This article describes a form of agriculture that understands soil fertility, animal husbandry, material cycles, and landscape as an interconnected whole. Rudolf Steiner's Agricultural Course can serve as a reference point here, but it is not the only one. What matters is not adherence to a single source, but the question of what agriculture might look like when it works with living cycles rather than technically dismantling them.
At the center is the idea of the farm as a living organism. Animals, plants, soil, people, and landscape are not seen as separate production factors but as parts of a shared organism. From this perspective, new questions arise about how fertility is created, how animals are kept, and which substances should circulate within a farm system at all.
In this context, preparations play a special role. Regardless of how individuals interpret their effects, they point to an important qualitative standard: substances should not act dead, harsh, pungent, or putrid, but rather ripe, alive, and harmonious.
That preparations smell good is not a trivial matter in this sense. It is an indication that substances have entered a state of ripening and transformation. The smell then reveals whether a material appears alive, earthy, and healthy or whether it tips into decay, sharpness, or imbalance.
This qualitative perception can also be applied beyond preparations to other substances on the farm. It concerns the handling of manure, compost, soil life, and fertility as a whole.
From this perspective, slurry is not seen as a neutral solution but as an expression of a problematic development.
Slurry is a water-rich, heavy, and voluminous fluid. Collecting, storing, and then spreading it over large distances is inherently inefficient. That such a system nonetheless appears normal is largely due to the fact that fossil energy was cheaply available for a long time. Only under this condition could it be affordable to move highly diluted nutrient masses with high technical effort.
In an energetically and agriculturally coherent system, this is not a convincing approach. Nutrients should not be transported in diluted form with great effort but should be brought into a concentrated, ripe, and soil-compatible form.
In the past, the approach was therefore different in many contexts: organic material was first concentrated, allowed to mature, and transformed into compost or solid manure before being spread back onto the fields. This made the nutrients more stable, concentrated, and better integrated into a living soil process.
Another aspect comes into play: with such technical solutions, the farm itself often does not benefit first and foremost. The real economic winners are frequently found in upstream and downstream industries. On one side, manufacturers of machinery, tank technology, pumping systems, spreading equipment, and the associated service structures profit. On the other side, those sectors benefit that rely on large quantities of standardized raw products and organize their processing, trade, or industrial further utilization.
The agricultural operation itself does not automatically achieve higher profits through these systems. Often, it remains trapped in a logic of increasing technical dependency, high investments, and rising operating costs, while other links in the chain reliably profit from every additional technical step.
This is precisely why it is important to consider these systems not only agronomically or energetically but also in terms of power and economic policy. The interests of upstream and downstream industries often strongly influence politics, legislation, and funding logics. They advocate for measures, standards, and developments that further expand technical processes, require more machinery, and integrate agriculture even more tightly into industrial material and utilization chains.
What then appears as a modern or efficient solution is often also an expression of a political economy in which not the vitality of the farm but its connectivity to industrial value chains is the priority.
The direction should therefore not be to manage slurry more efficiently but to overcome its structural necessity.
If agriculture wants to work more strongly with living cycles again, then slurry-free farming should be a goal.
This means:
This shifts the focus from storage and disposal to maturation, concentration, and a living soil relationship.
From this perspective, a different idea of animal husbandry also emerges. Animals should not be kept primarily in stalls but should live as much as possible in movement on the land.
This does not mean that there should never be shelters or cover. But the basic logic changes: the animal does not live in the stall and leave it temporarily, but rather lives on the land and uses shelter only where it is truly necessary.
Such animal husbandry is more oriented toward herd movement, landscape connection, and living fertility than toward a stationary stall logic.
When animals are thought of as a herd, land management also changes.
One possible guideline is:
This can mean that a herd stays on a subplot for only one day and then moves on. The animals graze, tread, fertilize, and leave the land again so that it subsequently has time to recover.
What matters here is not a rigid number but the principle: concentrated movement instead of diffuse continuous grazing.
This way, fertilization takes effect directly on the land without large amounts of excrement needing to be collected, liquefied, and later transported.
In this logic, the question of fences also arises anew.
Historically, herds were often not organized through a dense network of permanent individual fences but through herding, paths, habit, attention, and communal agreements. There was a herder who gathered the village cows in the morning, often at the village well or a common meeting point, led them together to the land, and brought them back in the evening.
For individual farmers, this had a great advantage: they did not have to take care of the animals all day and could devote themselves to other work during this time. Animal management was organized communally while farm work continued.
This idea deserves renewed attention. Not everything needs to be organized exactly as it was in the past. But the basic idea of communal herding, a moving herd, and relieving the individual farm is highly relevant today.
When the animals return to the farm in the evening, another aspect arises: heat.
In the past, it was taken for granted that animals not only provided food, manure, or labor but also heat. When cows or other animals were near the farm at night, they emitted heat that was part of farm life.
This idea can be described as "harvesting heat." It means seeing animals not only as producers of certain substances but as living heat carriers within a farm organism.
This does not have to lead back to stall-centered animal husbandry. But it can mean designing transition zones, night areas, or farm-adjacent shelters in such a way that this heat relationship between animal and farm becomes conscious again.
Such agriculture requires different structures than a standardized stall and slurry economy.
These could include:
This shifts agriculture from a logic of collection, dilution, and distribution to a logic of movement, concentration, and maturation.
An agriculture that takes preparation quality seriously, wants to overcome slurry, and sees animals again more strongly as part of a living farm organism does not only ask about yield but about harmony.
It asks:
The deeper impulse here is not nostalgic. It is not about simply copying old images. It is about gaining insights from earlier forms of experience and from qualitative references like Steiner for an agriculture that is energetically smarter, materially more mature, and ecologically more alive than the technologized stall and slurry logic of the present.
One level up: Animal Husbandry, Nutrient Cycles, and Farm Systems
Author: Felix Schröder, with the help of AI (ChatGPT)
Created: written by Felix Schröder › formatted in Markdown by ChatGPT › published by Felix Schröder › layout adjusted by Claude
Created: 2026-03-17 · Last updated: 2026-10-11 · Questions or suggestions? support@teikei.us