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Beyond Industrial Farming: 6 Indigenous Farming Methods to Build Resilient Food Systems

by Rose Morrison Nov 13th 20255 mins
Beyond Industrial Farming: 6 Indigenous Farming Methods to Build Resilient Food Systems

Rapidly growing demand for food globally has led to agricultural practices that have drastically altered the health of the Earth’s soil and water. As the climate crisis worsens, combining traditional farming techniques with Indigenous knowledge could be the path forward for a sustainable future. 

Worldwide, megafarms are constantly finding new ways to increase capital by growing more and more. Yet, the impact of agriculture on the environment is rendering the Earth progressively more incapable of sustaining itself. 

In this article, we explore how farmers can leverage Indigenous knowledge systems to restore soils and feed the growing world population without depleting and destroying our planet.

Why Agriculture Needs a Change

The global population has skyrocketed in the last several decades, and so has demand for food. The resulting agricultural growth has increased the sector’s footprint – responsible today for about a third of global greenhouse gas emissions – as well as its environmental impact. Aggressive farming methods have indeed exacerbated the climate crisis, polluting water systems, degrading soils and depleting resources.

These issues disrupt progress on numerous Sustainable Development Goals and encourage the erasure of Indigenous knowledge that supports farmland restoration and balance. 
Technology promises financial and resource savings and recovery from intensive tilling and other invasive practices. However, it is only part of the solution. Innovation simplifies complex processes and enhances oversight. Meanwhile, Indigenous insights from communities like rice cultivators have shown how climate pattern observation, smart seed selection and pest control can mitigate pain points associated with industrialized farming.

What Farmers Can Learn from Indigenous Practices

The diversity of Indigenous farming practices varies across the planet. While many smallholder and family farms still use these strategies, some have phased them out in favor of automation or delegated to larger corporations with more resources. Some farms have become defunct because of these larger enterprises, as they influence the market and outprice small businesses.

These are some Indigenous sustainable agriculture practices still used today.

Zaï

Farmers in Burkina Faso, Niger, Mali, Kenya and Senegal use zaï, or tassa, to control runoff water and reinforce soil. This farming technique involves creating holes three feet apart in soils with low permeability. It allows them to hold water and encourages water to move between other holes. Workers supplement the added water with manure to boost fertility. 

The method was pioneered by agronomist Yacouba Sawadogo in Burkina Faso to combat drought. It is becoming more prominent all over the Sahel region because of its benefits for sustainability and productivity. Thanks to this method, some trees have returned to dry regions and yields for millet and sorghum have increased.

Seed Selection

Selection farming is a way to ensure more consistent yields by saving seeds from crops with desirable characteristics for future growing seasons – such as those able to withstand influences like pests or intense heat. Seed selection eliminates the need to outsource crops, which can compromise quality control and introduce disease.

In Ethiopia, an estimated 29% of Indigenous farmers use single-head-based selection before harvesting, and 45% choose species during threshing. Others collect seeds that were left over from the primary harvest, known as “qerm”. 

Crop Rotation

Crop rotation is believed to have originated in Mesoamerica with Mayan farmers, who used the milpa cycle to determine what to plant for soil regeneration. It involves two years of growth of short-term perennials followed by eight years of fallow (a 10-year cycle).

It is widely practiced today, and remains a fundamental practice for enhancing soil health, managing pests, and boosting crop yields, with modern technology increasingly supporting its adoption. Indeed, switching crops seasonally to inject nutrients back into the land supports the next season’s harvest. Growing a crop like soy in later seasons, for example, can foster the following year’s cash crops, stabilizing growth cycles and preventing blight.

It is an alternative to monocropping, which involves planting a single, lucrative crop for the most profit. Monocropping is unsustainable because it leads to the rapid depletion of specific soil nutrients and creates an ideal environment for pests, which in turn forces heavy reliance on costly chemical fertilizers and pesticides. This practice ultimately degrades the land, harms local biodiversity, and makes the entire crop highly vulnerable to disease.

A farmer's field in Malawi under conservation agriculture (CA), showing rotation of maize and groundnut (visible in adjacent plots) and the retention of crop residues.
A farmer’s field in Malawi under conservation agriculture (CA), showing rotation of maize and groundnut (visible in adjacent plots) and the retention of crop residues. Photo: International Maize and Wheat Improvement Center/Flickr.

Half-Moons

Half-moons are a soil and water conservation technique that rehabilitates the degraded land by creating micro-catchments where water and nutrients are concentrated, thus creating patches of more nutrient-dense soil within the treated area. The practice was widely used by ancient peoples in the Middle East, Africa and South Asia and is employed by many farmers in East Africa today to help maintain crops during dry periods.

Agriculturalists find arid spots on the farm and use picks to break open the hard earth and carve out a half-moon shape near water flows. The design captures water and slows its movement, allowing it to permeate more effectively to help plants grow even in the driest places. Then, they fill the pits with manure or compost to enrich them. The method can balance farmlands previously sapped of nutrients and soil stability.

Natural Buffers

Nature-based solutions, such as prairie strips and constructed wetlands, are crucial for lining waterways to filter runoff and mitigate erosion. Living walls, meanwhile, are specialized vertical architectural features covered in vegetation, often used in urban settings to improve air quality and provide localized cooling, thus deepening ecosystem strength in built environments. On prairie strips, native grasses and flowers are planted in engineered bands across farm fields to serve as a potent runoff barrier and habitat.

Clam garden in British Columbia.
Clam garden in British Columbia. Photo: Wikimedia Commons.

Another effective example is the clam gardens, also known as loxiwe, constructed on Quadra Island, Canada, to boost food security for First Nations communities in British Columbia. Loxiwe are strategically built stone walls that run parallel to the beach. Over time, sediment, shell, and sand build up behind the wall, creating a level surface that expands the clams’ natural habitat and creates an ideal place for them to thrive.

Stone Bunds

Farmers in sub-Saharan West Africa line their farm’s perimeter with stones in the land’s natural contours. This reinforces erosion-prone areas to discourage runoff, helps eliminate pollution spread, and maintains soil moisture and fertility.

Beyond Industrial Farming

Modern farmers have much to learn from Indigenous practices, as these systems inherently prioritize long-term ecological balance over short-term profit. Techniques like contour stone bunding, clam gardens, or the milpa cycle demonstrate superior, time-tested methods for water management, soil regeneration, and pest control.

Integrating this place-based knowledge is crucial for building resilient, sustainable agricultural systems that can better adapt to climate change.

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