Farm to Fork Supply Chain

Farm-to-fork supply chains, also known as food supply chains, refer to the complex network of activities, actors, and resources involved in the production, processing, distribution, and consumption of food products, from the agricultural farm to the consumer's fork. Farm-to-fork supply chains are a critical component of the broader food system, which encompasses all the elements and processes that influence the availability, accessibility, affordability, and sustainability of food, as well as the social, economic, and environmental outcomes of food production and consumption.

The concept of farm-to-fork supply chains has gained increasing attention and importance in recent years, driven by the growing global population, the changing consumer demands and preferences, the increasing concerns about food safety, quality, and sustainability, and the disruptive impacts of climate change, resource scarcity, and public health crises.

The COVID-19 pandemic, in particular, has exposed the vulnerabilities and inequities of the current food system and has highlighted the need for more resilient, inclusive, and adaptive farm-to-fork supply chains that can ensure food security, nutrition, and livelihoods for all.

Components of Farm-to-Fork Supply Chains

Farm-to-fork supply chains are composed of multiple stages and actors that are involved in the flow of food products and information from the farm to the consumer. The main components of farm-to-fork supply chains include:

Agricultural Production

Agricultural production is the starting point of the farm-to-fork supply chain, where crops and livestock are grown and raised by farmers, using various inputs, such as land, water, seeds, fertilizers, and labor. Agricultural production is influenced by various factors, such as climate, soil, technology, and market demand, and can take different forms, such as subsistence farming, commercial farming, and organic farming.

Some of the key challenges and opportunities in agricultural production include:

  • Increasing productivity and efficiency, while reducing the environmental footprint and resource use, through sustainable intensification practices, such as precision agriculture, conservation agriculture, and agroecology.
  • Enhancing the resilience and adaptability of agricultural systems to climate change, pests, and diseases, through the use of climate-smart technologies, such as drought-resistant crops, early warning systems, and insurance mechanisms.
  • Improving the livelihoods and well-being of farmers, particularly smallholders and women, through access to credit, markets, and extension services, as well as through fair trade and inclusive business models.

Post-Harvest Handling and Storage

Post-harvest handling and storage refer to the activities that occur after the crops are harvested or the livestock are slaughtered, and before they are processed or distributed. These activities include cleaning, sorting, grading, packaging, and storing the food products, to maintain their quality, safety, and shelf life, and to reduce losses and waste.

Some of the key challenges and opportunities in post-harvest handling and storage include:

  • Reducing post-harvest losses, which can reach up to 30-40% in some developing countries, through improved infrastructure, such as cold chains, warehouses, and transportation, as well as through training and capacity building of farmers and handlers.
  • Ensuring food safety and traceability, through the implementation of food safety management systems, such as Hazard Analysis and Critical Control Points (HACCP), and the use of digital technologies, such as blockchain and Internet of Things (IoT), for real-time monitoring and tracking of food products.
  • Adding value to food products, through processing, packaging, and branding, to increase their marketability and profitability, as well as to extend their shelf life and reduce waste.

Food Processing and Manufacturing

Food processing and manufacturing refer to the transformation of raw agricultural products into food and beverage products that are ready for distribution and consumption. Food processing and manufacturing involve various techniques and technologies, such as milling, pasteurization, fermentation, and extrusion, to improve the taste, texture, nutrition, and convenience of food products.

Some of the key challenges and opportunities in food processing and manufacturing include:

  • Ensuring food safety and quality, through the implementation of food safety regulations and standards, such as Good Manufacturing Practices (GMP) and Hazard Analysis and Critical Control Points (HACCP), as well as through the use of advanced technologies, such as high-pressure processing and pulsed electric field.
  • Developing healthy and sustainable food products, through the use of alternative ingredients, such as plant-based proteins and whole grains, as well as through the reduction of salt, sugar, and fat content, and the minimization of environmental impacts, such as water and energy use.
  • Fostering innovation and entrepreneurship, through the support of small and medium-sized enterprises (SMEs), startups, and incubators, as well as through collaboration with research institutions and technology providers, to develop new products, processes, and business models.

Food Distribution and Logistics

Food distribution and logistics refer to the activities involved in the movement and storage of food products from the processing and manufacturing facilities to the retail outlets and consumers. Food distribution and logistics involve various modes of transportation, such as trucks, trains, and ships, as well as various types of storage facilities, such as warehouses, distribution centers, and cold storage.

Some of the key challenges and opportunities in food distribution and logistics include:

  • Optimizing the efficiency and effectiveness of food distribution networks, through the use of advanced technologies, such as GPS tracking, route optimization software, and autonomous vehicles, as well as through the collaboration and coordination among different actors, such as producers, distributors, and retailers.
  • Reducing food losses and waste, which can occur due to improper handling, storage, and transportation, as well as due to supply and demand imbalances, through the use of demand forecasting, inventory management, and dynamic pricing tools, as well as through the donation of surplus food to food banks and charities.
  • Enhancing the resilience and responsiveness of food distribution systems to disruptions and shocks, such as natural disasters, trade disputes, and pandemics, through the diversification of suppliers and routes, the building of strategic reserves and stockpiles, and the development of contingency plans and risk management strategies.

Food Retail and Service

Food retail and service refer to the sale and provision of food products to consumers, through various channels, such as supermarkets, convenience stores, restaurants, and online platforms. Food retail and service are the interface between the food supply chain and the consumer and play a critical role in shaping consumer choices, preferences, and behaviors.

Some of the key challenges and opportunities in food retail and service include:

  • Providing safe, healthy, and affordable food options to consumers, through the implementation of food safety and quality standards, the offering of nutritious and diverse food products, and the use of pricing and promotion strategies that incentivize healthy choices.
  • Enhancing the convenience and accessibility of food, through the development of online and mobile shopping platforms, home delivery services, and grab-and-go formats, as well as through the expansion of food retail outlets in underserved areas, such as food deserts and rural communities.
  • Promoting sustainable and ethical food consumption, through the sourcing of local, organic, and fair trade products, the reduction of food waste and packaging, and the education and engagement of consumers on the social and environmental impacts of their food choices.

Consumer Behavior and Preferences

Consumer behavior and preferences are the key drivers of the farm-to-fork supply chain, as they determine the demand for different types of food products, the willingness to pay for certain attributes, such as quality, safety, and sustainability, and the adoption of new technologies and services, such as online shopping and meal kits.

Some of the key trends and factors influencing consumer behavior and preferences in the food system include:

  • Health and wellness: Consumers are increasingly seeking food products that are nutritious, natural, and free from artificial ingredients and additives, as well as food products that can prevent or manage chronic diseases, such as obesity, diabetes, and heart disease.
  • Sustainability and ethics: Consumers are becoming more aware and concerned about the environmental and social impacts of their food choices, and are demanding food products that are produced in a sustainable, ethical, and transparent manner, such as organic, fair trade, and animal welfare-certified products.
  • Convenience and experience: Consumers are looking for food products and services that can save time and effort, such as ready-to-eat meals, meal kits, and food delivery, as well as food products and services that can provide sensory and emotional benefits, such as exotic flavors, unique packaging, and immersive dining experiences.

Understanding and responding to these consumer trends and preferences is critical for the success and sustainability of the farm-to-fork supply chain, as it can help to align the supply and demand of food products, create value and differentiation for food businesses, and promote health, and sustainability, and well-being for consumers and society.

Drivers and Challenges of Farm-to-Fork Supply Chains

Farm-to-fork supply chains are influenced by various drivers and challenges that shape their structure, performance, and outcomes. Some of the key drivers and challenges of farm-to-fork supply chains include:

Population Growth and Urbanization

Population growth and urbanization are two major drivers of the increasing demand for food, particularly in developing countries, where the population is expected to reach 9.7 billion by 2050, and the share of the urban population is projected to increase from 55% to 68% by 2050.

Population growth and urbanization are putting pressure on the farm-to-fork supply chain to increase the production, processing, and distribution of food, while also adapting to the changing dietary patterns and preferences of urban consumers, such as the increased demand for processed, convenient, and animal-based foods.

Some of the key challenges and opportunities related to population growth and urbanization include:

  • Increasing the productivity and efficiency of agricultural production, through the use of advanced technologies, such as precision agriculture, biotechnology, and vertical farming, as well as through the intensification and optimization of land and water use.
  • Developing sustainable and resilient urban food systems, through the integration of urban and peri-urban agriculture, the creation of local and regional food hubs, and the promotion of urban-rural linkages and partnerships.
  • Addressing the food security and nutrition needs of urban populations, particularly the poor and vulnerable, through the provision of affordable, accessible, and nutritious food, as well as through the development of social protection and safety net programs.

Climate Change and Environmental Degradation

Climate change and environmental degradation are two major challenges that are affecting the farm-to-fork supply chain, through their impacts on agricultural production, food safety, and food security. Climate change is causing more frequent and intense extreme weather events, such as droughts, floods, and heatwaves, which can reduce crop yields, damage infrastructure, and disrupt food supply chains.

Environmental degradation, such as soil erosion, deforestation, and biodiversity loss, is also undermining the productivity and resilience of agricultural systems, and increasing the risk of food insecurity and malnutrition.

Some of the key challenges and opportunities related to climate change and environmental degradation include:

  • Adapting agricultural production to climate change, through the use of climate-smart technologies and practices, such as drought-resistant crops, water-saving irrigation, and agroforestry, as well as through the development of early warning systems and risk management strategies.
  • Mitigating the environmental impacts of food production and consumption, through the adoption of sustainable and circular practices, such as reducing food waste and loss, promoting plant-based diets, and using renewable energy and materials in food processing and packaging.
  • Building the resilience and adaptive capacity of food systems, through the diversification of food sources and supply chains, the strengthening of local and regional food markets, and the empowerment of small-scale farmers and food businesses.

Globalization and Trade

Globalization and trade are two major drivers of the increasing interconnectedness and complexity of farm-to-fork supply chains, as they enable the movement of food products, inputs, and technologies across borders, and the creation of global value chains and markets.

Globalization and trade can offer opportunities for economic growth, market access, and technology transfer, but they can also pose challenges to food safety, quality, and sustainability, as well as to the livelihoods and well-being of small-scale farmers and food workers.

Some of the key challenges and opportunities related to globalization and trade include:

  • Ensuring food safety and quality in the global food trade, through the harmonization and enforcement of international standards and regulations, such as the Codex Alimentarius, as well as through the use of traceability and certification systems, such as GlobalGAP and organic certification.
  • Promoting fair and inclusive trade in food products, through the implementation of trade policies and agreements that support the interests and rights of small-scale farmers and food workers, as well as through the development of alternative trade models, such as fair trade and direct trade.
  • Enhancing the competitiveness and innovation of local and regional food systems, through the investment in infrastructure, technology, and human capital, as well as through the creation of enabling environments for entrepreneurship and innovation in the food sector.

Technology and Innovation

Technology and innovation are two major drivers of the transformation and disruption of farm-to-fork supply chains, as they enable the development of new products, processes, and business models that can improve the efficiency, sustainability, and resilience of food systems. Some examples of emerging technologies and innovations in the food sector include:

  • Precision agriculture: The use of sensors, drones, and data analytics to optimize crop management and resource use, based on site-specific conditions and needs.
  • Biotechnology: The use of genetic engineering, gene editing, and other techniques to develop new crop varieties and animal breeds with improved traits, such as resistance to pests and diseases, tolerance to environmental stresses, and enhanced nutritional value.
  • Food processing and packaging: The use of advanced technologies, such as high-pressure processing, pulsed electric field, and active and intelligent packaging, to improve the safety, quality, and shelf life of food products, as well as to reduce waste and environmental impacts.
  • Digital technologies: The use of blockchain, the Internet of Things (IoT), artificial intelligence (AI), and other digital technologies to enable traceability, transparency, and efficiency in food supply chains, as well as to facilitate e-commerce, personalized nutrition, and consumer engagement.

While these technologies and innovations offer significant potential for improving the farm-to-fork supply chain, they also pose challenges and risks, such as the high costs and complexity of adoption, the potential for exacerbating inequalities and exclusion, and the ethical and social implications of their use and governance.

Therefore, it is important to ensure that the development and deployment of these technologies and innovations are guided by the principles of inclusivity, sustainability, and responsibility and that they are aligned with the needs and values of different stakeholders in the food system.

Policy and Governance

Policy and governance are two critical factors that shape the structure, performance, and outcomes of farm-to-fork supply chains, as they set the rules, incentives, and constraints for different actors and activities in the food system. Food policies and governance can take different forms and levels, such as:

  • Agricultural policies: Policies that support or regulate agricultural production, such as subsidies, price supports, land tenure, and environmental regulations.
  • Food safety and quality policies: Policies that ensure the safety and quality of food products, such as food safety standards, labeling requirements, and inspection and certification systems.
  • Trade policies: Policies that govern the international trade of food products, such as tariffs, quotas, and trade agreements.
  • Nutrition and health policies: Policies that promote healthy and sustainable diets, such as dietary guidelines, food-based dietary guidelines, and nutrition education and promotion programs.
  • Social and environmental policies: Policies that address the social and environmental impacts of food production and consumption, such as labor standards, animal welfare regulations, and sustainability certifications.

Effective food policies and governance require the participation and coordination of multiple stakeholders, such as governments, the private sector, civil society, and international organizations, as well as the use of evidence-based and adaptive approaches that can respond to the changing needs and contexts of the food system.

Some of the key challenges and opportunities related to policy and governance include:

  • Strengthening the coherence and integration of food policies, through the development of comprehensive and cross-sectoral food strategies and plans, as well as through the alignment and harmonization of different policy instruments and goals.
  • Enhancing the transparency and accountability of food governance, through the establishment of multi-stakeholder platforms and partnerships, as well as through the use of monitoring and evaluation systems that can track the progress and impacts of food policies and programs.
  • Empowering and engaging different stakeholders in food policy and governance, particularly marginalized and vulnerable groups, such as small-scale farmers, women, and youth, through the creation of inclusive and participatory mechanisms and processes, as well as through the recognition and support of their rights and roles in the food system.

Innovative Solutions and Best Practices for Farm-to-Fork Supply Chains

To address the challenges and opportunities of farm-to-fork supply chains, various innovative solutions, and best practices have been developed and implemented by different actors and initiatives in the food system. Some examples of these solutions and best practices include:

Sustainable and Regenerative Agriculture

Sustainable and regenerative agriculture refers to a set of practices and approaches that aim to enhance the environmental, social, and economic sustainability of agricultural production, while also regenerating and restoring the natural resources and ecosystem services that support it.

Some examples of sustainable and regenerative agriculture practices include:

  • Conservation agriculture: A farming system that minimizes soil disturbance, maintains soil cover, and diversifies crop rotations, to improve soil health, water retention, and biodiversity.
  • Agroecology: A holistic approach that applies ecological principles and traditional knowledge to the design and management of agricultural systems, to enhance their productivity, resilience, and sustainability.
  • Permaculture: A design system that integrates agriculture, ecology, and human settlements, to create self-sustaining and regenerative landscapes and communities.
  • Organic agriculture: A production system that avoids the use of synthetic inputs, such as fertilizers, pesticides, and genetically modified organisms (GMOs), and relies on natural processes and materials to maintain soil fertility and manage pests and diseases.

Sustainable and regenerative agriculture practices can provide multiple benefits for the farm-to-fork supply chain, such as:

  • Improving the productivity and resilience of agricultural systems, by enhancing soil health, water retention, and biodiversity, as well as by reducing the risk of crop failure and yield variability.
  • Reducing the environmental impacts of agriculture, by minimizing the use of synthetic inputs, conserving natural resources, and sequestering carbon in the soil and vegetation.
  • Enhancing the livelihoods and well-being of farmers and rural communities, by increasing their income and food security, as well as by promoting their autonomy and empowerment.

Local and Regional Food Systems

Local and regional food systems refer to the production, processing, distribution, and consumption of food within a specific geographic area, usually within a radius of 100-400 miles. Local and regional food systems aim to create shorter and more direct supply chains between farmers and consumers, as well as to support the local economy, community, and environment.

Some examples of local and regional food system initiatives include:

  • Farmers markets: Direct-to-consumer markets where farmers sell their products directly to consumers, usually in a public space or a designated venue.
  • Community Supported Agriculture (CSA): A model where consumers subscribe to a farm's harvest in advance, and receive a share of the farm's products throughout the growing season.
  • Food hubs: Businesses or organizations that aggregate, process, and distribute local and regional food products to wholesale and retail customers, such as schools, hospitals, and restaurants.
  • Urban agriculture: The production of food within or near cities, using various methods such as community gardens, rooftop gardens, and vertical farms.

Local and regional food systems can provide multiple benefits for the farm-to-fork supply chain, such as:

  • Enhancing the freshness, quality, and diversity of food products, by reducing the time and distance between production and consumption, as well as by supporting small-scale and specialty producers.
  • Strengthening the connection and trust between farmers and consumers, by creating opportunities for direct interaction and feedback, as well as by providing transparency and traceability in the food supply chain.
  • Supporting the local economy and community, by creating jobs and income for farmers and food businesses, as well as by keeping food dollars circulating within the local area.
  • Reducing the environmental footprint of food production and distribution, by minimizing food miles, packaging, and waste, as well as by supporting sustainable and regenerative agriculture practices.

Food Waste Reduction and Recovery

Food waste reduction and recovery refer to the strategies and practices that aim to prevent, reduce, and recover food waste throughout the farm-to-fork supply chain. Food waste is a major challenge in the food system, with an estimated one-third of all food produced globally being lost or wasted, resulting in significant economic, environmental, and social costs.

Some examples of food waste reduction and recovery strategies include:

  • Source reduction: Preventing food waste at the source, by improving production planning, inventory management, and packaging design, as well as by changing consumer behavior and attitudes towards food waste.
  • Food donation: Redirecting surplus food from the supply chain to food banks, shelters, and other organizations that serve people in need, using tax incentives and liability protection for donors.
  • Food recycling: Recovering food waste for other uses, such as animal feed, compost, and bioenergy, using technologies such as anaerobic digestion and insect farming.
  • Food waste measurement and reporting: Quantifying and analyzing food waste data across the supply chain, using standardized methods and metrics, to identify hotspots and opportunities for improvement, as well as to track progress and impacts.

Food waste reduction and recovery strategies can provide multiple benefits for the farm-to-fork supply chain, such as:

  • Saving money and resources for farmers, food businesses, and consumers, by reducing the costs of production, storage, transportation, and disposal of food waste.
  • Reducing the environmental impacts of food waste, by minimizing greenhouse gas emissions, water use, and land use associated with food production and disposal, as well as by conserving natural resources and biodiversity.
  • Alleviating food insecurity and malnutrition, by increasing the availability and accessibility of food for vulnerable populations, as well as by improving the efficiency and equity of the food system.

Digital and Data-Driven Solutions

Digital and data-driven solutions refer to the use of advanced technologies and analytics to optimize and transform the farm-to-fork supply chain. These solutions leverage the power of data, connectivity, and intelligence to create more efficient, transparent, and responsive food systems that can meet the changing needs and expectations of consumers and society.

Some examples of digital and data-driven solutions in the food system include:

  • Precision agriculture: The use of sensors, drones, and data analytics to optimize crop management and resource use, based on site-specific conditions and needs, such as soil moisture, nutrient levels, and pest pressure.
  • Blockchain and traceability: The use of distributed ledger technology to create a secure and transparent record of food products and transactions across the supply chain, from farm to fork, enabling consumers to access information on the origin, quality, and sustainability of their food.
  • Artificial intelligence and machine learning: The use of advanced algorithms and models to analyze and predict various aspects of the food system, such as crop yields, consumer preferences, and supply chain risks, as well as to automate and optimize various processes, such as food safety inspections and inventory management.
  • E-commerce and digital marketplaces: The use of online platforms and mobile applications to connect farmers and food businesses directly with consumers, enabling them to buy and sell food products and services in a more convenient, personalized, and efficient way.

Digital and data-driven solutions can provide multiple benefits for the farm-to-fork supply chain, such as:

  • Improving the efficiency and productivity of food production and distribution, by reducing waste, optimizing resource use, and enhancing decision-making and coordination across the supply chain.
  • Enhancing the transparency and traceability of food products, by providing consumers with more information and assurance on the origin, quality, and sustainability of their food, as well as by enabling rapid response and recall in case of food safety incidents.
  • Creating new value and business models in the food system, by leveraging data and technology to develop new products, services, and experiences that meet the evolving needs and preferences of consumers, such as personalized nutrition, subscription models, and gamification.

Collaborative and Inclusive Governance

Collaborative and inclusive governance refers to the processes and mechanisms that enable different stakeholders in the food system to participate, cooperate, and co-create solutions and policies that address the common challenges and opportunities of the farm-to-fork supply chain.

Collaborative and inclusive governance recognizes the complexity and diversity of the food system, as well as the need for cross-sectoral and multi-level approaches that can align the interests and actions of different actors and sectors.

Some examples of collaborative and inclusive governance initiatives in the food system include:

  • Multi-stakeholder platforms and partnerships: Formal or informal spaces and networks that bring together different stakeholders, such as farmers, food businesses, civil society, research institutions, and government agencies, to share knowledge, resources, and best practices, as well as to develop and implement joint projects and policies.
  • Food policy councils: Local or regional bodies that provide a forum for diverse stakeholders to engage in food policy issues, such as food access, nutrition, and sustainability, as well as to advocate for policy changes and community actions.
  • Participatory guarantee systems: Locally focused quality assurance systems that certify producers based on the active participation of stakeholders and are built on a foundation of trust, social networks, and knowledge exchange.
  • Open source and citizen science: Approaches that enable citizens and communities to participate in the collection, analysis, and sharing of data and knowledge related to the food system, such as monitoring food prices, mapping food deserts, and testing soil quality.

Collaborative and inclusive governance can provide multiple benefits for the farm-to-fork supply chain, such as:

  • Fostering trust, transparency, and accountability in the food system, by creating spaces for dialogue, learning, and feedback among different stakeholders, as well as by ensuring that the voices and needs of marginalized and vulnerable groups are heard and addressed.
  • Leveraging the collective intelligence and resources of different stakeholders, by enabling them to share their knowledge, skills, and assets, as well as to develop and implement innovative and contextual solutions that can address the complex and systemic challenges of the food system.
  • Enhancing the resilience and adaptability of the food system, by creating more diverse and redundant networks and relationships that can respond and recover from shocks and stresses, such as climate change, economic crises, and public health emergencies.

Conclusion

Farm-to-fork supply chains are a critical component of the food system that plays a vital role in ensuring food security, nutrition, and livelihoods for billions of people around the world. However, farm-to-fork supply chains are also facing multiple and interconnected challenges, such as population growth, climate change, globalization, and technological disruption, that require innovative and collaborative solutions that can transform and future-proof the food system.

To create more sustainable, resilient, and inclusive farm-to-fork supply chains, it is essential to adopt a systems approach that recognizes the complexity and diversity of the food system, as well as the need for cross-sectoral and multi-level actions that can align the interests and actions of different stakeholders.

This approach should be guided by the principles of sustainability, equity, and responsibility, and should leverage the power of science, technology, and innovation to create value and impact for all actors in the food system, from farmers to consumers.

Some of the key recommendations and actions for transforming farm-to-fork supply chains include:

  1. Investing in sustainable and regenerative agriculture practices that can enhance the productivity, resilience, and sustainability of agricultural production, while also regenerating and restoring the natural resources and ecosystem services that support it.
  2. Strengthening local and regional food systems can create shorter and more direct supply chains between farmers and consumers, as well as support the local economy, community, and environment.
  3. Implementing food waste reduction and recovery strategies that can prevent, reduce, and recover food waste throughout the farm-to-fork supply chain, using a combination of source reduction, food donation, food recycling, and measurement and reporting.
  4. Leveraging digital and data-driven solutions that can optimize and transform the farm-to-fork supply chain, by improving the efficiency, transparency, and responsiveness of food production, distribution, and consumption, as well as by creating new value and business models that meet the evolving needs and preferences of consumers.
  5. Fostering collaborative and inclusive governance mechanisms that can enable different stakeholders in the food system to participate, cooperate, and co-create solutions and policies that address the common challenges and opportunities of the farm-to-fork supply chain, using approaches such as multi-stakeholder platforms, food policy councils, and participatory guarantee systems.

By adopting these recommendations and actions, farm-to-fork supply chains can become more sustainable, resilient, and inclusive, and can contribute to the achievement of the Sustainable Development Goals (SDGs), particularly SDG 2 (Zero Hunger), SDG 12 (Responsible Consumption and Production), and SDG 13 (Climate Action).

However, this transformation will require a collective and collaborative effort from all actors in the food system, as well as a shift in mindsets and behaviors that prioritize the long-term health and well-being of people and the planet over short-term profits and interests.

As the world faces unprecedented challenges and opportunities in the 21st century, farm-to-fork supply chains have a crucial role to play in shaping a more sustainable and equitable future for all. By working together and leveraging the power of innovation, collaboration, and responsibility, we can create a food system that nourishes people, communities, and ecosystems, and that leaves no one behind. This is not only a moral imperative but also an economic and social necessity, as the well-being and prosperity of humanity depend on the health and resilience of the food system that sustains us all.