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Global Scientific Basis for Action: CSA

by 고쿠마박사 2024. 4. 11.

Picture of Global Climate Smart Agriculture

Abstract

The concept of Climate-Smart Agriculture (CSA) aims to tackle the challenges posed by climate change and limited agricultural expansion by focusing on enhancing productivity, resilience, and sustainability in food production. It seeks to contribute to economic development, poverty reduction, and food security while minimizing trade-offs. CSA involves interdisciplinary research and science-based actions to address issues related to farm and food systems, landscape and regional concerns, and institutional and policy aspects in the context of a changing climate.

Introduction

The text introduces the impact of future climate change on agricultural and forestry systems, highlighting significant changes in livelihoods and landscapes. It mentions that crop yields have decreased due to warming in recent decades, and modeling studies indicate that climate change will likely further reduce food crop yield potential, especially in tropical and midlatitude countries. This sets the stage for discussing the importance of climate-smart agriculture strategies to address these challenges by increasing resilience to weather extremes, adapting to climate change, and reducing greenhouse gas emissions in the agricultural sector.

Farm and food system issue

The text discusses research on climate change and agriculture at the farm and food system levels, focusing on topics like mitigating agricultural greenhouse gas emissions, adapting crops and livestock to new climate conditions, and decision-making by farmers. It highlights the shift in sustainable intensification from solely increasing agricultural production to encompassing broader goals with social, ethical, and environmental dimensions, emphasizing the need for interdisciplinary approaches to address challenges in agriculture and food systems.

live stocks and animal health

Livestock management and animal health in the context of agricultural practices are crucial for sustainable livestock production. Livestock not only contribute to greenhouse gas emissions but are also vulnerable to extreme weather events and diseases. Effective management strategies and veterinary care are essential to ensure the well-being of livestock and mitigate the environmental impact of livestock production.

Nitrogen management

Nitrogen management in agriculture involves strategies to optimize fertilizer use while minimizing environmental impacts like greenhouse gas emissions and water pollution. By reducing reactive nitrogen inputs and adopting practices such as crop diversification and soil improvement, farmers can promote sustainable intensification and enhance food security while mitigating climate change effects. Enhanced-efficiency fertilizers, like slow-release fertilizers and inhibitors, offer potential benefits in reducing greenhouse gas emissions associated with nitrogen use in agriculture.

Farmer decision making in CSA

The text discusses how climate change impacts farmers' decisions and the adoption of climate-smart agriculture practices. Farmers face challenges due to changing risks, uncertainties, and the need to incorporate new information into their traditional knowledge systems. Understanding the socioecological context, evaluating costs and benefits, and considering factors like social networks and communication channels are crucial for farmers in making decisions about adopting innovative agricultural practices in response to climate change.

Climate risk management

Climate risk management involves implementing financial mechanisms, insurance, and climate services to help farmers mitigate the impact of climate change on their livelihoods. By providing tools like index insurance, which decouples indemnity payments from actual crop losses and uses innovative methods like remote-sensing technology, farmers can better manage risks associated with changing climate conditions. These strategies aim to reduce vulnerabilities, enhance resilience, and prevent rural households from falling into poverty traps due to climate-related challenges.

Conclusions

The text discusses the importance of interdisciplinary and transdisciplinary scientific approaches in understanding Climate-Smart Agriculture (CSA) and prioritizing research efforts. It emphasizes the role of global science conferences in bringing together scientists and stakeholders to share knowledge and develop action plans for addressing challenges related to agriculture and food systems in the face of climate change. The text also highlights the need for effective communication pathways to ensure that scientific progress informs policy decisions within relevant time frames.