environment: Proceedings of the Royal Irish Academy, 106B, 117–133.
Savić, R., Stajić, M., Blagojević, B., Bezdan, A., Vranešević, M., Jokanović, V. N., Baumgertel, A., Kovačić, M. B., Horvatinec, J., & Ondrašek, G. (2022). Nitrogen and Phosphorus Concentrations and Their Ratios as Indicators of Water Quality and Eutrophication of the Hydro-System Danube–Tisza–Danube. Agriculture.
Dawoud, M., Sallam, G. R., Abdelrahman, M., & Emam, M. (2024). The Performance and Feasibility of Solar-Powered Desalination for Brackish Groundwater in Egypt. Sustainability.
Ahmed, S., Wu, H., Akhtar, S., Imran, S., Hassan, G., & Wang, C. (2021). An analysis of urban sprawl in Pakistan: consequences, challenges, and the way forward. International Journal of Agricultural Extension.
Kuusaana, E. D., Ayurienga, I., Kuusaana, J. A. E., Kidido, J., & Abdulai, I. A. (2022). Challenges and Sustainability Dynamics of Urban Agriculture in the Savannah Ecological Zone of Ghana: A Study of Bolgatanga Municipality. Frontiers in Sustainable Food Systems, 6.
Catarino, L., Menezes, Y., & Sardinha, R. (2015). Cashew cultivation in Guinea-Bissau – risks and challenges of the success of a cash crop. Scientia Agricola, 72, 459–467.
Mntambo, B. (2022). Land Tenure Security and Urban Agriculture: Focusing on the Vegetable Cultivation in Morogoro Municipality, Tanzania. Huria Journal of the Open University of Tanzania.
Mazzucato, M. (2023). Governing the economics of the common good: from correcting market failures to shaping collective goals. Journal of Economic Policy Reform, 27, 1–24.
Bazargani, K., & Deemyad, T. (2024). Automation’s Impact on Agriculture: Opportunities, Challenges, and Economic Effects. Robotics, 13, 33.
Chen, Z., Goh, H. S., Sin, K. L., Lim, K., Chung, N. K. H., & Liew, X. Y. (2021). Automated Agriculture Commodity Price Prediction System with Machine Learning Techniques. Advances in Science, Technology and Engineering Systems, abs/2106.12747.
Boys, K. A., Zhang, S., & Hooker, N. (2022). The international trade of U.S. organic agri-food products: export opportunities, import competition and policy impacts. Renewable Agriculture and Food Systems, 37, 603–617.
Prause, L. (2021). Digital Agriculture and Labor: A Few Challenges for Social Sustainability. Sustainability, 13, 5980.
Ansari, A., Wuryandani, S., Pranesti, A., Telaumbanua, M., Ngadisih, Hardiansyah, M. Y., Alam, T., Martini, T., Yadav, S., & Dixon, J. (2023). Optimizing water-energy-food nexus: achieving economic prosperity and environmental sustainability in agriculture. Frontiers in Sustainable Food Systems.
Rahmayanti, D., & Wibowo, W. M. (2024). Transformasi Digital: Literasi dan Pemberdayaan Masyarakat Desa Wajak berbasis Teknologi Informasi dan Komunikasi Menghadapi Keterbukaan Masa Kini. ABDIMAS TERAPAN : Jurnal Pengabdian Kepada Masyarakat Terapan.
Dhillon, R., & Moncur, Q. (2023). Small-Scale Farming: A Review of Challenges and Potential Opportunities Offered by Technological Advancements. Sustainability.
Sanchez-Arias, R., Jaimes, L. G., Taj, S., & Habib, M. S. (2023). Understanding the State of Broadband Connectivity: An Analysis of Speedtests and Emerging Technologies. IEEE Access, 11, 101580–101603.
Marshall, A., Wilson, C.-A., & Dale, A. (2023). New pathways to crisis resilience: solutions for improved digital connectivity and capability in rural Australia. Media International Australia, 189, 24–42.
Bennedetti, L., Sinisgalli, P. A. D. A., Ferreira, M. L., & de Oliveira, F. L. (2023). Challenges to Promote Sustainability in Urban Agriculture Models: A Review. International Journal of Environmental Research and Public Health, 20.
Sánchez, L. M. S.-N., Bossenbroek, L., Schilling, J., & Berger, E. (2022). Governance and Sustainability Challenges in the Water Policy of Morocco 1995–2020: Insights from the Middle Draa Valley. Water.
Bereżnicka, J., & Wicki, L. (2021). Do Farm Subsidies Improve Labour Efficiency in Farms in EU Countries? EUROPEAN RESEARCH STUDIES JOURNAL.
Chartampila, E., LePetri, N., & Rothstein, S. (2023). Climate Change, Food, and National Security: Reforming Farm Subsidies to Incentivize Regenerative Agriculture Practices to Increase U.S. Food System Climate Resilience. Journal of Science Policy & Governance.
le Polain de Waroux, Y., Garrett, R., Heilmayr, R., & Lambin, E. (2016). Land-use policies and corporate investments in agriculture in the Gran Chaco and Chiquitano. Proceedings of the National Academy of Sciences of the United States of America, 113, 4021–4026.
Kovačević, V. (2021). Analysis of current state and limiting factors for the development of organic sector in Serbia. Western Balkan Journal of Agricultural Economics and Rural Development.
Jalaluddin, N. S., & Othman, R. Y. (2022). Perceptions on the Challenges of Banana Cultivation and Bio-based Technology Use Among Malaysian Smallholder Farmers. Asian Journal of Agriculture and Development.
Appiah, O., Hackman, K., Diallo, B., Ogunjobi, K. O., Diakalia, S., Valentin, O., Abdoul-Karim, D., & Dabire, G. (2024). PlanteSaine: An Artificial Intelligent Empowered Mobile Application for Pests and Disease Management for Maize, Tomato, and Onion Farmers in Burkina Faso. Agriculture.
Jarnevich, C., Sofaer, H., Belamaric, P. N., & Engelstad, P. (2022). Regional models do not outperform continental models for invasive species. NeoBiota.
Nan, Q., Li, C., Li, X., Zheng, D., Li, Z., & Zhao, L. (2024). Modeling the Potential Distribution Patterns of the Invasive Plant Species Phytolacca americana in China in Response to Climate Change. Plants, 13.
de León, D. G., Benayas, J. M. R., & Villar‐Salvador, P. (2023). Assessing the limiting factors of natural regeneration in Mediterranean planted hedgerows. Frontiers in Ecology and Evolution.
Asem-Hiablie, S., Uyeh, D. D., Adelaja, A., Gebremedhin, K. G., Srivastava, A., Ileleji, K., Gitau, M., Ha, Y., & Park, T. (2023). An Outlook on Harnessing Technological Innovative Competence in Sustainably Transforming African Agriculture. Global Challenges, 7.