Introduction and Overview › Glossary for the Networking Language · 5 min read
Regenerative agriculture describes a holistic approach to land management whose goal is not merely to maintain an existing state but to permanently improve the ecological, social, and economic foundations of a landscape.
At its core, it is not about a single cultivation method but about developing living and resilient ecosystems.
The central question is:
Do we leave soil, water, landscape, and community in a better state than we found them?
Regeneration means more than sustainability.
While sustainability often aims to preserve an existing state, regenerative agriculture views nature as an ongoing developmental process. The goal is to create conditions under which life, fertility, and diversity can continuously unfold.
The term regenerative agriculture is used in many different ways today.
In addition to many dedicated practitioners, large agricultural corporations, food companies, and retail chains now use this term for their marketing and sustainability strategies.
Often, individual measures—such as cover crops, reduced tillage, or humus building—are labeled as regenerative, even though the underlying production system has hardly changed.
As a result, the term has become increasingly diluted in recent years.
In the TEIKEI Wiki, we therefore deliberately do not use it as a marketing term but as a description of the long-term development of landscapes, farms, and food systems.
Regeneration cannot be tied to individual measures.
The decisive factor is whether an entire system becomes more resilient, diverse, and life-sustaining year after year.
Regenerative agriculture does not start with the soil.
It begins with understanding an entire landscape system.
A key planning approach in regenerative agriculture therefore describes a sequence of the most permanent landscape elements. This is based on the so-called Scale of Permanence and is still used in regenerative landscape planning today.
The basic sequence is:
This sequence illustrates that while soil is of central importance, its development is significantly influenced by decisions made at the levels above it.
If water is managed incorrectly, unsuitable roads are built, or landscapes are structured unfavorably, the consequences can only be partially offset later through soil care.
The soil is at the end of the sequence—not because it is unimportant, but because everything above it shapes it.
How to read the diagram: From top to bottom, the sequence of the most permanent landscape elements according to the Scale of Permanence: Climate, Landform (Topography), Water, Roads and Access, Woody Plants and Trees, Buildings, Divisions and Grazing Systems, Soil. The most permanent elements are at the top; each level shapes those below. Soil (green) is at the end: its development is significantly influenced by the decisions made above it. Boxes with ↗ link to: Scale of Permanence, Water in the Agricultural Cycle, Agroforestry, Soil Fertility.
Regenerative agriculture is oriented toward natural processes and long-term cycles.
These include, among others:
There is no single regenerative method.
Whether a management practice is regenerative is determined by whether it strengthens a landscape system’s ability to sustain and develop itself in the long term.
Many discussions about regenerative agriculture focus on soil fertility or humus building.
These topics are of great importance.
However, they alone do not describe regenerative agriculture.
Fertile soil usually emerges as the result of a functioning whole system.
Equally crucial are, for example:
The development of healthy soils is therefore not the starting point but the expression of a functioning landscape.
The biological processes in the soil itself—particularly soil microbiology, fungal networks, rhizosphere, and mineral cycles—form a separate, extensive field of expertise and are explored in greater depth in dedicated articles in the TEIKEI Wiki.
Regenerative agriculture does not just change farming methods.
It changes the understanding of how plants grow in the first place.
In conventional agriculture, the central question is often:
How do we supply the plant with the right nutrients?
The focus here is primarily on fertilization, nutrient content, and the immediate supply of the crop.
Regenerative agriculture shifts this perspective.
It asks:
How do we create conditions under which soil organisms can produce healthy plants?
The plant is no longer the center of attention.
The entire soil ecosystem is.
Bacteria, fungi, protozoa, earthworms, roots, and countless other soil organisms together form a highly complex network that stores water, unlocks minerals, builds humus, and nourishes plants.
From this perspective, agriculture becomes less a question of fertilization and more a question of habitat.
The soil is not viewed as a substrate.
It is understood as a living ecosystem.
This fundamentally changes the role of farmers.
Their task is no longer to directly supply the plant.
It is to create conditions under which soil life can fully develop its natural functions.
A healthy plant is thus not seen as the endpoint of technical control.
It becomes the expression of a functioning ecosystem.
The plant is not the center of attention; the entire soil ecosystem is.
How to read the diagram: On the left, the question of conventional agriculture: How do we supply the plant with the right nutrients? Fertilizer goes directly to the plant, and the soil is viewed as a substrate. On the right, the regenerative question: How do we create conditions under which soil organisms can produce healthy plants? Bacteria, fungi, protozoa, earthworms, and roots form a network that stores water, unlocks minerals, builds humus, and nourishes plants. Boxes with ↗ link to: Soil Fertility.
Regenerative agriculture has no universal recipes.
What makes sense in one place may be unsuitable or even harmful in another.
Therefore, every planning process begins with questions such as:
The answers emerge from the specific place—not from a standardized production model.
A regenerative agricultural system must not only function ecologically.
It must also provide people with a sustainable economic livelihood.
Therefore, farm planning, direct marketing, regional value creation, appropriate farm sizes, resilient business models, and fair incomes are also part of regenerative agriculture.
Ecological and economic regeneration are not mutually exclusive.
In the long term, they depend on each other.
In the TEIKEI understanding, regenerative agriculture does not end at the field’s edge.
Processing, logistics, trade, financing, knowledge transfer, and community organization can also be designed regeneratively or degeneratively.
Therefore, we view agriculture as part of an entire food system.
From our perspective, agriculture is regenerative when it simultaneously:
Agriculture is part of an entire food system.
How to read the diagram: In the TEIKEI understanding, regenerative agriculture does not end at the field’s edge. Alongside the field, processing, logistics, trade, financing, knowledge transfer, and community organization are part of the food system; each of these components can be designed regeneratively or degeneratively. Boxes with ↗ link to: Agriculture, 16 - Processing, Cooperative Logistics, The Role of Trade in a European CSX Structure, Fair Costs, Basic Costs, and Shared Financing, Self-Organization.
Regenerative agriculture does not just ask:
How can we produce food?
But rather:
How can we use agriculture to permanently develop landscapes, communities, and livelihoods?
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By Felix Schröder, with support from AI (ChatGPT)
Created on July 10, 2026 · Last updated on July 10, 2026
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