How Humans Mess Up with Nature

Introduction

Humanity has gradually moved away from the way Nature functions. Instead of observing natural processes and adapting our actions to them, we have increasingly tried to control Nature according to our own ideas of what should happen.

This has brought us many apparent improvements in the short term, but the long-term consequences are becoming increasingly difficult to ignore. Soil is degraded, forests disappear, biodiversity is reduced, water systems are disrupted, and agriculture becomes increasingly dependent on external inputs.

The purpose of this article is not simply to criticize what humans have done. It is to look at some of the ways in which we have interfered with Nature, understand the consequences, and recognize where another course is possible.

Deviation from the Original Blueprint

What went wrong is largely due to ignorance of the way Nature actually works.

Humans, having deviated from their original blueprint, gradually lost their natural self-awareness and became increasingly focused on their material existence and everything that revolves around it. Nature became something to be used for human needs rather than a living system of which we are a part.

Instead of asking, What does Nature need in order to remain fertile and healthy?, we generally ask, How can we make Nature produce more for us?

This difference may seem small, but it leads to completely different results.

The Connection Between Caretakers and Plants

Trees and plants cared for by humans can become a reflection of the way we interact with them.

A stressed, neglectful, impatient, or overly controlling caretaker may create conditions in which plants struggle to thrive. Improper watering, over-fertilizing, excessive pruning, and other interventions often come from the desire to obtain a particular result rather than from observing what the plant and the ecosystem actually require.

Plants are not isolated objects. Their health depends on the soil, microorganisms, fungi, water, neighboring plants, insects, climate, and countless other relationships.

When plants are treated as possessions that must be controlled, their natural resilience can be compromised.

Diseases as a Reflection of Our Methods

Plant diseases and pest problems are often treated simply as enemies that must be eliminated. But in many cases they are also an indication that something is wrong with the conditions in which the plant is growing.

Monoculture, excessive fertilization, overwatering, chemical treatments, soil disturbance, and other unnatural conditions can weaken plants and create an environment in which disease and insect problems become more likely.

The question should therefore not always be, How do I kill the insect or disease?

A more useful question is:

What is happening in the ecosystem that allowed this problem to appear?

Ecosystems Over Ownership

Instead of thinking of plants as something we own and control, we can learn to participate in ecosystems in which plants are supported by a diverse network of relationships.

Plants can be supported by soil microorganisms, fungi, insects, neighboring vegetation, water, and the many other organisms with which they coexist.

This changes the human role from master to steward.

Rewilding and natural forms of agriculture move in this direction by reducing unnecessary human control and allowing ecosystems to recover their own relationships.

The ultimate goal is not to abandon Nature, but to support it in such a way that it can increasingly support itself.

Evidence of Global Degradation

The Destruction of Soil

One of the clearest examples of human interference with Nature is the degradation of the soil.

With repeated disturbance, organic matter diminishes, soil structure deteriorates, biological activity declines, and the land gradually loses its ability to support healthy vegetation.

The consequences are not always immediately visible. A field can continue producing crops for many years while the underlying soil is becoming progressively poorer.

The Scale of Degradation

Human-induced soil degradation has reached enormous proportions.

The United Nations Food and Agriculture Organization has reported that a significant proportion of the world’s soils are degraded. Large areas of agricultural land have been affected by repeated plowing, chemical fertilizers, herbicides, pesticides, over-irrigation, erosion, and the destruction of microbial life and organic matter.

The degradation of soil does not only reduce agricultural productivity. It also affects water retention, biodiversity, carbon storage, and the overall ability of ecosystems to regenerate.

Regenerating degraded soil quickly is extremely difficult. Natural soil formation is a very slow process, while human activities can destroy the structure and fertility of soil within a comparatively short period.

This is one of the great contradictions of modern agriculture: we can destroy soil far more quickly than we can create it.

A History of Nature’s Decline

In the distant past, many ecosystems were capable of supporting abundant life without the intensive agriculture, livestock production, logging, mining, and other forms of exploitation that characterize modern civilization.

At some point, this balance was increasingly disrupted.

Humans began cutting down forests, clearing land, hunting, grazing animals, cultivating crops, and eventually developing increasingly intensive systems of production.

The more humans attempted to control Nature, the more they became dependent on the systems they had created.

The Destruction of Forests

Humans cut down some of the largest and oldest trees because they were the most valuable for timber. Instead of selectively harvesting from the forest while preserving its structure, large areas were cleared.

This caused cascading ecological consequences.

The loss of the canopy exposed the forest floor to the sun and wind. Young trees could no longer develop under the protection of older trees. Soil became more exposed, moisture was lost, and regeneration became increasingly difficult.

The grazing of domesticated animals made the situation even worse. Sheep, goats, and other animals consume young shoots and prevent young trees from replacing older ones.

In deforested and degraded areas, dry branches and logs accumulate. Fires can then spread much more easily. After a fire, torrential rain can wash away the exposed fertile soil.

When grazing continues after the fire, the forest has even less opportunity to recover.

Over time, rich and diverse forests can be reduced to meadows or simplified forests dominated by a few hardy species.

A forest dominated by a single species is not necessarily evidence of a healthy natural ecosystem. It may instead be the result of centuries of degradation.

Today, forests and ancient trees are still being cut down as though there were no tomorrow. Farmers, loggers, shepherds, hunters, mining operations, and other human activities continue to push many ecosystems toward further degradation.

How Human Greed and Systemic Forces Dismantle the Primal Earth

The destruction of Nature is not caused only by individual farmers or isolated mistakes. Modern economic systems have created enormous incentives to extract as much as possible from land, forests, animals, minerals, and oceans.

The fear of scarcity and the desire for profit have become powerful driving forces behind continuous production and consumption.

Nature is often treated as a resource rather than as a living system.

Industrial systems then create problems and develop new products to address the problems they have helped create.

The result can become a cycle:

disturb Nature → create imbalance → introduce a technological or chemical solution → create another imbalance → introduce another solution.

The more complex this cycle becomes, the further we move from the original functioning of the ecosystem.

Industrial Agriculture and the Plow

The transformation of the Earth into a commodity begins with the soil.

Modern agriculture often treats soil as a medium in which plants are placed rather than as a living ecosystem in its own right.

Deep tillage, plowing, rotor tilling, herbicides, insecticides, synthetic fertilizers, and monocultures can progressively disturb the biological structure of the land.

Plowing is particularly destructive because it physically overturns the natural soil profile and disrupts the relationships that have developed within it.

The living soil contains microorganisms, fungi, roots, organic matter, insects, and countless other organisms. These are part of a complex biological system that cannot simply be replaced by chemical inputs.

When the system is repeatedly disturbed, the farmer may obtain a short-term increase in production while gradually creating a long-term dependency on external inputs.

Industrial Livestock Production and Pastoral Deserts

The extraction of life also extends to the animal kingdom.

Large-scale livestock production requires enormous quantities of land, feed, water, and other resources. Forests are cleared for grazing and for crops used to feed livestock.

On a local scale, overgrazing can prevent the regeneration of forests.

Sheep and goats consume emerging vegetation before young trees have a chance to develop. If this continues for many years, the forest gradually disappears and is replaced by vegetation that can tolerate constant grazing.

What was once a regenerating ecosystem becomes a biological desert.

Industrial Logging and the Erasure of the Elders

Forest ecosystems are among the most important structural components of the Earth’s climate and water systems.

Yet industrial logging often targets the largest and oldest trees because they have the greatest commercial value.

These ancient trees are not simply pieces of timber. They are structural elements of the forest and may support countless organisms.

When they are removed, the canopy becomes fragmented. The forest floor receives more direct sunlight, moisture is lost, and the remaining vegetation becomes more vulnerable to drought and fire.

The destruction of old forests therefore removes not only individual trees but also ecological relationships that may have taken centuries to develop.

The Mechanical Destruction of the Soil

Why Plowing Is Detrimental to Soil Fertility

Plowing and rotor tilling are common agricultural practices because they make the soil appear loose and easy to plant.

But the appearance of loose soil immediately after tilling can be deceptive.

Repeated disturbance can expose soil to wind and water erosion and to the drying effect of the sun. It can also destroy soil structure and disturb the organisms responsible for maintaining fertility.

Soil Erosion

When vegetation and natural soil structure are removed, the soil surface becomes exposed.

Rain can wash away fine particles and organic matter, while wind can carry away dry topsoil.

Over time, this reduces the soil’s ability to retain moisture and nutrients.

Compaction from Machinery

The heavy tractors used to plow and harvest crops can compact the soil.

Although the plow is loosening the soil behind the tractor, the weight of the machinery compresses the ground beneath its wheels.

When the soil is wet, the problem becomes even more severe.

The result can be a soil that appears loose on the surface but is compacted below.

Loss of Biodiversity

When agricultural land is repeatedly disturbed and plants other than the desired crop are eliminated, the habitats of many organisms disappear.

Pollinators, beneficial insects, earthworms, microorganisms, fungi, and other forms of life are affected.

The reduction of biodiversity then creates further problems because the ecosystem loses many of the relationships that normally help maintain its balance.

Increased Chemical Use

As soil quality deteriorates, farmers often compensate with fertilizers, pesticides, herbicides, and other external inputs.

This creates a cycle in which the degradation caused by one practice increases the need for another.

Destruction of Soil Organisms

Repeated soil disturbance damages microbial communities and other organisms responsible for nutrient cycling and organic matter decomposition.

The living network that naturally maintains soil fertility is gradually replaced by an increasingly artificial system.

Topsoil Inversion and Its Consequences

In plowing, the top layer of soil, which contains much of the organic matter, nutrients, microorganisms, and biological activity, is turned over and buried beneath the less biologically active subsoil.

This disrupts the natural soil profile.

Anaerobic Conditions

When soil structure is disturbed and compacted, water infiltration and air movement can be reduced.

Poorly aerated areas can become anaerobic, creating conditions in which different microbial processes dominate.

Organic matter decomposes differently under these conditions, and the availability of nutrients to plants can be affected.

Poor Seed Germination and Growth

Seeds planted into degraded or compacted soil encounter less favorable conditions.

The soil may have poor moisture retention, reduced microbial activity, and inadequate structure.

Roots attempting to penetrate compacted layers may struggle to reach deeper water and nutrients.

The result can be weaker growth and increased susceptibility to environmental stresses.

Increased Dependency on Fertilizers

As natural soil fertility declines, farmers may compensate by adding synthetic fertilizers.

This can temporarily increase plant growth, but it does not recreate the biological system that originally made the soil fertile.

Excess fertilizer can also move into waterways, contributing to nutrient pollution and eutrophication.

The Detrimental Effects of Rotor Tilling

Rotor tilling is widely used because it quickly breaks up the soil and creates a fine seedbed.

However, the rotating blades can mix the topsoil and subsoil and destroy the natural structure and cohesion of the soil.

The soil is reduced to fine particles that can later become compacted again when exposed to rain.

The apparent looseness immediately after tilling therefore does not necessarily mean that the soil has been improved.

The Formation of an Impenetrable Layer

As rotor blades pass through the soil, they can create a sliding and compacting effect beneath the cultivated layer.

This is particularly important in soils containing a high proportion of clay.

Over time, a dense layer can form beneath the cultivated surface. This hardpan restricts root penetration and prevents roots from accessing deeper moisture and nutrients.

When rain falls, water may accumulate above this layer instead of penetrating deeply into the soil.

It can then run across the surface, increasing erosion.

During dry periods, the deeper water that would otherwise have been available to plants remains inaccessible.

The farmer may then use the rotor tiller again to make the surface soil appear loose.

The cycle repeats.

The soil is loosened mechanically, rain compacts it again, and the machinery is used once more.

Over time, repeated disturbance can progressively destroy the natural structure of the soil.

Anaerobic Fermentation

Poorly aerated soil can develop anaerobic conditions.

Organic matter decomposes differently without sufficient oxygen, and gases such as methane and hydrogen sulfide can be produced under certain conditions.

Low-oxygen conditions can also contribute to root problems and changes in microbial activity.

The result is a soil ecosystem that is increasingly different from the living, well-structured soil found in a healthy natural ecosystem.

When Weeds Become the Enemy

One of the consequences of disturbed soil is the proliferation of plants that are particularly well adapted to such conditions.

Quack grass (Elymus repens), for example, is a highly vigorous grass that spreads through rhizomes and can become dominant in disturbed soils.

From the human point of view, such plants are often simply called weeds.

From another perspective, their appearance can also be understood as part of Nature’s attempt to cover and protect exposed soil.

Dense vegetation protects the ground from the sun and rain, adds organic matter, and roots can help change soil structure.

Instead of asking only how to eliminate such plants, we can ask what conditions caused them to become dominant in the first place.

Herbicides: Treating the Symptom

After disturbing the soil, humans often try to eliminate the plants that respond to the disturbance.

Herbicides such as glyphosate are widely used to control unwanted vegetation.

The problem is that killing the visible plants does not necessarily restore the underlying soil ecosystem.

When vegetation is removed, the soil can become even more exposed.

The loss of plant diversity also affects insects, microorganisms, fungi, and other organisms that depend on the vegetation.

This can create another cycle in which a problem created by disturbance is treated with another intervention rather than by correcting the original disturbance.

The Consequences of Soil Compaction

Soil compaction is another major but often overlooked form of degradation.

It can occur when grazing animals repeatedly trample land, especially when the soil is wet.

Heavy machinery can intensify the problem by compressing the soil beneath its wheels.

Compacted soil loses much of its natural porous structure.

Water infiltration becomes more difficult and roots have greater difficulty penetrating the soil.

When torrential rains occur, especially after forests have been removed, water may no longer infiltrate effectively. Instead, it runs across the surface and carries soil away.

On slopes, the consequences can be particularly severe.

Large areas of land can eventually be reduced to exposed subsoil in which little more than hardy weeds and small shrubs can grow.

Nature then responds with plants capable of surviving those conditions.

Some vigorous grasses and other pioneer plants rapidly cover the compacted soil, protecting it from the sun and adding organic matter.

Their roots can also help open the soil.

But when humans repeatedly disturb the land again, the process is interrupted.

Artificially loosening the soil may therefore provide only a temporary solution.

The Loss of Fruit Trees from Past Ecosystems

The forests we see today may contain many species that survived previous ecological disturbances, but that does not mean they contain all the species that once existed there.

Among the species that may have disappeared are delicate wild fruit trees that were less able to survive deforestation, grazing, fire, and other disturbances.

In rich ecosystems, fruit-bearing trees can play an important role by providing food for many animals and humans.

When these trees disappear, the animals that depended on them may also disappear or move elsewhere.

The loss of fruit-bearing diversity therefore affects the entire ecosystem.

A Local Example

In Paleoi Poroi, a village on Mount Olympus in Greece, there once stood a rare and enormous wild fruit tree in the village square.

Its fruits were delicious but largely ignored.

Eventually the tree was cut down because the fallen fruit was considered a nuisance.

Such examples illustrate a mentality that can cause the disappearance of valuable genetic resources without anyone recognizing what has been lost.

The same mentality can be seen when people destroy wildlife simply because they do not understand its role in the ecosystem.

This Is What Happened in the Amazon and Other Ecosystems

Today, very few ecosystems remain that can be assumed to resemble the richest ecosystems of the distant past.

Even forests that appear untouched may have undergone centuries of human influence, species loss, hunting, fire, selective logging, and other disturbances.

The Amazon, the Darién of Panama, and other regions often described as virgin forests contain ecosystems that have experienced long histories of human interaction.

Indigenous peoples also modified and managed many of these landscapes, sometimes using sophisticated techniques such as biochar to enrich soil.

When populations were drastically reduced after European colonization, large areas of land were left without intensive human use and natural regeneration took place.

Over centuries, secondary forests developed.

However, natural regeneration does not necessarily restore every species that was previously present.

Some species disappear completely when their seeds, dispersers, or ecological relationships are lost.

What Prevents Recovery?

Several factors can hinder the recovery of biodiversity:

climate change;
grazing animals in forests;
habitat fragmentation;
the loss of seed-dispersing animals;
repeated fires;
poorly planned tree-planting projects;
lack of funding;
short-term objectives;
insufficient knowledge;
continued logging;
mining;
agricultural expansion.

Tree planting can also fail when restoration is reduced to planting only one or a few species.

Planting highly flammable species such as certain pines over large areas can create forests that remain vulnerable to repeated fires and lack the biodiversity of a natural ecosystem.

After a fire, money is then spent planting the same kind of trees again, repeating the cycle rather than restoring the ecosystem that was lost.

The important question is therefore not simply:

How many trees did we plant?

It is:

What kind of ecosystem are we creating?

Why Nature Is on a Descending Course

Humanity has increasingly acted against the natural processes that maintain fertility and biodiversity.

The destruction is both direct and indirect.

We remove forests, disturb soil, eliminate plants that we call weeds, kill insects that we consider pests, simplify ecosystems, and replace natural cycles with artificial inputs.

Each intervention may appear reasonable when considered separately.

The problem becomes visible when we look at the whole system.

When we disturb the balance of Nature, we often stimulate responses that we then interpret as new problems.

We destroy the soil and weeds become stronger.

We remove biodiversity and pests become more difficult to control.

We weaken plants through unnatural growing conditions and then need more pesticides.

We exhaust soil fertility and then add more fertilizer.

We remove forests and then face erosion, drought, and floods.

We create the problem and then try to control its symptoms.

Preventing Damage from Weeds and Insects

It is important to understand what happens when we begin a battle with Nature.

When soil has been disturbed and vegetation has been simplified, the ecosystem reacts according to the conditions we have created.

If we repeatedly plow the land and then use chemicals for decades, we may eventually create a system in which fewer and fewer plants can survive.

At the same time, the plants that are able to survive the disturbance become increasingly dominant.

This is not necessarily because Nature is working against us.

It is because Nature is responding to the conditions we have created.

What Happens When We Eliminate Everything Else?

After plowing, farmers often use herbicides to eliminate weeds because they are believed to be taking fertility and water from the crop.

But if the soil itself has been damaged, the weeds may actually be among the plants capable of surviving the resulting conditions.

Instead of eliminating them immediately, we can observe why they are there.

What is the soil telling us?

What has happened to its structure?

What has happened to its organic matter?

What plants are missing?

What relationships have disappeared?

These questions lead us toward regeneration rather than continued battle.

The Importance of Diversity

When a wide variety of plants are established together, the ecosystem becomes more complex.

Different plants have different heights, root depths, growth rates, nutrient requirements, and relationships with microorganisms and animals.

Instead of creating a single crop surrounded by bare soil, we can create a living community.

For example, traditional polycultures such as the combination of corn, climbing beans, and ground-covering squash demonstrate how plants with different forms and functions can occupy the same space.

The corn provides support for the beans, the beans contribute nitrogen, and the squash covers the ground.

The principle is simple:

Instead of making Nature fit the crop, make the crop part of Nature.

Nature Does Not Function Competitively Like Humans

Human society often interprets Nature through the lens of competition.

We imagine plants competing for water, nutrients, sunlight, and space, and therefore assume that the best agricultural system must eliminate everything that competes with the crop.

But a natural ecosystem contains enormous numbers of relationships that are not simply competition.

Plants can cooperate indirectly through soil organisms and fungi.

Some provide shade.

Some provide ground cover.

Some improve the soil.

Some attract insects.

Some provide food for birds.

Some protect other plants from wind or excessive sunlight.

Some have deep roots while others remain near the surface.

A healthy ecosystem therefore contains relationships that allow many different forms of life to exist together.

The apparent competition is only one part of a much larger system of cooperation and interdependence.

The Difference Between This and Other Methods

The difference between the regeneration method presented here and many other growing methods is the starting point.

Most agricultural methods begin with a preconceived idea of how a crop should be grown.

The land is prepared according to a predetermined system, particular crops are selected, spacing is established, irrigation is provided, fertilizers are applied, and pests and weeds are controlled.

The regeneration approach begins with a different question:

Will this action improve the soil and make Nature more fertile than it was before?

If the answer is yes, the action may be justified.

If the answer is no, we should question whether it is necessary.

This does not mean that every established agricultural method is useless.

Some newer forms of agroecology come much closer to natural processes because they reduce soil disturbance and increase biodiversity.

Examples include regenerative agroforestry and regenerative agriculture.

These approaches are valuable steps toward a more natural relationship with the land.

The approach presented here, however, places Nature itself at the center rather than simply trying to make agriculture more efficient for humans.

The Problem with Preconceived Solutions

Human knowledge is powerful, but it is also limited.

A technique that works well in one place may not work in another because Nature is influenced by countless factors: soil, climate, water, microorganisms, fungi, plants, animals, terrain, sunlight, wind, and many other conditions.

A method can produce excellent results for several years and still create problems that become visible only decades later.

This is particularly important in agriculture because soil degradation is often slow.

A system may appear successful because it produces a good harvest today, while the foundations of its future fertility are being depleted.

The real test is therefore not only:

How much did we produce this year?

It is:

What will the land be like after ten, twenty, fifty, or one hundred years?

The Superiority of Natural Mixed Planting

Organic gardening often uses companion planting, crop rotation, combinations of tall and short plants, and other techniques designed to create beneficial relationships.

These methods can be useful, but they also require extensive knowledge about which plants should be placed beside which others.

The regeneration method proposed here takes another approach.

A very wide variety of seeds of different heights, growth rates, root depths, and functions are introduced through the seed-pellet method.

Nature is then given the opportunity to determine what will germinate and where.

The objective is not to predict every relationship in advance.

The objective is to create the conditions in which many relationships can develop.

Some plants will succeed.

Others will disappear.

Some will grow strongly in one place and poorly in another.

Some may appear years later when conditions become suitable.

This is precisely what makes the ecosystem different from a conventional field.

Human beings provide the initial conditions.

Nature determines the final arrangement.

From Monoculture to Polyculture

We should not simply plant one species.

Nor should we limit ourselves to two or three species merely because they are easier to manage.

A genuinely diverse ecosystem contains plants occupying different ecological roles.

Vegetables need sufficient sunlight, but they can also benefit from surrounding shrubs, trees, herbs, and ground covers that protect the soil and modify the conditions around them.

When wild fruit trees and other wild plants are combined with cultivated species, a more complex balance can develop.

For example, if trees produce fruits that birds naturally prefer, birds may have less reason to attack cultivated fruits.

Instead of trying to eliminate the birds, we provide them with something they naturally want.

The same principle can be applied throughout the ecosystem.

Rather than constantly fighting Nature, we can redesign the conditions so that Nature’s own relationships become beneficial to us.

Wild Plants as Partners

Wild trees grow without irrigation systems, manure, synthetic fertilizers, or chemical sprays.

They have developed through generations of adaptation to the local environment.

When cultivated plants are placed into a diverse ecosystem together with wild vegetation, they can benefit from the relationships that already exist in the living system.

Roots interact with roots.

Plants release substances into the air.

Microorganisms interact with plants.

Fungi connect different parts of the soil.

Insects move between plants.

Animals transport seeds.

The ecosystem therefore becomes a network rather than a collection of isolated crops.

The Superiority of Regeneration

In a regenerating ecosystem, soil fertility should increase rather than decrease year after year.

This is fundamentally different from a system in which fertility is continually removed from the soil and then replaced with external fertilizers.

Even organic agriculture can degrade soil if it repeatedly uses plowing and rotor tilling.

Leaving land fallow for a period does not necessarily restore the original soil structure if the underlying disturbance continues.

The methods that come closest to natural regeneration are those that minimize soil disturbance, increase biodiversity, integrate trees and other vegetation, and allow natural processes to rebuild fertility.

The approach described here goes one step further by making the regeneration of Nature itself the primary objective.

From Farming for Humans to Regenerating for Nature

Most agricultural systems are designed around human needs.

We decide what we want to eat, where we want it to grow, how much we want to produce, and how quickly we want it.

Nature is then expected to conform to our requirements.

The regeneration approach reverses this relationship.

We still grow food.

We still introduce useful plants.

We still create paths, water systems, gardens, and human spaces.

But all of these become parts of the ecosystem rather than replacements for it.

The central question remains:

Does our action make the ecosystem more fertile, diverse, resilient, and self-sustaining?

If it does, it supports regeneration.

If it makes the ecosystem more dependent on us, it should be questioned.

The Illusion of More

In Nature, bigger does not necessarily mean better.

A plant that grows rapidly because it has received excessive water or nutrients may appear impressive, but rapid growth can come at the expense of resilience.

A tree that is pushed to produce more fruit than its natural conditions support may become weaker.

A vegetable grown rapidly under excessive fertilization may become large without necessarily becoming more nutritious.

The same principle applies to water.

Excessive irrigation may increase the weight and size of fruits and vegetables, but it can also weaken plants, reduce their adaptation to drought, contribute to salt accumulation, and create dependency on continual watering.

A mature tree that has learned to find its own water has a very different relationship with the environment from a tree that depends entirely on irrigation.

The goal should therefore not simply be maximum production.

It should be healthy production within a healthy ecosystem.

The Problem of Forcing Growth

“Forcing” plants includes many practices intended to make them grow faster or produce more than their natural conditions would support.

Plowing and rotor tilling can release nutrients rapidly by disturbing organic matter.

Excessive watering can increase the size and weight of plants and fruits.

Excessive fertilization can produce rapid growth.

Overfeeding a tree may increase production in the short term while making the tree more vulnerable to disease, insects, drought, and wind.

Instead of trying to obtain the maximum possible production from every plant, we should allow plants to develop according to the conditions of the ecosystem.

A healthy plant is not necessarily the largest plant.

A healthy ecosystem is not necessarily the one producing the largest harvest today.

It is the one that remains fertile and productive tomorrow.

The Question We Should Always Ask

Whatever we do on the land, the first question should be:

Will this improve the soil and make Nature more fertile than before?

If the answer is yes, proceed.

If the answer is no, ask whether the action is really necessary.

This simple question changes the whole way we approach agriculture.

It moves us away from constantly correcting symptoms and toward understanding causes.

It also changes the role of the farmer.

The farmer becomes an observer.

A participant.

A steward.

Someone who creates conditions and then allows Nature to complete the process.

When We Stop Doing What Is Unnecessary

One of the deepest problems in modern agriculture is that humans have learned to intervene so much that they no longer know what happens when they stop.

We water because we are afraid the plants will suffer.

We fertilize because we want more growth.

We spray because we are afraid of insects.

We remove weeds because we believe they are stealing resources.

We till because we want the soil to become loose.

We repeat these actions because everyone around us does the same.

Eventually, the interventions themselves become considered normal.

But Nature does not need us to repeat everything simply because we have always done it.

Sometimes the most important intervention is to stop interfering with a process that Nature already knows how to perform.

Returning to a Different Course

The Earth is finite.

The soil is finite.

The forests are finite.

The diversity of life is finite.

Species that disappear cannot simply be recreated by planting another tree.

Once genetic diversity is lost, it may be gone forever.

The task before us is therefore not merely to make agriculture slightly more efficient or slightly less damaging.

It is to change the direction in which we are moving.

Instead of asking how much more we can extract from Nature, we can ask how much more fertility, biodiversity, and life we can return to it.

Instead of trying to dominate the land, we can learn to participate in it.

Instead of fighting weeds, insects, and natural processes, we can understand why they appear.

Instead of simplifying ecosystems, we can increase their diversity.

Instead of continually disturbing the soil, we can allow it to rebuild its structure.

Instead of forcing plants to produce more, we can create the conditions in which they become stronger.

And instead of treating Nature as something outside ourselves, we can recognize that our own future is inseparable from the health of the living Earth.

The real measure of success is therefore not simply what we take from the land.

It is what we leave behind.

Is the soil better than before?

Is Nature more fertile than before?

Is biodiversity increasing?

Are the plants becoming more resilient?

Is the ecosystem becoming less dependent on human intervention?

If the answer to these questions is yes, then we are moving in the right direction.

That is the direction toward regeneration.

About greenhouses

There are many factors affecting the plants, ending up with nutrient deficiencies or diseases, in the 3 million hectares greenhouses worldwide. One of them is that the full spectrum of the sun does not reach the plants, as glass or polycarbonate is filtering it. There is a super tech invention that measures the bioenergy of plants. For example, it is easy for someone to tell the difference between eating an orange directly from an organically grown tree and drinking freshly squeezed orange juice in town. They both may have the same sweetness and flavor but the something special you feel when you eat the orange from the tree is its bioenergy. If they are examined by the common scientific instruments they are both the same. Trying to produce foods with bioenergy in a greenhouse, requires for them some hours per day to be exposed to the full spectrum of the sun. Plus the best water for irrigation for the plants is rain water. This means that the roof must be movable (retractable). This super tech invention can prove the importance of this. Search on the net what the companies say that sell retractable roof greenhouses about their many advantages. However, they will not mention what I am saying in order not to be sued by greenhouse owners. If on top they are solar, even the better. Solar means that on the Northern wall mostly, there are containers with water painted black to absorb the sun’s heat that store it and radiate it back at night. Using passive energy in this way, makes the cost of heating much less. For plants and superfoods like spirulina, it is even more important, as in order to produce their chlorophyll, their photosynthesis has to occur from the sun’s full spectrum. Thus, rectractable roof design enhances photosynthesis and improves plant health.

In the wild, the cycle of life and death unfolds within a natural harmony. The forest, the plant kingdom, and the animal kingdom are woven into a single living fabric, where one being’s death becomes another’s continuation, and the whole system remains in balance without cruelty or coercion. What follows is a different matter: not the natural order itself, but what happens when human beings intervene in it, breeding and confining animals for consumption in ways that introduce suffering where none needed to exist.

The Illusion of Dominance: From Animal Attachment to Spiritual and Ecological Awakening

Symbiosis in Nature and the Human Essence Wild fauna is the vital pulse of the planet. In an indivisible ecosystem, flora and fauna function as complementary gears of a perfect machine. When one recognizes their true Essence, they perceive the superiority of human nature, which far transcends the animalistic. At the same time, compassion for all living beings must be impartial—a stance that does not distinguish beings as “useful,” “loved,” or intended for “food,” but views life with absolute equanimity.

Pet Ownership The modern trend of pet ownership often serves as an “emotional crutch.” Within the unnatural isolation of cities, humans use animals to fill voids of loneliness and lack of love. Simultaneously, we see the paradox of prioritizing expenses for veterinarians and pet accessories while aid for the homeless and needy is deemed secondary. This highlights the egocentric nature of animal ownership; this clinging love is not true love. As humanity sinks further into the technological world, this need will likely soon shift toward robot ownership.

Selective Compassion: We love our pets but remain indifferent to the millions of animals brutally slaughtered to feed us and our pets. Enjoying the flesh of a being that had to be killed to sustain your own life indicates a subconscious brutality—”your death is my life”—which leads to competition and wars.
Biological Violence: The practice of sterilization (neutering), imposed without their consent, causes terrible hormonal imbalances, reminiscent of the practice of eunuchs in harems.
The Cycle of Suffering: The more attachment we have to people, animals, and objects, the more we will suffer in the future upon separation or death..

Animal Product Consumption as Addiction and Astral Implications The consumption of animal products is not merely a dietary choice, but a profound biochemical and energetic addiction.

Chemical Addiction: Meat contains albumin, hemoglobin, and gamma-globulin, substances that activate opioid receptors in the brain similar to the way narcotics and heroin do. The same effect is triggered by casomorphins (from dairy) and gluteomorphins (from grains). These create a vicious cycle of dependency that clouds consciousness. Combined with sugar, alcohol, and caffeine, they build reward systems in the brain—releasing pleasure chemicals comparable to nicotine addiction—resulting in severe side effects for both physical health and spiritual awareness.
The Imprint of Panic: At the moment of slaughter, the animal’s astral body is overwhelmed by the vibrational imprint of terror. This “death energy” becomes trapped within the animal’s tissues. When a human consumes this flesh, they introduce these low vibrations into their own ethereal and astral fields, stimulating lower instincts and reinforcing their carnal nature.
Degradation and GMOs: Modern meat is heavily degraded due to the use of antibiotics, hormones, and genetically modified feed. In Greece alone, 400,000 tons of GMO soy are imported annually for livestock—a responsibility that lies with those who consume meat, dairy, and eggs. Furthermore, the castration of farm animals (such as piglets) transfers hormonal imbalances to the human consumer, disrupting the natural balance of the genders.
Astral Parasites: Close contact with the animalistic vibration (through food or excessive attachment) allows lower astral elements to “attach” to the human field, hindering our harmonious interaction with the subtle energies of “Heaven and Earth” and the ethereal forces of Nature.

The Illusion of “Painless” Slaughter Many mistakenly believe that animals do not suffer if killed using “humane” or painless methods. However, the soul is not synonymous with mere sentimentality. It requires great spiritual numbness not to perceive the profound panic and existential shock an animal experiences during the violent separation from its body. This “shock” is not about physical pain; it is about the violent interruption of life itself.

Biological Transmutation: The Body as an Alchemy Lab The belief that we require animal protein or specific supplements is rooted in materialistic biology. When the human ethereal body is purified of animal residues, the capacity for Biological Transmutation is activated.

The Alchemy of Elements: As researchers like Louis Kervran have demonstrated, living organisms possess the ability to convert one chemical element into another (e.g., potassium into calcium or nitrogen into protein) through low-energy nuclear reactions within the cells.
The Role of Ethereal Energy: This process is not purely chemical; it depends on the vital life force (Prana/Qi). By abstaining from meat, humans stop “borrowing” ready-made, degraded energy from animals and compel their own system to generate necessary nutrients from pure plant sources and solar energy. This leads to a state of “crystalline” health that does not depend on external sacrifices.

Livestock Farming as a Catalyst for Ecological Collapse The domestication of animals for food is the primary driver of environmental degradation. Free-roaming livestock in forests prevents natural regeneration; animals devour young seedlings, leaving no replacements for the old, dying trees. When a forest is stripped of its undergrowth, it becomes filled with dry logs and branches, turning the ecosystem into a “tinderbox.” A single spark from lightning or human activity can ignite uncontrollable fires, which dry out and burn even adjacent, non-flammable trees. Without the protection of vegetation, torrential rains wash away the exposed fertile soil, leaving behind a barren wasteland.

The Deception of the “Natural” Landscape The vast, biodiverse forests that once covered the Earth have largely disappeared due to animal grazing and poor land management. In their place, shepherds continue to graze their animals on burned lands, allowing only hardy species like pines to take root. These pine monocultures—which many today mistakenly admire as “natural forests”—are not a sign of health, but rather the footprint of immense destruction. Had humanity not relied on animal products, these ecosystems would have remained vibrant, diverse, and multi-dimensional.

The Destructive Impact of Grazing Goats and sheep, managed by shepherds, inflict significant damage on the soil and low-lying vegetation. Unless substantial resources are invested in erecting two-meter-high fences, goats will invade farms and decimate crops. Furthermore, the defiance of certain shepherds who cut through fences to allow their animals to graze freely perpetuates this ecological crime.

Soil Compaction: The Invisible Death of the Earth A frequently overlooked but critical consequence of livestock farming is soil compaction.

Trampling: Grazing animals compress the earth, especially during the rainy season, destroying its porous texture.
Heavy Machinery: The use of tractors to plow and harvest animal feed further exacerbates the problem.

Compacted soil loses its cohesion and its ability to absorb water. Consequently, during heavy rains, water no longer penetrates the ground but flows over the surface, causing catastrophic erosion, particularly on slopes. Millions of hectares have been destroyed in this manner, leaving behind only a subsoil where little more than weeds and small shrubs can survive.

Conclusion

If we possessed a true ecological mindset and survived on a plant-based diet, the Earth could support tens of billions of people living in high consciousness. Instead, our persistence in owning and consuming animals is the final stronghold of an egocentric civilization. Through these destructive practices, we are led with mathematical precision toward a desert-planet, where our diet will eventually be restricted to laboratory concoctions and insects. The transition toward a plant-based diet and a stance of “impartial compassion” is not merely a dietary choice; it is a spiritual revolution.