Neighborhood Scale, National Impact

Why the Future of Food Isn’t About Choosing Between Small and Large, It’s About Getting Both Right

Every year, Americans waste 40% of their food supply. The world wastes one-third of everything it grows. We don’t have a production problem. We have a system problem. And the answer to that problem isn’t bigger farms or smaller farms, it’s better ones, in the right places, doing the right things.

BY THE NUMBERS

Of the U.S. food supply wasted every year
0 %
Of U.S. cropland using no-till or conservation tillage
0 %
Of edible plant varieties lost in the 20th century
75 0 %
Annual value of food wasted globally
$ 0 T
The Question We Keep Asking – and Why It’s the Wrong One

Can small farms feed the world? It is one of the most common questions in food systems conversations, and it is almost always asked as a challenge, a way of suggesting that the local, regenerative, community-based food movement is too small-scale to matter at a planetary level. That industrial agriculture, for all its environmental costs, is at least efficient enough to keep the world from starving, while neighborhood farms are romantic gestures for the well-intentioned.

The premise deserves examination. Because the question assumes that what we have is a production problem. That somewhere on the planet there is not enough food being grown, and the task is to grow more.

Here is what the data actually show. Small and family farms already supply approximately one-third of global food production[1], and in sub-Saharan Africa and South and Southeast Asia, that figure climbs to 80%. The world’s food system, in other words, already depends heavily on small-scale farming. Meanwhile, the global food system wastes one-third of everything it produces, 1.3 billion tonnes and $1 trillion in value[2] every single year. In the United States alone, 40% of the entire food supply, 60 million tons annually, is discarded before anyone eats it.

If we recovered just half of what we waste, we could feed everyone on Earth who goes hungry today without planting a single additional acre. The problem is not that we can’t grow enough food. The problem is that our food system is designed around throughput, scale, and shareholder value rather than nutrition, access, and ecological health. We are not asking the wrong question because small farms are secretly able to feed the world on their own. We are asking the wrong question because production capacity is not the bottleneck.

“We don’t have a production problem. We have a system problem. And small farms are not a substitute for industrial agriculture, they are the missing half of a food system that is currently running on one engine.”

What a Better Food System Actually Looks Like

The future of food is not a contest between small regenerative farms and large-scale agriculture. It is a partnership, one that assigns each type of farming the work it is actually suited for, and connects them through infrastructure, policy, and community relationships that do not yet fully exist.

Commodity crops, wheat, corn, soybeans, rice, require scale. The economics, the equipment, the geography, and the supply chains of grain production are not realistically transferable to small farms, nor should they be. But that does not mean these systems cannot be dramatically improved. The regenerative agriculture movement has demonstrated that large-scale commodity farming can rebuild soil health, reduce chemical inputs, and sequester carbon without sacrificing profitability.

Today, 53% of U.S. cropland already uses no-till or conservation tillage practices,[3] and cover crop adoption has more than doubled since 2012. A McKinsey analysis found that achieving 80% adoption of no-till and cover cropping across U.S. corn and soy operations could generate up to $250 billion in incremental economic value for farmers[4] while simultaneously rebuilding soil organic matter, reducing runoff, and drawing carbon back into the ground. The transition to regenerative large-scale farming is not a sacrifice. It is an economic and ecological upgrade.

At the other end of the spectrum, vegetables, fruits, herbs, legumes, and specialty crops are where small and mid-size farms genuinely excel. Small farms consistently produce far higher value and output per acre[5] in these categories than their industrial counterparts, through diverse rotations, intensive management, and the kind of close attention that is simply not possible at a thousand-acre scale. The fact that just 875 farms control approximately 50% of U.S. vegetable acreage[6] is not a sign of optimal efficiency. It is a sign of a market structure that has squeezed out the farms most suited to producing the most nutritionally important foods.

Countries and States Getting It Right

The Netherlands: Precision + Scale

The Netherlands is the world’s second-largest food exporter by value, a remarkable fact for a country roughly the size of West Virginia. Its success rests not on vast acreage but on radical precision. Dutch farmers routinely produce more than 20 tons of potatoes per acre, more than double the global average,[7] using drones, soil sensors, and driverless tractors that measure and respond to the needs of individual plants. Pesticide use has been cut by more than 90% compared to the 1980s. The Dutch government has committed €129 million to a national regenerative agriculture transition, not as a departure from productivity, but as the next phase of it. The lesson from the Netherlands is that high-tech precision and ecological health are not in tension. They reinforce each other.

Cuba: Resilience by Necessity

When the Soviet Union collapsed in 1989 and Cuba lost its primary source of food imports and agricultural inputs almost overnight, the country faced a food crisis that might have been catastrophic. Instead, it produced one of the most-studied examples of urban and community-scale food system resilience in history. Within a decade, Cuba had converted 35,000 hectares of urban land to productive food systems,[8] and by the early 2000s, more than half of the fruits and vegetables consumed in Havana were produced within the city itself. Forced to farm without synthetic inputs, Cuban urban farmers developed organic growing systems that were, in retrospect, regenerative by design. The Cuban model is not a template to be replicated wholesale, but it is an existence proof that community-scale food production, when supported by public infrastructure and genuine need, can supply a city.

Vermont and California: Policy-Driven Transitions

Within the United States, Vermont and California represent two different but complementary approaches to building the hybrid food system. Vermont’s Environmental Stewardship Program and the University of Vermont’s deep commitment to sustainable agriculture research have made the state a laboratory for agroforestry, cover cropping, and small-farm viability. The Agrihood Collective has protected 360+ acres of conserved farmland[9] from development while keeping it in active agricultural production.

California’s approach has been legislative. Proposition 4 in 2024 authorized more than $10 billion for climate infrastructure,[10] including over $1 billion specifically for sustainable agriculture, funding cover crop programs, conservation easements, healthy soils incentives, and biologically integrated farming systems. The California Healthy Soils Program and Sustainable Agricultural Lands Conservation Program are among the most ambitious state-level regenerative agriculture investments in the country. 

Technology Meets Tradition

One of the false binaries in food systems conversations is the assumption that small farms are defined by hand tools and heritage methods, while large farms are defined by technology, and that these are in competition with each other. In practice, the most productive and resilient farms at every scale are those that match their tools to their context.

On large-scale commodity operations, precision agriculture, satellite soil mapping, variable-rate fertilizer application, moisture sensors, and predictive analytics, is making it possible to farm more acres with fewer inputs and less waste. The same data infrastructure that once required expensive hardware is increasingly accessible through smartphones and open-source platforms.

On small and neighborhood farms, the revolution is quieter but equally real. Solar-powered irrigation controllers, developed by projects like the MIT GEAR Lab, bring precision water management to small-scale growers at a fraction of traditional costs, reducing water consumption by 20 to 60%[11] compared to flood irrigation. Two-wheel tractors with interchangeable implements allow a single operator to till, mow, cultivate, and harvest on plots under five acres with a level of efficiency that hand tools cannot match and a price point that full-sized equipment makes impossible. Open-source soil monitoring systems let small farmers track the biological health of their beds season over season, the same data that university researchers use, available to anyone who wants it.

The appropriate technology movement argues that the right tool is not the most advanced one, it is the one that fits the scale, the skills, and the resources of the person using it. A $16,000 BCS two-wheel tractor and a $300,000 GPS-guided combine are both appropriate technologies. They are just appropriate for very different contexts. The hybrid food system needs both.

The Seeds of What Could Be Lost

Running underneath all of these conversations about scale and technology is a quieter and more urgent story: the loss of agricultural biodiversity that has occurred alongside the industrialization of food. Over the course of the 20th century, approximately 75% of edible plant varieties disappeared from active cultivation.[12] Of the roughly 5,000 heirloom vegetable varieties available in seed catalogs in 1984, 88% had vanished by 1998. What we lost were not just plants. We lost centuries of selection, adaptation, and accumulated wisdom about which varieties thrive in which soils, climates, and communities.

Organizations like Seed Savers Exchange, which maintains more than 20,000 varieties of endangered seeds and distributes over one million seed samples annually, are holding this genetic heritage in trust. But the best way to preserve a seed variety is not to store it in a vault,  it is to grow it. Small and community-based farms, which have the flexibility to grow unusual varieties and the direct customer relationships to sell them, are among the most effective living seed banks in existence. Every heirloom tomato grown in a neighborhood farm plot is an act of cultural and biological preservation.

What the Roadmap Looks Like

The path toward a food system that is both productive enough to feed everyone and regenerative enough to sustain the planet it grows in requires movement on several fronts simultaneously. None of them is individually sufficient. All of them are individually necessary.

Policy and incentives need to reward soil health and ecological outcomes, not just yield. The USDA’s Environmental Quality Incentives Program (EQIP) and Beginning Farmer and Rancher Development Program (BFRDP) are foundational tools,[13] but they need consistent and expanded funding, simplified applications, and deliberate outreach to underserved communities.

Market infrastructure such as food hubs, regional aggregators, farm-to-institution programs, and shortened supply chains, are what makes it economically viable for small and mid-size farms to serve large markets. Without this infrastructure, even the most productive neighborhood farm struggles to move its harvest at a price that keeps it operating.

Land access is the upstream constraint. With over 40% of U.S. farmland owned by people over 65 and an estimated 370 million acres expected to transfer ownership in the coming decades, the structure of that transfer will determine the structure of American agriculture for a generation. Land-link programs, conservation easements, and beginning-farmer financing tools are the mechanisms that keep land in the hands of working farmers rather than investment portfolios.

Training and mentorship close the knowledge gap. The regenerative practices that rebuild soil health, increase nutrient density, and reduce input costs are not intuitive, they require education, hands-on experience, and the kind of farmer-to-farmer knowledge transmission that formal programs can structure and community networks can sustain.

“The hybrid food system we need already exists in pieces. What it lacks is not invention, it is investment, connection, and the political will to build the infrastructure that ties it together.”
The Neighborhood Farms USA Connection

Neighborhood Farms USA was built on a belief that is, at its core, a rebuttal to the “can small farms feed the world” framing. The question assumes that small farms need to justify their existence by competing with industrial agriculture on industrial agriculture’s terms. We reject that premise.

Small and community-based farms do not need to grow wheat at scale. They need to grow vegetables, herbs, fruit, and specialty crops for the neighborhoods around them, build soil health on land that would otherwise be degraded or paved, create access to fresh nutritious food in communities that the industrial supply chain has abandoned, and serve as living classrooms for the next generation of regenerative growers. That is not a consolation prize for failing to be large enough. It is an entirely different and essential function.

The Growing Impact Fund is our direct investment in the farms doing this work. Our mini-grants, starting at $2,500 with rolling admissions and no arbitrary deadlines, fund the tools, soil inputs, irrigation infrastructure, and educational programming that allow a neighborhood farm to grow more food, grow it better, and reach more people. Every grant is a brick in the infrastructure of the hybrid food system we are trying to build.

The movement already exists in your neighborhood. The regenerative practices that will sustain our food system for the next century are already being practiced, refined, and taught on small farms and community plots across the country. The research is clear. The models exist. The farmers are ready. What they need is the support to scale what works.

SUPPORT THE GROWING IMPACT FUND

Visit NeighborhoodFarmsUSA.org/community-impact/growing-impact-fund to learn about mini-grants for neighborhood farms building the regenerative food system of the future.

Neighborhood Farms USA® is a 501(c)(3) organization dedicated to strengthening the connection between people, food, and the land, one neighborhood at a time.


[1]FAO. “Small family farmers produce a third of the world’s food.” FAO Newsroom, 2021. fao.org/newsroom/detail/Small-family-farmers-produce-a-third-of-the-world-s-food/en. (IPES-Food, “Too Big to Feed,” 2017).

[2]USDA Economic Research Service. “Food Waste FAQs.” usda.gov/about-food/food-safety/food-loss-and-waste/food-waste-faqs. RTS: “Food Waste in America.” rts.com. 

[3]Center for Regenerative Agriculture, University of Missouri. “Cover Crops in the U.S.: Current Status and Trends.” cra.missouri.edu/cover-crops-in-the-us-current-status-and-trends. USDA 2022 Census of Agriculture data: 53% of Iowa State Extension: “Cover Crop Adoption Decelerates and No-till Area Stagnates in the I-States,” agpolicyreview.card.iastate.edu, 2024.

[4]McKinsey & Company. “Revitalizing Fields and Balance Sheets Through Regenerative Farming.” McKinsey Sustainability, 2023. mckinsey.com. Frontiers in Sustainable Food Systems: “Quantifying Soil Carbon Sequestration Across Seven Regenerative Agriculture Practices.” 2023. frontiersin.org.

[5]Van der Ploeg, J.D. et al. ScienceDirect, Food Policy, 2019. “The economic potential of agroecology: empirical evidence from Europe” in Journal of Rural Studies.

[6]USDA National Agricultural Statistics Service. “Vegetable Production: 2022 Census of Agriculture Highlights.” nass.usda.gov/Publications/Highlights/2024/Census22_HL_Vegetable.pdf.

[7]National Geographic. “This Tiny Country Feeds the World.” nationalgeographic.com/ magazine/ article/holland-agriculture-sustainable-farming.

[8]Yale Tropical Resources Institute. “Crisis of Urban Agriculture: Case Studies in Cuba.” tri.yale.edu/tropical-resources/tropical-resources-vol-36. 

[9]Vermont Environmental Stewardship Program (VESP). agriculture.vermont.gov/vesp. Partnership of Vermont Agency of Agriculture, NRCS, and University of Vermont Extension encouraging environmental and agricultural excellence since 2016. (forevergreen.umn.edu) 

[10]California Department of Food and Agriculture. “Defining Regenerative Agriculture.” cdfa.ca.gov/RegenerativeAg, 2025.

[11]MIT GEAR Lab. “Creating Affordable, User-Driven Smart Irrigation Controller.” news.mit.edu/2023. Solar-powered irrigation tools for small farms reducing water consumption 20-60% vs. flood irrigation. UC Santa Cruz: “Specialty Crop Irrigation Grants for Small Growers,” news.ucsc.edu, 2026. Appropriate Technology Transfer for Rural Areas (ATTRA): attra.ncat.org.

[12]Seed Savers Exchange. “About Us.” seedsavers.org resilience.org/stories/2017-08-04/twenty-seed-saving-initiatives.

[13]USDA Economic Research Service. “Beginning and Socially Disadvantaged Farmers: A Profile.” ers.usda.gov. USDA Beginning Farmer and Rancher Development Program (BFRDP). nifa.usda.gov/grants/programs/beginning-farmer-rancher-development-program-bfrdp. ams.usda.gov.