Build Self-Sustaining, Climate-Resilient Food Gardens & Farms

We help growers partner with Nature to repair the ecosystems driving their food production

The Cost of Broken Ecosystems

Conventional growing practices can be highly productive under favorable conditions because they are designed almost entirely to produce food for human consumption. However, this narrow focus comes at a steep cost.

Stripped of life above and below ground, our land loses the complex living systems that can sustain and protect our crops. Without these functioning ecosystems, growers (whether using synthetic or organic fertilizers) remain trapped in a cycle of costly inputs. For millions of subsistence farmers, this financial hurdle creates a devastating yield gap.

Without the natural resilience that healthy living systems provide, our land becomes brittle and highly vulnerable to extreme weather, threatening harvests, farm livelihoods, and long-term food security.

The Power of Working Ecosystems

Soil health, plant nutrition, pest control, and crop pollination are not commodities to be bought. They are the natural outputs of properly functioning ecosystems.

When we repair the underlying systems driving our food production, we trigger a powerful chain reaction. Restoring the photosynthetic engine re-energizes our production systems and activates a diverse, interconnected biological workforce. This living web provides the internal checks and balances needed to safeguard our farms and gardens against climate shocks and pest outbreaks.

Whether in vegetable gardens, orchards, or fields, restoring natural systems delivers compounding gains: higher yields over time, greater resilience, and significantly lower input costs. Putting nature back to work is the most compelling strategy for true, lasting food security.

Case Studies

01

"Across vast areas of Sub-Saharan Africa, communities are bringing degraded landscapes back to life by repairing the ecosystems supporting their crop and livestock production. By integrating leguminous trees alongside income-producing species, they recreate the multi-layered solar powerhouse of their native open woodlands.

Data compiled from 126 studies confirms this approach dramatically increases yields and drought resilience, all while boosting livestock production and creating new income streams from high-value products like shea butter and nutrient-dense baobab powder."

02

"By integrating ducklings, fish, and nitrogen-fixing Azolla into rice paddies, Takao Furuno has developed a technique to replace synthetic inputs with self-regulating ecological relationships - matching conventional rice yields while also producing an abundance of protein."

03

"At Hill Top Farm, the education center for Learning from Nature, heavy clay soil has been transformed into 30 cm of deep rich topsoil with 8% organic matter in 10 years. Achieved simply by growing and chopping-and-dropping bananas, leguminous ground covers, and other fast-growing biomass species between main crops of Breadfruit and Jackfruit."

04

In the highlands of Guatemala, farmer Laureano Ruiz transformed his degraded, chemical-dependent land into soft, black soil by supplying massive amounts of carbon-rich organic material directly to his soil. Rather than hauling or composting off-site amendments, he grows roughly 60 tons per hectare of green organic material right inside his standing maize crop. This continuous cover naturally feeds the soil biology when it dies, tripling his crop yields while actively sequestering carbon without the labor or expense of synthetic inputs.

05

On degraded land in Bahia, Brazil, Swiss researcher Ernst Götsch developed Syntropic Farming—a high-density agroforestry model that grows food through natural ecosystem succession rather than external inputs. By planting diverse species closely together and using strategic, intense pruning, the system continuously generates massive amounts of organic biomass on-site. These pruned materials feed soil biology, providing the primary engine of farm fertility and crop protection.

06

"Radical diversity is our thing,” Anne van Leeuwen says. “We work towards a system in which everyone eats everyone else, ensuring abundance for all. We don’t solve problems by eradicating life, but by inviting it in. Who do we need to collaborate with to solve a problem? Therefore, we don’t use pesticides or artificial fertilizers – life is our crop protection. We bring as much diversity into the system as we can manage.”

The team at ‘t Gagel achieve this by planting over 30 kilometers of fruit trees and integrating more than 100 varieties of fruit, berries, and herbs into structural agroforestry belts. By pairing this tree layer with over 150 species of vegetables, flowers, seeds, diverse pastures, and regenerating native grasslands, they demonstrate how multi-layered biological complexity turns natural life into total crop protection.