Smart Farming’s Contribution to Sustainable Agriculture: Analyzing Linkages between South Korean Smart Farming Policy and Korean Sustainable Development Goals (K-SDGs)
0
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
Smart farming (SF) receives significant attention not only as a maximizer of agricultural productivity, but also as a strategy to achieve United Nation’s Sustainable Development Goals (SDGs), yet the actual state of its contribution to the environmental SDGs remains uncertain. This paper presents a methodological approach for policy analysis by identifying linkages between South Korean SF policies and Korean Sustainable Goals (K-SDGs) targets addressing six main South Korean agriculture-related environmental issues. Linkage is defined as an explicit measure that acts as a solution to prevent or minimize a specific issue. First, an overview of K-SDGs and six environmental issues (yield productivity, greenhouse gas emission, pest and weeds, water resources, soil quality and biodiversity) reveals that 17 K-SDGs targets address the issues. The analysis reveals significant shortcomings, particularly in the low integration of pesticide use and soil quality concerns into the K-SDGs. Out of a possible 68 linkages between four SF policies and 17 K-SDGs, only 17 were identified, with 10 linking to food production and consumption-related SDGs. This indicates that current smart farming policies put a secondary focus on smart farm technology’s potential to minimize environmental challenges. To bridge the gap between SF and sustainable agriculture, SF policies should incorporate climate-smart agriculture, with a specific focus on reducing greenhouse gas emissions, and promote greater collaboration among policymaking institutions.
Abstract
Smart farming (SF) receives significant attention not only as a maximizer of agricultural productivity, but also as a strategy to achieve United Nation’s Sustainable Development Goals (SDGs), yet the actual state of its contribution to the environmental SDGs remains uncertain. This paper presents a methodological approach for policy analysis by identifying linkages between South Korean SF policies and Korean Sustainable Goals (K-SDGs) targets addressing six main South Korean agriculture-related environmental issues. Linkage is defined as an explicit measure that acts as a solution to prevent or minimize a specific issue. First, an overview of K-SDGs and six environmental issues (yield productivity, greenhouse gas emission, pest and weeds, water resources, soil quality and biodiversity) reveals that 17 K-SDGs targets address the issues. The analysis reveals significant shortcomings, particularly in the low integration of pesticide use and soil quality concerns into the K-SDGs. Out of a possible 68 linkages between four SF policies and 17 K-SDGs, only 17 were identified, with 10 linking to food production and consumption-related SDGs. This indicates that current smart farming policies put a secondary focus on smart farm technology’s potential to minimize environmental challenges. To bridge the gap between SF and sustainable agriculture, SF policies should incorporate climate-smart agriculture, with a specific focus on reducing greenhouse gas emissions, and promote greater collaboration among policymaking institutions.
참고문헌 (87)
- Ashir, D. M. N. A., "Internet of Things (IoT) based Smart Agriculture Aiming to Achieve Sustainable Goals", Computers and Society, ~ (2022)
- Balafoutis, A., "Precision Agriculture Technologies Positively Contributing to GHG Emissions Mitigation, Farm Productivity and Economics", Sustainability, 9(8), pp.1339~ (2017)
- Bartkowiak, A. M., "Energy-saving and low-emission livestock buildings in the concept of a smart farming", Journal of Water and Land Development, 51(X-XII), pp.272~278 (2021)
- Bae, S., "Changes in Agricultural Patterns and Pest Management Strategies", Korean Society Of Applied Entomology, 10, pp.54~ (2021)
- Bronson, K., "Smart Farming : Including Rights Holders for Responsible Agricultural Innovation", Technology Innovation Management Review, 8(2), pp.7~14 (2018)
- Bureau of Climate, Environment and Science, "Submission of revised 2030 Nationally Determined Contributions (NDCs) to the United Nations Framework Convention on Climate Change Secretariat", Ministry of Foreign Affairs, ~ (2021)
- Campbell, B. M., "Urgent action to combat climate change and its impacts(SDG 13) : Transforming agriculture and food systems", Current Opinion in Environmental Sustainability, 34, pp.13~20 (2018)
- "Disappearing apples and growing tangerines in Gangwon do in 50 years" (2022)[URL]
- "Climate-Smart Agriculture Program’" (2023)[URL]
- Doshi, J., "Smart Farming using IoT, a solution for optimally monitoring farming conditions", Procedia Computer Science, 160, pp.746~751 (2019)
- EIP Agri, "Horizon 2020 multi-actor projects", EIP-AGRI Network, ~ (2017)
- EIP Agri, "Climate-smart agriculture Solutions for resilient farming and forestry", EIP-AGRI Network, ~ (2021)
- Agricultural Knowledge and Innovation Systems Towards 2020 - An Orientation Paper on Linking Innovation and Research, "EU SCAR", European Union Standing Committee on Agricultural Research, ~ (2013)
- "The State of National Green House Gas Emissions" (2022)[URL]
- FAO, "Climate-smart agriculture and the Sustainable Development Goals: Mapping interlinkages, synergies and trade-offs and guidelines for integrated implementation" (2019), FAO
- Emissions due to agriculture. Global, regional and country trends 2000-2018, "FAO", FAOSTAT, ~, pp.FAOSTAT Analytical Brief Series No. 18 (2000)
- Grogan, A., "Smart farming", Engineering & Technology, 7(6), pp.38~40 (2012)
- Fragkou, E., "Quantifying the impact of a smart farming system application on local-scale air quality of smallhold farms in Greece", Air Quality, Atmosphere & Health, 16(1), pp.1~14 (2023)
- "Smart Agriculture Market Size, Share & Trends Analysis Report By Type (Precision Farming, Livestock Monitoring, Smart Greenhouse, Others), By Application, By Region, And Segment Forecasts, 2023 – 2030" (2022)[URL]
- "‘K-Agriculture’ for the world...doubling agricultural ODA by 2027" (2023)[URL]
- Haque, A., "Smart Farming through Responsible Leadership in Bangladesh : Possibilities, Opportunities, and Beyond", Sustainability, 13(8), pp.4511~ (2021)
- Hellin, J., "The Achilles heel of climate-smart agriculture", Nature Climate Change, 9, pp.493~494 (2019)
- Hong, S. H., "Predicting Impacts of Climate Change on Northward Range Expansion of Invasive Weeds in South Korea", Plants, 10(8), pp.1604~ (2021)
- "Smart Farming: The Future of Agriculture" (2023)[URL]
- Jeon, S., "Soil Management Priorities in Korea", Geoderma Regional, 29, pp.e00516~ (2022)
- Jeong, Y., "An Analysis on the Process of Policy Formation of Smart Farms Dissemination applying Multiple Streams Framework", The Journal of Korean Society of Rural Planning (2019), Korean Society of Rural Planning
- Present Day Status and Development Direction of Smart Agriculture, "Kim, Y.", Korean Rural Economic Institute, ~ (2013)
- Kim, C-G, "An Analysis of the Factors Affecting Farmers’ Recognition and Acceptance on Sustainable Agriculture", Korean Journal of Organic Agriculture, 23(2), pp.247~265 (2015)
- An Analysis of the Current Status and Success Factors of Smart Farms, "Kim, Y.", Korea Rural Economic Institute, ~ (2016)
- Development of Smart Agriculture Coping with the 4th Industrial Revolution, "Kim Y.", Korea Rural Economic Institute, ~ (2017)
- Kim, T. J., "A Study on the Reasons of Development Gap in Rural Community Development : The Application of Neo-Endogenous Development", Korean Journal of Organic Agriculture, 28(1), pp.69~93 (2020)
- "Adding 4 leased smart farms... Providing organic materials to regular farmers" (2022)[URL]
- Korea Climate Change Assessment Report 2020, "KMA", Korea Meteorological Administration, ~ (2020)
- Koutridi, E., "The importance of integrating Smart Farming Technologies into Rural Policies (Aiming at sustainable rural development)- Stakeholders’ views", Smart Agricultural Technology, 4, pp.100206~ (2023)[DOI]
- Kwon, Y., "Effects of meteorological factors and global warming on rice insect pests in Korea", Journal of Asia-Pacific Entomology, 15(3), pp.507~515 (2012)
- Lee, S., "Review on investment direction of green technology R&D in Korea", Renewable and Sustainable Energy Reviews, 50, pp.186~193 (2015)
- "South Korea’s Reforms Should not be Called a Green New Deal" (2020)[URL]
- Lim, J. Y., "Agricultural nitrogen and phosphorus balances of Korea and Japan : Highest nutrient surplus among OECD member countries", Environmental Pollution, 286, pp.117353~ (2021)
- Lin, X., "Advanced energy consumption system for smart farm based on reactive energy utilization technologies", Environmental Impact Assessment Review, 86, pp.106496~ (2021)
- Lieder, S., "Smart Farming Technologies in Aravle Farming : Towards a Holistic Assessment of Opportunities and Risks", Sustainability, 13(12), pp.6783~ (2021)
- "Agricultural innovation growth by smart farms" (2018)[URL]
- "Smart farm R&D takes off!" (2019)[URL]
- "Smart Farm, Business Content" (2020)[URL]
- "Fruit Tree Smart Farm Expansion" (2021)[URL]
- "Korea Designated New Global Offices to Support K-Smart Farm Export" (2024)[URL]
- Makate, C., "Effective scaling of climate smart agriculture innovations in African smallholder agriculture : A review of approaches, policy and institutional strategy needs", Environmental Science and Policy, 96, pp.37~51 (2019)
- Maraseni, T., "Carbon smart agriculture : An integrated regional approach offers significant potential to increase profit and resource use efficiency, and reduce emissions", Journal of Cleaner Production, 282, pp.124555~ (2021)
- Marescotti, M. E., "Smart farming in mountain areas : Investigating livestock farmers’ technophobia and technophilia and their perception of innovation", Journal of Rural Studies, 86, pp.463~472 (2021)
- "Smart Agriculture Market by Offering (Hardware, Software, Services), Agirculture Type, Farm Size (Large, Medium, Small), Application (Precision Farming, Livestock Monitoring) and Region (America, Europe, Asia, Pacific, Row) – Global Forecast to 2028" (2023)[URL]
- A Report on Korean-Sustainable Development Goals(K-SDGs)2019, "Ministry of Environment", Ministry of Environment, ~ (2019)
- Musa, S. F. P. D., "The Role of Smart Farming in Sustainable Development", International Journal of Asian Business and Information Management, 13(2), pp.1~12 (2022)
- Musa, S. F. P. D., "Smart farming : towards a sustainable agri-food system", British Food Journal, 123(9), pp.3085~3099 (2021)
- Nam, G., "Development of Smart Farming in Korea and the Policy Direction of Agricultural Cooperatives", Cooperative Economics and Management Review, 53, pp.59~81 (2020)
- Nam, W., "Irrigation vulnerability assessment on agricultural water supply risk for adaptive management of climate change in South Korea", Agricultural Water Management, 152, pp.173~187 (2015)
- Navarro, E., "A Systematic Review of IoT Solutions for Smart Farming", Sensors, 20(15), pp.4231~ (2020)
- Nhemachena, C., "Measuring Baseline Agriculture-Related Sustainable Development Goals Index for Southern Africa", Sustainability, 10(3), pp.849~ (2018)
- "Domestic Smart Agriculture Marker, growth to 6 billion WON until 2025" (2023)[URL]
- "Reducing the Methane from Ricefields" (2022)[URL]
- Nurhad, I., "Implementation of Smart Farming-based Agricultural Policy in Trenggalek Regency(Study on the Department of Agriculture and Food in Trenggalek Regency)", Journal of Law and Sustainable Development, 12(1), pp.e2650~ (2024)
- O’ Shaughnessy, S. A., "Towards Smart Farming Solutions in the U.S. and South Korea: A Comparison of the Current Status", Geography and Sustainability, 2(4), pp.312~327 (2021)
- "Getting Governments Organised to Deliver on the Sustainable Development Goals’. High Level Political Forum United Nations - New York" (2017)[URL]
- "Agri- Environmental Indicators. Nutrients" (2020)[URL]
- Ortiz-Bobea, A., "Anthropogenic climate change has slowed global agricultural productivity growth", Nature Climate Change, 11, pp.306~312 (2021)
- Pagliacci, F., "Drivers of Farmers’ Adoption and Continuation of Climate-Smart Agricultural Practices. A Study from Northeastern Italy", Science of The Total Environment, 710, pp.136345~ (2020)
- "How carbon-smart farming can feed us and fight climate change at the same time" (2020)[URL]
- Pereira, F., "Increasing energy efficiency with a smart farm—An economic evaluation", Energy Reports, 8, pp.454~461 (2022)
- Pivoto, D., "Scientific Development of Smart Farming Technologies and Their Application in Brazil", Information Processing in Agriculture, 5(1), pp.21~32 (2018)
- Regan, A., "‘Smart farming’ in Ireland : A risk perception study with key governance Actors", NJAS - Wageningen Journal of Life Sciences, 90-91, pp.100292~ (2019)
- Reganold, J. P., "Sustainable Agriculture", Scientific American, 262(6), pp.112~121 (1990)
- Richard, B., "Control of crop diseases through Integrated Crop Management to deliver climate-smart farming systems for low-and high-input crop production", Plant Pathology, 71, pp.181~206 (2021)
- "Warming is changing the future of fruit cultivation map" (2022)[URL]
- "Response to sudden emerging of pest due to the climate change" (2023)[URL]
- "Nature and Biodiversity Management in Korea: A Policy Perspective" (2007)[URL]
- Sachs, J., "Sustainable Development Report 2022" (2022), Cambridge University Press
- Saha, M. K., "Potential methane emission reduction strategies from rice cultivation systems in Bangladesh : A critical synthesis with global meta-data", Journal of Environmental Management, 310, pp.114755~ (2022)
- Schaafsma, M., "Assessing Smallholder Preferences for Incentivised Climate-Smart Agriculture Using a Discrete Choice Experiment", Land Use Policy, 88, pp.104153~ (2019)
- Shin, Y. K., "Mitigation Options for Methane Emission from Rice Fields in Korea", Ambio, 25(4), pp.289~291 (1996)
- "South Korea’s tidal flats, a World Natural Heritage site that must be protected" (2020)[URL]
- Su, H., "The role of context in identifying linkages between SDG 2(food)and SDG 6(water)", Sustainable Science, 17(4), pp.1605~1618 (2022)
- Suh, D. S., "A study on priority of policy for smart farming system using AHP approach", J Korea Academia Industrial cooperation, 17, pp.348~354 (2016)
- Sung, J. H., "Comparative analysis of Sustainable Development Goals(SDGs)Governance : A Proposal for Korean SDGs Enhancement", Social Science Review, 53(2), pp.1~21 (2022)
- Tripicchio, P., "Towards Smart Farming and Sustainable Agriculture with Drones", International Conference on Intelligent Environments, pp.140~143 (2015)
- Verdouw, C., "Digital twins in smart farming", Agricultural Systems, 189, pp.103046~ (2021)
- Wakweya, R. B., "Challenges and Prospects of Adopting Climate-Smart Agricultural Practices and Technologies : Implications for Food Security", Journal of Agriculture and Food Research, 14, pp.100698~ (2023)
- Walter, A., "Smart farming is key to developing sustainable agriculture", Proceedings of the National Academy of Sciences, 114(24), pp.6148~6150 (2017)
- WIPO(World Intellectual Property Organization), "Global Innovation Index 2023: Innovation in the face of uncertainty" (2023), WIPO
- "Climate-Smart Agriculture" (2021)[URL]
