Nowadays, science is developing technologies to address nutritional problems, yet soil is not merely the ground beneath our feet. It is a living, complex organism whose condition determines crop yields, food quality, and the health of the entire ecosystem. In this article, we will examine the strengths and weaknesses of today’s agricultural systems, the consequences they have led to, and consider the alternative system of Vedic agriculture.
Let us begin with the very term “paradigm” and why it is important to pay attention to it. The term became widely known thanks to the American philosopher and historian of science Thomas Kuhn. In his book The Structure of Scientific Revolutions (1962), he defined a paradigm as “universally recognized scientific achievements that, for a certain period of time, provide a model for posing problems and solving them within the scientific community.” In simple farming language, this sounds like: “My grandfather did it this way, my father did it this way, and I do it this way. I know it works! Add fertilizer — and there will be a harvest!” But this immediately raises a question: will there really be that harvest?
Let us examine the issue more closely. Modern science is actively expanding its postulates in the fields of crop cultivation and livestock farming in order to achieve its goals in the following directions:
- Physics: reductionism (Galileo). Industrialization — technologies for transforming living conditions through heavy industry, chemicalization, and mechanization of agriculture and livestock farming.
- Biology: evolutionism (Darwin). Genetic selection — technologies for increasing the productivity of agricultural crops and livestock through the selection and modification of their material parameters.
By developing these two directions in crop cultivation, science has achieved significant results. In this regard, Vaclav Smil — an authoritative scientist and thinker whose works help explain the complex interconnections between energy, ecology, economics, and politics — stated in his 1994 work Enriching the Earth: Fritz Haber, Carl Bosch, and the Transformation of World Food Production that:
- all traditional societies encountered a “nitrogen ceiling”;
- without synthetic nitrogen, humanity would not physically survive;
- approximately 40–50% of the nitrogen found in the bodies of modern humans (in our proteins and DNA) originates from the Haber–Bosch process;
- returning entirely to organic agriculture would lead to mass famine and the clearing of the remaining forests for manure production and grazing land.
Frank Mitloehner, a professor at the University of California, Davis, specializing in livestock farming, greenhouse gas emissions, and their impact on climate, in turn states that:
- modern mega-farms are far more environmentally efficient than small organic farms;
- through the use of GMO feed, antibiotics, growth hormones, and highly productive livestock breeds on an industrial “conveyor system,” humanity obtains more meat and milk with fewer resource expenditures and lower methane emissions;
- these technologies have made food safer, cheaper, and more accessible than at any other time in history;
- nostalgia for “natural” agriculture is dangerous.
The GMO industry and industrial breeding, while creating the illusion of abundance, openly state that the priorities in creating GMOs and modern hybrids are pesticide resistance (for example, resistance to glyphosate), long shelf life, appearance, and weight. At the same time, preserving or increasing the levels of vitamins, minerals, and phytonutrients in food products is by no means the goal of commercial genetics. Thus, modern breeding is aimed solely at solving external agricultural challenges in order to satisfy commercial interests, rather than creating a healthy seed bank — the foundation of a healthy and economically sustainable harvest.
It creates the impression that industrial breeding either does not know or does not understand that the seed microbiome is completely suppressed through such intervention, while chemical treatment of seeds and plants is added on top of it. A thousandfold destructive effect. Or perhaps someone is doing this intentionally and purposefully in order to make farmers and agricultural enterprises dependent on fertilizers, GMO seeds, and similar products.
Indeed, by cultivating fields in this way, farmers and agribusinesses, planting diseased seeds (genetically modified and treated with harsh chemicals), are forced to apply synthetic fertilizers and pesticides simply to grow anything at all. As a result, a paradox emerges: the plant rapidly gains mass, yet its actual nutritional value decreases exponentially.
At the same time, the illusion of “sustainable agriculture” through the use of chemical fertilizers dissipates because, in order to absorb inorganic nitrogen and convert it into a usable form, plants require a large amount of additional moisture. This increases farmers’ dependence on rainfall and raises the risk of crop loss due to drought. Furthermore, plants also require enormous amounts of energy to assimilate inorganic forms of nitrogen, energy they simply do not possess.
Therefore, farms using chemical fertilizers and GMO seeds are compelled to resort to various additives, including biological stimulants to increase germination energy, growth supplements, adjuvants, anti-stress agents, ripening accelerators, pod-binding agents, and many others — a list that continues to grow each year.
Due to metabolic exhaustion, the growth and development process of plants is often interrupted halfway, leaving their tissues filled with toxins. This gives rise to the hidden threat of so-called “strange proteins,” because agricultural laboratories measure only the total nitrogen level, multiply it by a standard coefficient, and call all of it “protein,” while in reality it is merely undigested nitrogen and nitrates instead of genuine, beneficial, complete amino acids.
As a result, such food does not nourish but instead causes poisoning and metabolic digestive disorders in both humans and animals. Ultimately, people consume either empty fibre or depleted biomass saturated not with nutrients essential to human health, but with dangerous chemicals.
Because of the lack of critically important nutrients and the accumulation of toxins in the body, even the slightest favourable environment for pathogenic organisms allows bacteria, viruses, and fungi to flourish, manifesting themselves through various diseases.
Colin Todhunter (Centre for Research on Globalization) notes in his research that since the 1960s, due to the “chemical revolution,” there has been a systematic decline in the nutritional value of food:
- Rice and wheat (the primary energy sources) have lost up to 45% of their nutritional value over the last 50 years.
- In wheat, zinc levels have decreased by 30% and iron by 19%.
- In rice, zinc levels have decreased by 33%, iron by 27%, while arsenic content (which is dangerous to all living organisms) has increased by 1,493%.
Many specialists and scientists, including microbiologists Elaine Ingham and Christine Jones, emphasize that genetically modified plants sustained on synthetic nutrition stop releasing root exudates (liquid carbon) to feed bacteria and fungi. Without a healthy soil microbiome, the plant loses the biological factory responsible for producing complex enzymes, antioxidants, and complete amino acids, turning instead into calorically rich but metabolically “empty” biomass lacking substances beneficial to humans.
From these conclusions, we can see that when plants stop releasing root exudates — which are the very foundation of nutrition and life support within the soil — life in the soil declines to a minimum. Soil degradation follows, eventually leading to desertification, which is precisely what is now being observed worldwide.
As a result, the system of chemical fertilizers, in its pursuit of greater quantities of food and feed, has produced disastrous outcomes: soil degradation on the planet has reached an area comparable in size to Antarctica, while the quality of food and animal feed continues to decline rapidly. According to Christine Jones, nitrogen fertilizers are among the primary causes of the diseases occupying the top positions in morbidity statistics in the United States, Australia, and other countries.
The British newspaper The Guardian, one of the most respected newspapers in the world, published the following conclusion: soil degradation is occurring at a rate of 1 million square kilometres per year, undermining climate stability, biodiversity, and food security.
By understanding the root of the problem, we can understand the concept of healthy agriculture, which is based on several key principles:
- Respect for nature: land, plants, and animals are parts of a unified system rather than resources for exploitation.
- Harmony with natural cycles: working in accordance with lunar phases, seasons, and the biological rhythms of plants.
- Spiritual connection: working with the land as a form of service and spiritual development.
- Ethics: prohibition of cruelty toward animals and minimization of violence (ahimsa).
- Integrity: the farm is a closed system where the waste of one process becomes a resource for another.
Despite the dominance of chemical agriculture, many scientists in Western countries continue developing the science of proper agriculture, including approaches based on the experience of ancient spiritual cultures.
A pioneer in studying sacred texts from the perspective of soil fertility preservation was Albert Howard, who in 1905 was sent by the British government to Indore, India, as a state economic botanist to study farming methods without the use of chemicals and pest control based on Vedic explanations of the principles of the cycle of matter and the practice of Vriksha Ayurveda — the science of preserving plant health.
This system includes the following main principles and practices:
1. Reverence for Cows
- The cow is regarded as a sacred animal and the very foundation of agriculture.
- Cow-derived products such as manure and urine are used as natural fertilizers and biological growth stimulants.
- Manure serves as the basis for composts and biological soil preparations.
- Cow urine is traditionally used to combat plant pests and diseases.
2. Natural Fertilizers
- Compost is made from plant residues, manure, ash, and clay.
- Panchagavya — a bio-preparation made from five cow-derived substances, used for seed treatment, soil enrichment, and foliar spraying.
- Green manure practices involve the sowing of cover crops that are later incorporated back into the soil.
3. Biodynamic Methods
- The use of lunar calendars to determine optimal times for sowing, weeding, and harvesting.
- Application of specialized preparations designed to stimulate soil microflora.
4. Crop Rotation and Mixed Cropping
- Rotating crops in order to prevent soil depletion.
- Companion planting for mutual protection and support between crops.
5. Preservation of Soil Life
- Minimizing deep plowing, with preference given to shallow loosening at a depth of 5–7 cm.
- Mulching protects the soil from erosion, overheating, and dehydration.
6. Cover Crops and Natural Plant Protection
- Sowing cover crops to protect the soil during off-season periods.
- Using herbal decoctions and infusions as natural pest-control remedies.
- Attracting beneficial insects by planting nectar-producing species.
7. Water and Irrigation
- Harvesting and storing rainwater.
- Drip irrigation systems for efficient water conservation.
- Magnetizing or structuring water prior to irrigation.
8. Seeds and Crop Varieties
- Preference for local, climate-adapted crop varieties.
- Preserving and propagating one’s own seed stock, including the rejection of GMO and chemically treated seeds.
9. Livestock as Part of the Agricultural System
- Integrating livestock into crop rotation systems through grazing on fallow fields and cover crops.
- Using animals such as buffaloes, horses, and oxen for plowing instead of heavy machinery.
10. Energy Efficiency and Manual Labour
- Reducing dependence on machinery.
- Using hand tools and animal labour for land cultivation.
- Supporting local production and consumption in order to reduce the carbon footprint.
After returning to Great Britain, Albert Howard published his influential work An Agricultural Testament in 1940, in which he outlined the core principles of a spiritual and ecological relationship with nature and farming.
“The Law of Return” (Chapter 1)
Drawing upon the ancient Puranas, Howard emphasized that nature leaves no waste behind. He described the maintenance of the cycle of life as a sacred duty: the sun draws moisture from the earth only to return it again, sustaining all living beings. Everything in nature — including food scraps, crumbs, or drops of water spilled during rituals — becomes nourishment for insects, animals, and the unseen forces of nature. Nothing extracted from nature is left unused; everything is returned into the chain of life.
The Indore Composting Method (Chapter 2)
The ancient Ayurvedic scholar Surapala described special mixtures capable of restoring life force (prana) to exhausted soils. Howard scientifically explained why combining carbon-rich materials such as straw and leaves with nitrogen-rich materials such as manure and urine, in the correct proportions and with adequate oxygen, creates the ideal environment for beneficial soil microorganisms.
“Health, Disease, and Soil” (Chapter 3)
This section explored methods for restoring the balance of plant energies (doshas) disrupted by poor soil nutrition. According to Vriksha Ayurveda, fungi and insects — commonly viewed by modern agriculture as pests — are not enemies, but indicators of unhealthy soil conditions. Ancient Ayurvedic methods known as Poshana-vidhi focus on restoring soil health as the primary means of eliminating plant diseases.
Inspired by Howard’s work, Jerome Rodale founded the Rodale Institute in the 1940s and launched the magazine Organic Farming and Gardening. Many prominent scientists, including microbiologists Elaine Ingham and Christine Jones, later demonstrated the practicality and effectiveness of Ayurvedic soil-restoration methods such as Poshana-vidhi, scientifically validating them through research into fungi and bacteria within the soil food web.
Christine Jones published a foundational explanation of the Liquid Carbon Pathway in her work Liquid Carbon Pathway Unrecognised (Vernoux.org / Australian Farm Journal), arguing that synthetic fertilizers destroy the soil microbiome. Her research continues to be referenced by the U.S. National Center for Appropriate Technology (NCAT/ATTRA) in its pasture-based livestock farming guidelines.
Howard also noted that an entire section of Vriksha Ayurveda known as Bhumi-nirupana is devoted to soil types and plant protection through proper soil stewardship, with particular emphasis on preserving soil structure and biodiversity.
This is supported by the research of Jonathan Lundgren, whose studies on no-till agriculture and regenerative farming demonstrate that fields left unplowed and permanently covered with vegetation contain up to ten times greater soil biodiversity and require no insecticides, since healthy soil ecosystems naturally sustain predator insect populations capable of controlling pests.
There is now a substantial body of research demonstrating the effectiveness of applying Vedic and Ayurvedic principles of land cultivation within modern agricultural systems, and these approaches continue to gain momentum. Simply put, humanity cannot compete with Nature or with the order established by the Creator.
When we examine the mechanisms of the soil biome, we begin to recognize the extraordinary complexity of creation and understand that no artificial system can fully replicate these processes. In reality, the mechanisms that sustain soil fertility are far more sophisticated than most people imagine.
For a broader understanding, we can briefly summarize the concept of natural soil regeneration as explained by Christine Jones, one of the world’s leading experts in soil restoration science and practice. She argues that the soil biome — or microbiome — is governed by an intricate network of interactions between plants, microorganisms, and fungi. It is a dynamic living system in which every component plays a critical role in maintaining fertility, resilience, and ecosystem health.
Core Principles
1. Diversity as the Foundation of Efficiency
Soil is a “living metropolis” in which trillions of microbes function collectively. The effectiveness of the system depends upon microbial diversity and coordinated cooperation. Each species performs a unique function: some fix nitrogen, others dissolve phosphorus, while others protect plants from pathogens. When biodiversity is disrupted — for example, through excessive chemical use or monoculture farming — the very foundation of soil health begins to collapse.
2. The Rhizosphere as the Center of Interaction
When a seed enters the soil and begins to germinate, its internal microbial community effectively “scouts” the surrounding environment. Microbes analyze the soil, moisture, and temperature conditions, then transmit signals back to the seed. This information is critically important for plant development. Research by James White has shown that when seeds are stripped of their surface microbes, they lose their ability to orient themselves spatially — no longer recognizing where “up” or “down” is.
3. Plants Carry Their Own Microbiome
Plants create a specialized zone around their roots known as the rhizosphere, where their unique microbiome is concentrated. Previously, it was believed that plants selected beneficial microbes from surrounding soil; today, it is understood that they bring many of these microbes with them. Plants “feed” their microbial partners through root exudates, while the microbes, in return, support plant growth by supplying nutrients and protecting plants from disease and environmental stress.
4. Quorum Sensing
This is a fundamental mechanism of microbial communication and coordination. Microorganisms can “sense” how many of them are present and collectively determine when to initiate action — whether attacking a host in the case of pathogens or performing beneficial functions in the case of symbiotic microbes. The effect only manifests once a critical quorum has been reached.
5. The Fungal Network as the Main Energy Pathway
Modern science demonstrates that the primary flow of energy and carbon through soil occurs via fungal networks nourished by living plant roots through root exudates. Mycorrhizal fungi are especially important because they form vast underground networks connecting plants, allowing the exchange of minerals, trace elements, energy, and biochemical signals. Fungal hyphae penetrate microscopic pores inaccessible to roots and transport water to plants during drought conditions.
6. The Liquid Carbon Pathway
During photosynthesis, plants convert sunlight, carbon dioxide, and water into biochemical energy in the form of sugars. Some of these carbon-rich compounds and signalling molecules are released into the soil as root exudates. These exudates provide both nourishment and communication signals for microbes, which in turn build soil aggregates and mobilize nutrients for plants. The larger the root system and the stronger the flow of exudates, the greater the microbial activity and the faster soil structure and nutrient availability improve.
7. Biochemical Signalling
Microbes “communicate” with one another and with plants through thousands of chemical signals. These signals act as their “eyes” and “ears,” allowing them to navigate, coordinate, cooperate, and compete. Each biochemical signal is a uniquely shaped molecule that must precisely match receptor sites on another organism in order to be recognized and interpreted.
8. The Influence of Plant Diversity
When plants from different botanical families grow together, their microbiomes benefit from the interaction, exchanging beneficial signals and even “lending” microbes to one another for protection against disease. Plants with different root structures occupy different soil layers, helping rather than competing with each other. This is the natural synergy built into living ecosystems.
Factors That Disrupt the Functioning of the Biome
1. Highly Concentrated Fertilizers and Toxic Agrochemicals
(Fungicides, insecticides, and similar chemicals.)
These substances suppress natural biological processes, destroy beneficial microorganisms, and make plants dependent on external chemical inputs.
2. Monocultures
Plants of the same species effectively “compete” with one another for resources, while their microbiomes send signals equivalent to “keep away,” ultimately leading to soil exhaustion.
3. Deep Mechanical Soil Cultivation
Deep tillage destroys mycorrhizal networks and disrupts the natural flow of carbon within the soil ecosystem.
In conclusion, it can be said that intensive agricultural technologies demonstrated their superiority during the industrialization of production. They created the illusion of abundance: thanks to them, we can walk into a store at any moment and purchase virtually any type of food. But at what cost?
The abundance of chemically grown fruits and vegetables on store shelves comes at the expense of destroying soil ecosystems, as well as the micro- and macroclimates of our planet.
According to the Yeomans Scale, humans can influence soil more easily and rapidly than climate itself; however, by altering the vital processes within the soil, we profoundly affect the climate as well. Today, we are witnessing the phenomenon of soil desiccation — drought — caused in part by disruptions in the soil’s natural water balance.
In healthy soil, with a fully functioning biological energy network, moisture is delivered to plants without requiring significant energy expenditure from the plants themselves, because soil microorganisms are invested in the plant’s well-being and create aggregates capable of retaining moisture.
However, when these processes are disrupted, when the biological channel is destroyed, when the connection between plant roots and the microbiome is severed, and when moisture-retention capacity falls to nearly zero, the plant is forced to sustain itself directly. To absorb mineral fertilizers, a plant requires many times more water than it would in healthy organic soil. As a result, far greater quantities of moisture are consumed, contributing to soil drying and desertification. Instead of directing energy toward growth and development, the plant spends most of its resources merely trying to feed itself.
Soil microorganisms capable of drawing moisture from the atmosphere also cease functioning under the influence of artificial nitrogen fertilizers. As a result, plants experience severe stress that accelerates wilting processes.
Heavy metal salts begin accumulating in the root zone, encouraging the development of pathogenic microflora. Plants become diseased, and in this weakened state, they release sugars that attract pests. Toxins accumulate in plant stems and in the soil itself, providing nourishment for weeds. Thus, one problem triggers another in an endless chain reaction.
According to Vriksha Ayurveda, this chain reaction is fundamentally a signal of imbalance within soil processes. These disturbances first begin affecting the microclimate and later the macroclimate, eventually producing anomalies that no longer correspond to the natural rhythms of the seasons.
Some people may think: “How does this concern me personally? Soil fertility and agriculture have nothing to do with me — I live in a city.”
But today, this concerns everyone, because the degradation of soils is one of the reasons why cricket, grasshopper, and larvae flour is gradually being introduced into the human diet as a new form of nutrition. Insects are being promoted as alternatives to plant and animal protein precisely because they are among the few life forms that do not depend on soil.
Yet insects are, in many respects, biological carriers of parasites. In their natural environment, they harbour enormous quantities of bacteria such as E. coli and Campylobacter, as well as viruses and complex parasites. Research indicates that even under industrial farming conditions, where insects are bred in densely packed colonies, they continue to carry pathogens potentially transmissible to humans.
To suppress the spread of parasites and bacteria on insect farms, producers are forced to use massive quantities of chemicals, pesticides, and antibiotics. Insects absorb these substances entirely, and the end result is a product literally saturated with toxins that cannot be completely removed.
In essence, this becomes a chemical cocktail on every plate, including resilient eggs and larvae, since thermal processing does not always guarantee the total destruction of every biological form. The risk of consuming partially surviving parasite eggs remains real, particularly given the microscopic nature of such contaminants and the difficulty of fully neutralizing them.
The replacement of traditional human nutrition is therefore presented not merely as a dietary issue, but as an attempt to erase the boundary between human beings and lower biological forms by imposing food fundamentally alien to human nature. Many experts view this as a form of spiritual suppression and the destruction of traditional ways of life.
For this reason, protecting the health and vitality of our soils is in the interest of every person.
We conclude this article with the same statement with which we began: Nature is a living ecosystem, and humanity must reconsider its relationship with it by directing its efforts toward preserving healthy soils and supporting the harmonious interaction between soil microbiota, plants, and cows.
Respectfully,
Vasily Vasilievich Lungu
Director of “Bhumi” Company (Minsk, Belarus)
Email: info@bhumi.by
Web:www.bhumi.by
Phone: +375298009064
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