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市场调查报告书
商品编码
1725153
2032 年气候智慧型农业市场预测:按农业部门、部署模式、技术/解决方案、耕作方式、农场规模、最终用户和地区进行的全球分析Climate Smart Agriculture Market Forecasts to 2032 - Global Analysis By Agriculture Sector, Deployment Model, Technology & Solution, Farming Approach, Farm Size, End User and By Geography |
根据 Stratistics MRC 的数据,全球气候智慧型农业市场预计在 2025 年达到 59 亿美元,到 2032 年将达到 128 亿美元,预测期内的复合年增长率为 11.7%。
这项综合农业策略被称为「气候智慧型农业」(CSA),旨在增强对气候变迁的适应能力,以永续的方式提高农业生产力,并在切实可行的情况下减少温室气体排放。其主要目标是促进生物多样性、节约水资源、改善土壤健康和优化资源。 CSA 将传统专业知识与现代技术相结合,在适应气候变迁挑战和保护环境的同时提供粮食安全。
根据政府间气候变迁专门委员会 (IPCC) 第六次评估报告 (AR6) 第三工作小组于 2022 年发布的报告,包括 CSA 在内的永续土地管理实践对减缓气候变迁具有巨大潜力,预计到 2050 年每年将减少 3-6 GtCO2e。
对全球粮食安全的担忧日益加剧
对全球粮食安全日益增长的担忧是气候智慧型农业领域发展的主要动力。随着世界人口成长和气候变迁加剧,确保稳定充足的粮食供应变得越来越重要。此外,不可预测的天气模式和资源稀缺迫使政府和相关人员采用永续的农业技术。精密农业、资源优化和弹性作物管理是直接解决这些问题的气候智慧型农业方法的例子。此外,政府的优惠政策和对新技术的投资正在加速气候智慧型农业的采用,以确保长期粮食安全和市场扩张。
初期投资成本高
实施物联网感测器、自动化机械和数据分析平台等先进技术需要大量投资,这对于中小型农场来说成本过高。此外,专业培训和基础设施升级的需求也带来了沉重的财务负担。这些前期成本通常会成为广泛采用的障碍,尤其是在资金筹措管道有限的低度开发国家。此外,由于投资回报可能不会立即显现,儘管有长期利益,但农民很难证明转向气候智慧型解决方案是合理的。
开发适应气候变迁的作物品种
生物技术和基因工程的进步使得培育能够抵御恶劣天气和害虫的作物成为可能。此外,这些具有韧性的品种有助于稳定产量并降低作物歉收的可能性,直接支持粮食安全目标。此外,将这些作物与精密农业技术相结合将提高资源效率和永续性。随着气候变迁继续影响传统农业,对新颖而强大的农业解决方案的需求预计将推动市场成长并吸引研发投资。
意外而严重的气候变化
干旱、洪水和热浪都是极端天气的例子,它们会扰乱农业生产、破坏基础设施并降低作物产量。此外,这些事件的不可预测性使得农民和相关企业的规划和投资决策变得困难。此外,频繁且强烈的气候衝击可能超出现有技术的适应能力,造成经济损失并削弱人们对气候智慧解决方案的信任。
新冠疫情以多种方式影响了气候智慧型农业产业。虽然供应链中断和人员短缺构成了最初的障碍,但这场危机也加速了数位化和自动化解决方案的使用,以确保业务连续性。此外,这场疫情凸显了具有韧性的粮食系统的重要性,并促使人们增加对智慧技术和永续实践的投资。因此,业界对气候智慧型农业重新产生了兴趣,将其作为提高生产力、减少对体力劳动的依赖以及增强抵御未来衝击能力的一种手段,所有这些都有助于长期市场成长。
预计作物生产部门将成为预测期内最大的部门
预计在预测期内,作物生产部门将占据最大的市场占有率。这项优势得益于精密农业技术的广泛采用,例如 GPS 导航机械、感测器网路和数据分析,以优化资源利用并最大限度地提高产量。解决粮食安全问题和适应不断变化的天气模式的需求日益增长,推动了对创新作物管理技术的投资。此外,政府的支持和气候智慧型作物的使用正在推动该产业的发展,使作物生产成为不断扩大的气候智慧型农业市场的重要组成部分。
预计在预测期内,小型农场部分将以最高的复合年增长率成长。
预计小型农场部分在预测期内将呈现最高的成长率。这种快速成长的动力来自于专为小农户设计的低成本、用户友好的智慧农业技术。此外,某些政府措施和财政奖励可以为小农户提供精准技术和气候适应性方法。人们越来越认识到小农农场对农村发展和粮食安全的重要性,这也推动了小农现代化投资的增加。因此,小农户正迅速采用气候智慧型技术,推动该产业的复合年增长率和市场转型。
预计北美地区将在预测期内占据最大的市场占有率。这种领导地位得益于早期采用新的农业技术、强有力的政府支持以及完善的研究和创新基础设施。北美农民受益于资本、经验丰富的劳动力和强大的供应链,加速采用气候智慧解决方案。此外,该地区对永续农业技术和监管奖励的重视,以及北美在气候智慧型农业环境方面的主导地位,也正在推动市场成长。
预计亚太地区在预测期内的复合年增长率最高。该地区人口的快速增长、粮食消费的增加以及对气候变迁影响的认识的不断提高都是主要的成长动力。积极的政府计划、对智慧农业技术的大量投资以及物联网、人工智慧和机器人技术的广泛应用正在改变传统的农业技术。此外,利用有限资源实现产量最大化的需求以及精准水产养殖和作物管理系统的扩展正在推动该行业向前发展。
According to Stratistics MRC, the Global Climate Smart Agriculture Market is accounted for $5.9 billion in 2025 and is expected to reach $12.8 billion by 2032 growing at a CAGR of 11.7% during the forecast period. An integrated farming strategy known as "Climate Smart Agriculture" (CSA) seeks to improve climate change resilience, raise agricultural productivity in a sustainable manner, and, when practical, lower greenhouse gas emissions. Its main objectives are biodiversity promotion, water conservation, soil health improvement, and resource optimization. To adapt to climate concerns and provide food security while preserving the environment, CSA blends traditional expertise with contemporary technologies.
According to the Intergovernmental Panel on Climate Change (IPCC) Sixth Assessment Report (AR6), Working Group III, released in 2022, sustainable land management practices, including those within CSA, offer a significant potential for climate change mitigation, with an estimated potential of 3-6 GtCO2e per year by 2050.
Increasing global food security concerns
Rising global food security concerns are a major driver of the climate-smart agriculture sector. As the world's population rises and climate change worsens, securing a consistent and adequate food supply has become crucial. Furthermore, unpredictable weather patterns and resource shortages put pressure on governments and stakeholders to adopt sustainable farming techniques. Precision farming, resource optimization, and resilient crop management are examples of climate smart agriculture methods that directly address these concerns. Furthermore, favorable government policies and investments in new technologies are hastening the adoption of climate-smart practices, ensuring long-term food security and market expansion.
High initial investment costs
Implementing advanced technology such as IoT sensors, automated machinery, and data analytics platforms needs a significant investment, which might be prohibitively expensive for small and medium-sized farms. Additionally, the necessity for specialized training and infrastructure upgrades adds to the financial burden. These upfront costs frequently hinder widespread adoption, particularly in underdeveloped countries where access to financing is limited. Furthermore, the return on investment may not be immediately visible, making it difficult for farmers to justify the switch to climate-smart solutions, despite their long-term benefits.
Development of climate-resilient crop varieties
Advances in biotechnology and genetic engineering are allowing the development of crops that can endure harsh weather, pests, and illnesses. Furthermore, these resilient varieties help to stabilize yields and reduce the probability of crop failure, which directly supports food security goals. Furthermore, combining these crops with precision agriculture technologies improves resource efficiency and sustainability. As climate change continues to influence traditional farming, the desire for novel, strong agricultural solutions are projected to fuel market growth and attract investment in R&D.
Unforeseen and severe climate events
Droughts, floods, and heatwaves are examples of extreme weather events that can interrupt agricultural operations, destroy infrastructure, and lower crop yields. Furthermore, the unpredictability of these events makes planning and investment decisions difficult for farmers and agribusinesses. Furthermore, frequent and powerful climatic shocks may exceed the adaptive ability of current technology, resulting in financial losses and weakening trust in climate-smart solutions.
The Covid-19 outbreak had a mixed influence on the climate-smart agriculture industry. While initial supply chain interruptions and personnel shortages presented hurdles, the crisis encouraged the use of digital and automated solutions to assure operational continuity. Furthermore, the pandemic emphasized the significance of resilient food systems, leading to increasing investment in smart technologies and sustainable practices. As a result, the industry has seen a revived interest in climate smart agriculture as a means of increasing productivity, reducing reliance on manual labor, and building resilience against future shocks, all of which contribute to long-term market growth.
The crop production segment is expected to be the largest during the forecast period
The crop production segment is expected to account for the largest market share during the forecast period. This supremacy is due to the widespread use of precision farming technology like GPS-guided machinery, sensor networks, and data analytics, which optimize resource use and maximize yields. The growing need to solve food security issues and adapt to changing weather patterns drives investment in innovative crop management technology. Additionally, government support and the use of crops that can withstand climate changes help this area grow, making crop production a key part of the expansion of the climate smart agriculture market.
The small-scale farms segment is expected to have the highest CAGR during the forecast period
Over the forecast period, the small-scale farms segment is predicted to witness the highest growth rate. Low-cost, user-friendly smart agriculture technologies specifically designed for smallholders are driving this spike. Furthermore, specific government initiatives and financial incentives provide small-scale farmers with access to precise technologies and climate-resilient methods. Increased investment in modernizing small farms is also being driven by the growing recognition of their significance for rural development and food security. As a result, small-scale farms are quickly embracing climate-smart technologies, helping to drive the segment's strong CAGR and market transformation.
During the forecast period, the North America region is expected to hold the largest market share. This leadership is supported by early adoption of new agricultural technologies, robust government backing, and a well-established infrastructure for research and innovation. North American farmers benefit from access to finance, experienced labor, and solid supply chains, which facilitate the implementation of climate-smart solutions. Furthermore, the region's emphasis on sustainable farming techniques and regulatory incentives fuels market growth, establishing North America as the leading force in the climate smart agriculture environment.
Over the forecast period, the Asia Pacific region is anticipated to exhibit the highest CAGR. The region's rapid population growth, rising food consumption, and increased awareness of climate change implications are all major growth drivers. Aggressive government programs, significant investments in smart farming technologies, and the widespread use of IoT, AI, and robotics are altering traditional agricultural techniques. Furthermore, the need to maximize yields with limited resources, as well as the expansion of precision aquaculture and crop management systems, are driving the industry ahead.
Key players in the market
Some of the key players in Climate Smart Agriculture Market include Deere & Company (John Deere), AGCO Corporation, Trimble Inc., Bayer AG, Cargill, Nutrien Ag Solutions, Indigo Agriculture, Pivot Bio, Raven Industries, Farmer's Edge, Ag Leader Technology, AKVA Group, DeLaval, CropX, AgriWebb, Certis Belchim, Cultilene, and ErfGoed.
In February 2025, John Deere has expanded its digital solutions, integrating new capabilities into the John Deere Operations Center(TM). Customers can now perform secure software updates and diagnostics on 4G-connected equipment, supporting better maintenance, emissions compliance, and environmental standards.
In September 2024, Bayer has launched its global initiative, 'Bayer ForwardFarming', in India. This is the newest of 29 ForwardFarms worldwide. Each ForwardFarm serves as a beacon of sustainable agricultural practices, providing a platform for farmers, researchers, and stakeholders to collaborate and share knowledge. The Bayer ForwardFarm in India will demonstrate innovative farming techniques tailored to the needs of 150~ million smallholder farmers in the country, with a particular focus on sustainable rice cultivation, thus promoting the transition towards regenerative agriculture.
In July 2024, Cargill, a global food and agriculture leader, has issued a $1 million grant to Colorado State University to help fund the university's AgNext research program. The contribution will support cutting-edge research aimed at promoting sustainable animal agriculture practices and reducing the environmental impact of the beef industry.
Note: Tables for North America, Europe, APAC, South America, and Middle East & Africa Regions are also represented in the same manner as above.