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THE GREAT PLAN FOR THE TRANSFORMATION OF NATURE:
An Unaccepted Gift from Previous Generations or Unlearned Lessons

/Analytical Note/

One of the most pressing issues of our time is the preservation of Earth’s ecosystems, maintaining soil fertility, and ensuring the global population is adequately fed. These concerns are being raised at the highest levels of governance and international dialogue.

Land degradation worldwide is occurring at an alarming rate of 1 million square kilometers per year, according to The Guardian (make this a clickable link to the article), referencing the “Backing Away from the Abyss” study by the Potsdam Institute for Climate Impact Research.
Humanity has already lost more than half of its fertile lands, and unless the situation is fundamentally reversed within this decade, by 2050, agricultural activity in most regions of the planet will become unsustainable. The first regions to suffer will include South Asia, the Mediterranean, Northern China, high-altitude plateaus, and California in the United States. Currently, one-third of the global population resides in arid areas, including three-quarters of Africa.

 

Healthy soil contains 30–32 tons of living organisms per hectare, which are essential for nutrition, food quality, and soil fertility. Chemical treatments kill these lifeforms, impoverishing and degrading the soil, while significantly accelerating erosion. This is because, with the destruction of the soil biocenosis, there are no hyphae—microscopic fungal thread-like structures that bind the smallest soil particles into stable, long-term, water-resistant aggregates. Chemically degraded soils often contain as little as 2–3 tons of living biomass per hectare.

In 2021, the United Nations Assembly declared the Decade on Ecosystem Restoration (2021–2031), during which 115 countries committed to restoring degraded lands. By 2025, BRICS countries, in collaboration with newly affiliated nations, will develop a new action plan to advance cooperation in this critical area. Russia has its own unique historical experience in restoring land fertility, which it can offer to the global community as a solution to this critical and pressing issue.

Researchers have determined that the primary cause of this crisis is unsustainable agricultural practices, which have led to the destruction of 80% of forests. In the short term, the intensive use of chemicals and pesticides may appear more profitable, but in reality, these methods reduce yields and degrade food quality. Moreover, they increasingly contribute to desertification and dust storms.

The Great Plan for the Transformation of Nature: Objectives

The most ambitious environmental project of the 20th century was the plan for soil fertility protection and restoration, implemented in the Soviet Union by the decree of the Council of Ministers and the Central Committee of the All-Union Communist Party (Bolsheviks) on October 20, 1948. It was titled “The Plan for Protective Forest Plantations, Introduction of Grass-Field Crop Rotation Systems, and Construction of Ponds and Reservoirs to Ensure High and Stable Yields in the Steppe and Forest-Steppe Regions of the European Part of the USSR.”

Soviet media referred to this document as “The Great Plan for the Transformation of Nature” or “Stalin’s Plan for the Transformation of Nature.” In terms of its scale, the plan was unprecedented in global practice.

Under this plan, forest belts were to be planted to block dry winds and improve the climate across an area of 120 million hectares—equivalent to the combined territories of England, France, Italy, Belgium, and the Netherlands. The centerpiece of the plan was protective afforestation and irrigation. The project, designed for the period from 1949 to 1965, envisioned the creation of eight major state forest belts in steppe and forest-steppe zones with a total length exceeding 5,300 kilometers.

The impetus for developing such a plan was the severe drought of 1946–1947 in the USSR, which led to famine and tragic losses among the population amidst the extremely challenging post-war recovery period following the country’s victory over fascism.

The plan aimed to address several objectives:

  • Immediate-term objective: Restoration of the country’s economy following the devastation caused by German Nazism.
  • Mid-term objective: Raising the overall culture of land use to ensure long-term food security.
  • Long-term objective: Advancement of large-scale socio-technical systems through mastery of new environmental management technologies, enabling a civilizational leap for society.

History of Afforestation in Russia

The development of the plan incorporated valuable experience in protecting and restoring soil fertility accumulated since the times of the Russian Empire.

For the first time in global practice, a system of protective forest belts was developed and implemented in Russia thanks to the work of Russian scientists Vasily Vasilievich Dokuchaev1 and Pavel Andreevich Kostychev2 in the late 19th and early 20th centuries.

Following prolonged crop failures and the famine of 1889–1891 in Russia’s breadbasket, the Black Earth Region, the talented scientist V. V. Dokuchaev, later recognized as the founder of soil science, was sent from St. Petersburg to investigate. Upon arrival, he discovered that all the land had been plowed, farmers were sowing grain, and then a dry wind—a sandstorm—would blow away not only the sown seeds but also 10–15 centimeters of black soil.

  1. V. Dokuchaev identified the root cause of the problem. For a long time, fields around villages had been surrounded by forests, which prevented water and wind erosion. However, in an effort to expand arable land, forests were gradually cut down to such an extent that they vanished from sight on the fields. In the steppes, where there were no forests, erosion was prevented by the turf of steppe grasses. The destruction of forests and widespread plowing of steppes led to the emergence of dust storms that blew away the planet’s most valuable resource—fertile soil. This soil, eroded by wind and washed away by rain into rivers, ultimately ended up at the bottom of the world’s oceans.

In natural biocenoses, the creation of one centimeter of fertile soil takes between 100 to 300 years, depending on the climate and region. The loss of 10–15 centimeters of black soil due to wind or rain erosion essentially means that, in just one season, humans—through irrational or negligent practices—lose a layer of soil that took nature thousands of years to create. Moreover, nature created this soil not just for humans but for all the other inhabitants of our planet and many future generations of people.

Vasily Vasilievich Dokuchaev proposed a solution to this serious problem—the creation of a system of protective, anti-erosion forest belts.

[1. Vasily Vasilievich Dokuchaev (1846–1903) – geologist and soil scientist, professor of mineralogy and crystallography at St. Petersburg University, and director of the Novo-Olexandriya Institute of Agriculture and Forestry. He was the founder of the scientific school of soil science and soil geography.

  1. Pavel Andreevich Kostychev (1845–1895) – Russian professor, agrochemist, soil scientist, microbiologist, and geobotanist, and one of the founders of agronomic soil science.]

He experimented with the width of forest shelterbelts, ranging from a single tree to a belt one kilometer wide, at the experimental farm “Stone Steppe,” which recently celebrated its 130th anniversary. It was there that Dokuchaev developed a universal formula for sustainable agriculture, which increases yields by at least 30–40%.

Dokuchaev’s universal formula for sustainable agriculture includes3:

  • 15–20% forest shelterbelts: Shelterbelts play a crucial role in soil protection, reducing wind erosion, and creating favorable conditions for crop growth.
  • 10% water bodies: Water bodies support biodiversity, regulate the microclimate, and serve as water sources for agricultural needs.
  • 10% infrastructure: Infrastructure is essential for efficient farm management, transportation of products, and resource access.
  • The remainder for crop rotation: Crop rotation, along with conservation tillage and cover crop systems, helps maintain soil fertility and prevents degradation.

“Desiccation of the steppe,” wrote V. V. Dokuchaev, “is largely associated with human activity, which has destroyed natural vegetation, plowed vast areas of the steppe, and significantly undermined the resilience of steppe landscapes to erosion processes. A vast part of the steppe has lost its natural cover—thick, native vegetation and turf that usually retain snow and water and protect the soil from frost and wind. Fields, now occupying up to 90% of the total area, have destroyed the granular soil structure characteristic of chernozem, the most favorable for retaining soil moisture, rendering it vulnerable to wind and water erosion4.”

In his work “Our Steppes: Then and Now” (Nashi stepi prezhde i teper’)”, V. V. Dokuchaev wrote: “A researcher must see the entire, indivisible nature, not just its individual parts, between which there exists the closest connection5.”

[3. V. V. Dokuchaev, “Russian Chernozems (Russkie chernozemy)” (1883) -a foundational work where Dokuchaev describes soil properties and their connection to agronomy.
O. Kotlyarova, “Sustainable Agriculture: Problems and Solutions (Ustoichivoe selskoe khozyaistvo: Problemy i resheniya)” -a study examining modern approaches to agronomy and confirming the results of Dokuchaev’s experiments.

  1. To reduce the strain on soil, V. V. Dokuchaev’s colleague and contemporary Ivan Yevgenyevich Ovsinsky developed a system of gentle and zero-tillage soil cultivation, now known as the no-till system. Ovsinsky never plowed deeper than 5 centimeters. The main advantage of his system was its exceptional resilience to both droughts and waterlogging. Whenever neighboring fields suffered from crop failure or poor germination, Ovsinsky would harvest excellent yields, twice as high as the best yields of that time. In 1899, he published a book titled “A New Farming System” (Novaya sistema zemledeliya), which revolutionized agricultural thought and was republished four times in Russia over ten years. In this book, he thoroughly explained the principles and provided evidence that a gentle approach to soil is less aggressive towards nature, less labor-intensive, and ultimately more productive than the intensive farming system based on deep plowing and the use of chemical fertilizers.
  2. Dokuchaev, V. V. “Our Steppes: Then and Now” (Nashi stepi prezhde i teper’) -Moscow: Selkhozgiz, 1953. -152 pages.]

According to the plan developed by V. V. Dokuchaev and P. A. Kostychev, from 1898 to 1917, 11 protective forest belts, 170 gully-planting sites, and 52 sand-fixing plantations were created in Russia.

The implementation of this plan was accompanied by active informational support in the cultural sphere: for instance, the renowned writer and playwright Anton Pavlovich Chekhov included passionate monologues advocating for forest protection in the speeches of the main characters in his plays "The Wood Demon" (Leshiy) and "Uncle Vanya" (Dyadya Vanya).

 

Unfortunately, due to the socialist revolution in Russia in 1917, this plan was not fully realized.

In the Soviet era, the beginning of protective forest planting dates back to 1918, when the “Basic Law on Forests” (Osnovnoy zakon o lesakh) was adopted on May 27, introducing forest belt planting as part of planned reforestation measures. More detailed instructions were provided in the Decree of the Council of Labor and Defense on Combating Drought (Postanovlenie Soveta truda i oborony o bor’be s zasukhoy) of April 1921, which included measures to strengthen gullies and sands through protective forest plantations in the Samara, Saratov, Tsaritsyn, Astrakhan, and Tula provinces, as well as in the Don Region.

The second phase of steppe afforestation in the USSR is associated with the results of the All-Union Conference on Combating Drought (Vsesoyuznaya konferentsiya po bor’be s zasukhoy) in 1931, where a decision was made to plant 3 million hectares of forest, primarily in the Transvolga region.

The Great Patriotic War interrupted the development of steppe afforestation in the country. However, the severe droughts of 1946 and 1947 demonstrated that grain yields on experimental plots protected by forest belts were 3–4 times higher than on neighboring lands and reached 6–17 quintals per hectare even under drought conditions. In a situation where famine caused by crop failures during the drought claimed the lives of over 1.5 million people in a nation already exhausted from the war against Nazism, this was a compelling argument for reviving the project initiated by V. V. Dokuchaev

From this point onward, combating drought through afforestation became one of the key focuses of the Ministry of Forestry of the USSR.

The drought-affected zone of 1946–1947 covered 5 million square kilometers (more than 20% of the USSR’s territory) in the European part of the country, stretching between latitudes 55°N in the north to 35°N in the south, and including Ukraine, Moldova, the Lower Volga Region, the North Caucasus, and the Central Black Earth Region of the RSFSR.

Thus, 1948 marked the third period in the development of steppe afforestation in Russia. Scientific, comprehensive restoration and protection of nature continued on a new, much larger scale.

As part of this project, scientific methods were proposed for managing nature, reflecting the ideology of a scientific approach to economic development.

At that time, the steppe regions of the Soviet Union were periodically struck by so-called “black storms.” These storms typically occurred in early spring during dry weather on lands devoid of vegetation, particularly on recently plowed virgin soil.

In these conditions, I. V. Stalin revisited the project of comprehensive agroforestry reclamation in the steppe zone, an idea he had initially proposed back in 1924. According to this pre-war proposal, efforts were to begin with a “minimally necessary reclamation wedge along the Samara—Saratov—Tsaritsyn—Astrakhan—Stavropol zone.”

Project Scale: Division into Eight Central Elements

The scale of Stalin’s project remains striking even today.
The perpetual challenges of agriculture—soil erosion and drought—rendered vast territories unproductive. Addressing these issues was the project’s main goal.

The central element of the plan was the creation of eight major state protective forest belts (SPFBs) in the first phase, with a total length of 5,320 kilometers (later revised and extended to 5,674 kilometers in 1951):

  1. SPFB Vishnevaya Mountain—Caspian Sea: The widest belt, initially planned to stretch 1,080 kilometers (later reduced to 675 kilometers), running along the Ural River with three strips on each side, spanning from Orsk through Chkalov, Uralsk, to the Caspian Sea coast.
  2. SPFB Voronezh—Rostov-on-Don: A 920-kilometer belt (extended to 1,055 kilometers) along both banks of the Don River, stretching from Voronezh to Rostov.
  3. SPFB Saratov—Astrakhan: A 900-kilometer belt (extended to 1,081 kilometers) along both banks of the Volga River, running from Saratov through Nizhny Bannovka, Kamyshin, Stalingrad, to Astrakhan.
  4. SPFB Penza—Kamensk: A 600-kilometer belt (extended to 733 kilometers) along the watersheds of the Khopra and Medveditsa Rivers, and Kalitva and Berezovaya Rivers, stretching from Penza through Yekaterinovka, Vyoshenskaya, to Kamensk on the Seversky Donets River.
  5. SPFB Chapayevsk—Vladimirovka: A 580-kilometer belt (reduced to 425.6 kilometers) along the left bank of the Volga River, through the Syrt region of the Trans-Volga area to the Caspian lowlands, stretching from Chapayevsk through Ershov to Vladimirovka.
  6. SPFB Stalingrad—Cherkessk: A 570-kilometer belt (extended to 582 kilometers) along the right bank of the Volga River, passing through the Yergeni uplands and the Primanich lowlands, stretching from Stalingrad through Stepnoy to Cherkessk.
  7. SPFB Belgorod—Don: A 500-kilometer belt (extended to 518 kilometers) along both banks of the Seversky Donets River, stretching from Belgorod through Lisichansk, Voroshilovgrad, to Ust-Donetsk.
  8. SPFB Kamyshin—Stalingrad: A 170-kilometer belt (extended to 250 kilometers) along the watershed of the Volga and Ilovlya Rivers (right bank), stretching from Kamyshin to Stalingrad.

According to the plan, each forest belt was to consist of several smaller belts or “strips” (usually 2–4 strips), each 60 meters wide, with 300 meters between them. Over time, the number of “strips” was increased.

Furthermore, the decree mandated the Ministry of Forestry of the USSR to take measures to preserve valuable forested areas in the steppe and forest-steppe regions of the European part of the USSR, including Shipov Forest, Khrenovsky Pinewood, Borisoglebsky Forest Massif, Tula Zaseki, Shatilovsky Forest, Black Forest, Veliko-Anadol Forest Massif, Buzuluk Pinewood, Lenin and Manych Forestry Areas in the Rostov Region, watershed forest massifs of the Kuybyshev and Ulyanovsk Regions, Boyarskaya Dacha, Feodosia Forestry, Beshtaugorsky Forest Massif, and others.

“The implementation of all these measures will be a remarkable example of scientific afforestation of the steppes, unprecedented in human history,” noted one of the plan’s most active participants, Academician L. I. Prasolov.

The plan was based on “centralized planning,” meaning that all economic decisions were made at the state level. Gosplan developed detailed production and resource allocation plans, enabling control over the economy and steering it in the desired direction. This approach facilitated more efficient resource use and accelerated economic growth.

Scientific Justification for Transforming Nature

The idea of transforming nature originates from philosophical and scientific concepts developed in Russia and abroad at the beginning of the 20th century. Amid post-war devastation and the urgent need to intensify agricultural production, the country’s leadership recognized the necessity of mitigating adverse natural impacts. Stalin wrote: “…people, understanding the laws of nature, considering them, relying on them, skillfully applying and utilizing them, can redirect nature’s destructive forces and turn them to society’s benefit…”

The large-scale plan to transform nature required active involvement from various scientific fields that provided the theoretical and practical foundations for its implementation. Key areas engaged during this period included reclamation, agronomy, forestry, soil science, plant breeding, seed production, and ecosystem research.

The scientific foundation for steppe and forest-steppe afforestation for protective, anti-erosion, and reclamation purposes was established by prominent Russian and Soviet scientists of the 19th century, including Vasily Vasilyevich Dokuchaev, Pavel Andreyevich Kostychev, Alexander Alexandrovich Izmailsky, Alexander Alexandrovich Williams, Nikolai Grigoryevich Vysotsky, Georgy Karlovich Gael, Nikolai Mikhailovich Sukachev, Ivan Vladimirovich Michurin, Nikolai Ivanovich Vavilov, and many others.

For over 20 years, the project was carried out under the guidance of the USSR Academy of Sciences. It involved researchers from more than ten academic institutions under the academy, Moscow and Leningrad Universities, five departmental research institutes, and ten specialized forestry and agricultural educational institutions in Moscow, Leningrad, Saratov, Voronezh, Kyiv, and Novocherkassk. Even the hardships and deprivations endured during the Great Patriotic War did not halt this intensive work.

The implementation of the plan utilized the grassland crop rotation system developed by Soviet scientists Vasily Vasilyevich Dokuchaev, Pavel Andreyevich Kostychev, and Vasily Robertovich Williams. The essence of this system was as follows:

After harvest, the “exhausted” field was sown with cover crops, such as perennial legumes and bluegrasses. These crops enriched the soil with essential nutrients and served as a fodder base for livestock. After a few seasons, the “rested” field was cultivated again with agricultural crops for food production. This system effectively closed the natural cycle of biosphere regulation for soil fertility.

Practical Steps for Implementing the Plan

The Plan for the Transformation of Nature incorporated findings from twenty years of research conducted in the Astrakhan semi-desert. In 1928, scientists and foresters planted the first hectares of young trees in what was essentially barren terrain. With proper care, the trees thrived.

In the open steppe, temperatures could soar to 53 degrees Celsius, while in the shade of the trees, it was 20% cooler, and soil evaporation decreased by the same percentage. Observations revealed that a 7.5-meter-tall pine tree could accumulate 106 kilograms of frost and hoarfrost over the winter. This finding indicated that even a small grove could “extract” several dozen tons of moisture from the atmospheric air.

  • To execute the Great Plan for the Transformation of Nature, workers at forestry enterprises harvested 6,000 tons of tree and shrub seeds.
  • Scientists developed specific compositions for forest belts, which included trees such as linden, ash, oak, Tatar maple, and yellow acacia, among others. To attract birds to these belts, raspberries and currants were also planned for planting.
  • Specialized machinery for simultaneous seven-row tree planting was designed specifically for this project

According to the plan established by the specially created “Agrolesproject” Institute, forests were planted across four major watersheds of the Dnieper, Don, Volga, and Ural basins in southern European Russia. Simultaneously, measures were taken to preserve particularly valuable forest areas, including Shipov Forest, Khrenovsky Bor, Borisoglebsky Forest Massif, Tula Fortification Forests, Black Forest in Kherson Region, Veliko-Anadol Forest, and Buzuluksky Bor. Forests and parks destroyed during the war were also being restored.

In parallel, the country conducted active educational campaigns, publishing a significant volume of informational materials.

The cultural sphere was also actively involved. Stories and songs were composed about the “Great Plan for the Transformation of Nature.” Renowned poet Yevgeny Dolmatovsky, known for his lyrics to many famous songs, collaborated with prominent composer Dmitry Shostakovich to create a multi-act opera titled “The Song of the Forests.”

In the early 1950s, its lyrics echoed from every radio receiver:

A call resounds across the land,

The wind bears voices far and near:

We’ll wage a war on drought, we stand,

And clothe our homeland lush and clear,

And clothe our homeland lush and clear!

Projects Initiated by I. V. Stalin to Improve Agriculture

In modern publications, the “Great Plan for the Transformation of Nature” is often associated solely with protective forest belts. However, this is far from the full picture. In addition to implementing V. V. Dokuchaev’s ideas for creating forest protection belts, this plan encompassed a wide variety of projects aimed at transforming the natural environment and expanding agricultural areas through wetland drainage and other reclamation efforts (some of which were not entirely successful and, in certain regions, led to adverse ecological consequences due to a lack of regional specificity—this later became a point of criticism of the entire plan).

Here is a more detailed list of these projects, including the “garden city” concept:

  • Virgin Land Development Project:
  • Development of virgin and fallow lands in Kazakhstan and Siberia to increase agricultural production.
  • Irrigation Projects:
  • Creation of irrigation systems in Central Asia (Uzbekistan, Tajikistan, Turkmenistan) to boost the yield of cotton and other crops.
  • Reforestation and Logging:
  • Reforestation efforts in Siberia and the Far East, increasing logging volumes, and creating new forested areas.
  • Agricultural Development in Siberia:
  • Intensification of agriculture, advancement of new technologies, and mechanization of processes.
  • Garden Cities:
  • The “garden city” concept aimed at creating well-developed cities with green spaces, gardens, and parks. Examples include:
  • Garden Cities: Projects to create cities that integrate nature and agriculture, allowing residents to engage in gardening and farming.
  • Development of dacha cooperatives and gardening associations.
  • Alexander Evgenievich Usanin – General Director of the NGO “Renaissance of the Earth”,
  • Andrey Vladimirovich Stetsenko – President of the Center for Environmental Innovation, Candidate of Economic Sciences,
  • Evgeny Lvovich Lebedev is a State Adviser of the Russian Federation, 2nd class, former Head of the Federal Service for Supervision of Natural Resources in the Penza Region.
    • Siberia
    • Virgin Lands Project: Improvement of pastures and expansion of arable land.
    • Reservoir Construction: For irrigation and development of new agricultural lands.
    • Kazakhstan
    • Virgin Lands Development: Reclamation of virgin and fallow lands, particularly in northern Kazakhstan.
    • Irrigation Projects: Establishment of irrigation systems to boost crop yields.
    • Central Asia
    • Tajikistan, Uzbekistan, Turkmenistan: Development of cotton farming and creation of new irrigated lands.
    • Construction of Dams and Canals: To manage water resources effectively.
    • Far East
    • Agricultural Development: Expansion of crop areas, focusing on soybeans and rice cultivation.
    • Timber Harvesting: Intensification of forestry activities.
    • Western Siberia
    • Oil and Gas Projects: Exploitation of abundant oil and gas reserves to fuel industrialization.
    • New Town Construction: To attract labor and build infrastructure.
    • North Caucasus
    • Vineyard Cultivation: Development of viticulture and horticulture.
    • Agro-Ecological Projects: Promotion of sustainable agriculture in mountainous areas.
    • Northern Regions
    • Tundra Development Issues: Research and experimentation in Arctic agricultural conditions.
    • Fishing Industry Development: Expansion of fish catch and enhancement of fisheries.
    • Central Russia
    • Agricultural Intensification: Mechanization and adoption of advanced technologies.
    • Forestry Projects: Restoration and conservation of forests, alongside increased timber harvesting.
    • Baltic States
    • Agro-Industrial Complexes: Development of agriculture and processing industries.
    • Arctic Regions
    • Resource Exploration and Development: Extraction of hydrocarbons and minerals.

    Key Directions of the Projects:

    • Irrigation: Development of new irrigation systems to expand agricultural land.
    • Reforestation: Increase in forested areas, combatting soil erosion.
    • Industrialization: Construction of factories for agricultural product processing and specialized machinery production.

    Main Achievements and Outcomes of the Incomplete Stalin Plan Summarized in Figures:

    • Land Reclamation (Melioration):
    • Approximately 14 million hectares of land were reclaimed from 1948 to 1960, according to various sources.
    • More than 1,200 reclamation facilities, including dams, canals, and reservoirs, were constructed.
    • Reforestation:
    • Over 20 million hectares of forests were planted under the plan, significantly increasing the forest cover in the country.
    • Forest conservation measures reduced deforestation rates by 30–40% in some regions compared to pre-war levels.
    • Selection and Acclimatization:
    • New varieties of grains (wheat, rice, etc.) were introduced, increasing yields by 30–50% in some areas.
    • Efforts focused on acclimatization and expanding areas for high-yield crops, such as rice in the Krasnodar Krai and Central Asia.
    • Increased Agricultural Production:
    • By the mid-1950s, average crop yields in the USSR had risen. For instance, average wheat yield increased from 8.6 quintals per hectare in 1945 to 12.5 quintals in 1959.
    • Grain yields grew by 25–30%, vegetables by 50–75%, and forage crops by 100–200% due to the plan’s execution.
    • By the 1950s, the total volume of agricultural production had increased by nearly 55% compared to 1940–1945, marking one of the most significant achievements in agriculture.

    Positive Outcomes of the Successful Implementation of Stalin’s Plan

    • Land Reclamation in the Volga-Caspian Region

    • Regions: Volga-Caspian area, including the Republic of Tatarstan and Volgograd.
    • Results (1949–1953): Large-scale reclamation and drainage of waterlogged lands resulted in over 1.5 million hectares of previously unsuitable land being integrated into agricultural use. Improved soil conditions and increased arable area boosted crop yields for corn and wheat.
    • Irrigation System in Central Asia

    • Regions: Uzbekistan, Tajikistan, and Kazakhstan.
    • Results (1949–1953): Irrigation covered more than 1.5 million hectares of land, enhancing agricultural conditions in arid areas. The establishment of reclamation systems such as the Olemja and Turkestan canals restored soil fertility and stabilized grain harvests, preventing land degradation.
    • Extensive Reforestation Projects

    • Regions: Central Russia, including Voronezh, Lipetsk, and Saratov regions.
    • Results (1949–1953): Over 20 million hectares of forests were planted, halting soil erosion processes and improving regional climatic conditions. Shelterbelts protected fields, preventing desertification and aiding soil moisture retention.
    • Implementation of Grassland Crop Rotation Systems

    • Regions: Krasnodar and Stavropol Krais.
    • Results (1949–1953): Grassland systems increased organic matter in soil and improved agronomic performance. Rational use of perennial grasses boosted crop yields by 25–30%, improving soil health and reducing degradation.
    • Land Reclamation and Restoration of Degraded Lands

    • Regions: Chernozem zones of Ukraine, including Donetsk and Luhansk regions.
    • Results (1949–1953): Reclamation efforts restored over 3 million hectares of previously unsuitable land. Rehabilitated lands were reintroduced into agriculture, significantly increasing productivity.
    • Experiments and Scientific Research

    • Institutions: Agricultural and reclamation institutes in Tula and Astrakhan regions.
    • Results (1949–1953): Research and experiments introduced new agronomic technologies, including minimal soil tillage and rotational systems. These advancements enhanced soil structure and resilience against drought.
    • Drainage Systems in Nazaryevo

    • Region: Nazaryevo, Republic of Belarus.
    • Results (1949–1953): Construction of one of Belarus’s first drainage systems improved soil structure on over 50,000 hectares of previously waterlogged land. This development transformed unusable areas into productive agricultural fields.

    Negative Environmental Impacts

    While Stalin’s plan achieved notable advancements in agriculture and land reclamation, it also resulted in significant environmental drawbacks. Below are the primary critics of the plan from the USSR and modern Russia, along with their key arguments:

    Critics in the USSR

    • Academician T. D. Lysenko

    • Criticized the plan as unfeasible due to insufficient scientific and technical knowledge.
    • Advocated for more gradual and cautious modifications of nature.
    • Academician N. I. Vavilov (Geneticist, Botanist, Breeder)

    • Expressed skepticism about the plan’s scale, highlighting economic and ecological risks.
    • Called for comprehensive preliminary studies of local ecosystems before extrapolating successful regional results to other areas.
    • Professor K. A. Timiryazev (Naturalist, Plant Physiology Expert)
    • Deemed the plan unrealistic and contradictory to natural laws.
    • Warned of the dangers of radical environmental transformations.

    Critics in Modern Russia

    • Academician D. M. Gvishiani (Founder of the Institute of Systems Analysis, Russian Academy of Sciences)

    • Pointed out the technological backwardness and lack of resources at the time for implementing such a large-scale project.
    • Doctor of Geographical Sciences A. G. Isachenko

    • Argued that the plan was based on erroneous assumptions about the capacity to control nature, leading to enormous costs and damages.
    • Doctor of Physical and Mathematical Sciences S. P. Gorshkov and Doctor of Geographical Sciences A. D. Armand

    • Criticized the plan for subordinating nature to economic needs, which caused negative impacts on various ecosystems.

    Environmental Issues Identified During the Implementation of Stalin’s Plan

    • Drainage of Wetlands and Changes in Water Regime

    • Regions: Volga-Akhtuba Floodplain (Steppe Regions of Russia), Republic of Kalmykia, Astrakhan Region.
    • Consequences (1950s):
      • Large-scale drainage of wetlands disrupted natural water regimes.
      • Deterioration of water quality in rivers.
      • Loss of habitats for fish and wildlife.
      • Increased soil erosion due to altered hydrological conditions.
    • Ecosystem Alterations and Soil Degradation

    • Regions: Humid forests (Siberia), including Buryatia and Transbaikalia.
    • Consequences (1940s–1950s):
      • Unsustainable agronomic practices (e.g., unbalanced land-use techniques and deforestation) led to forest degradation.
      • Soil quality deteriorated, disrupting ecosystems and reducing biodiversity.
    • Increased Soil Salinization

    • Regions: Kazakhstan, particularly Kustanay Region.
    • Consequences (1950s):
      • Overuse of irrigation without proper reclamation measures raised groundwater levels.
      • Increased soil salinity significantly reduced arable land.
    • Lowering of Groundwater Levels

    • Regions: Syrdarya Project (Uzbekistan).
    • Consequences (1940s–1960s):
      • Reclamation and irrigation projects caused a dramatic drop in groundwater levels.
      • Negative impact on local flora and fauna, leading to habitat loss for freshwater-dependent species.
    • Loss of Biodiversity

    • Regions: Chernozem Region, Central Russia (Voronezh, Lipetsk, and Belgorod regions).
    • Consequences (1950s–1970s):
      • Intensive plowing and aggressive land cultivation methods destroyed natural habitats.
      • Significant decline in biodiversity, particularly unique species of flora and fauna.
    • Increased Desertification Risk

    • Regions: Chuy Valley (Kyrgyzstan).
    • Consequences (1950s–1960s):
      • Inefficient irrigation methods and overuse of agricultural lands led to desertification.
      • Similar trends observed in other Central Asian steppe zones.

    Results

    The Great Plan for the Transformation of Nature represented a comprehensive approach to improving soil conditions, implementing land reclamation, and advancing agronomic practices. This ambitious initiative allowed many regions of the Soviet Union to improve soil quality significantly, combat degradation, and address soil desiccation effectively.

    However, its execution required constant monitoring and careful consideration of ecological consequences to avoid negative outcomes stemming from human intervention in natural systems.

    Today, we grapple with the consequences of many valuable ideas and initiatives embedded in this monumental project that were left unrealized.

    Ambivalent Outcomes

    The results of the plan’s implementation were mixed.

    • Achievements: The scientific basis of the plan allowed for some notable successes, including soil protection, increased agricultural productivity, and improved water management.
    • Challenges: The large-scale reclamation projects and drainage of wetlands, although grounded in scientific principles, often ignored the unique climatic and soil conditions of specific regions. This oversight led to unintended consequences such as soil quality deterioration and loss of biodiversity.

    Need for a Tailored Approach

    The plan highlighted the importance of a careful scientific assessment of local climatic and soil conditions. Practice demonstrated that universal solutions were ineffective across diverse landscapes and climatic zones. Applying identical measures that succeeded in one region often resulted in adverse effects elsewhere.

    For example:

    • Positive Impact: The drainage of wetlands in Abkhazia and Belarus turned previously uncultivated areas into fertile agricultural lands.
    • Negative Impact: In other regions, large-scale reclamation projects led to soil degradation and loss of biodiversity. Furthermore, some areas faced water shortages due to the disruption of natural hydrological balances caused by wetland drainage.

    The Great Plan for the Transformation of Nature stands as a lesson in the complexity of balancing large-scale environmental interventions with ecological and regional considerations. It underscores the necessity for localized solutions, meticulous planning, and ongoing monitoring to ensure sustainable outcomes.

     

     

     

    Lessons on Local Conditions Essential for Plan Implementation

    The neglect of local conditions during the execution of Stalin’s Plan for the Transformation of Nature led to negative consequences for several key reasons:

    • Climatic Specifics

    • Different regions possess unique climatic conditions that significantly impact agricultural practices. Uniform solutions applied across various areas often failed to account for factors such as precipitation levels, temperature variations, and seasonal fluctuations, reducing the effectiveness of implemented measures.
    • Soil Characteristics

    • Soils vary in composition, structure, and fertility. Employing identical agronomic methods without considering the specific properties and condition of soils in each region frequently resulted in soil degradation.
    • Ecosystem Interactions

    • Local ecosystems are composed of intricate relationships among plants, animals, and microorganisms. Interventions such as wetland drainage or large-scale reforestation disrupted these interactions, causing biodiversity loss and ecosystem health deterioration.
    • Social and Economic Factors

    • Local communities often rely on traditional agricultural methods better suited to specific regional conditions. Disregarding these practices could lead to resistance from the population and reduced efficiency in adopting new approaches.
    • Adaptation Needs

    • Sustainable agriculture demands adaptability to changing conditions. Ignoring local factors impeded the ability to respond to natural and social changes, potentially causing inefficiency or harm.

    Conclusion

    A comprehensive approach that integrates local climatic, soil, ecological, and socio-economic conditions is vital for achieving sustainable outcomes in agriculture and ecology. Tailoring interventions to regional specifics ensures better long-term results and minimizes unintended environmental and social consequences.

     

     

    Curtailment and Consequences of the Stalin Plan

    By 1952, the system was largely established and operational. Unfortunately, Stalin’s plan for the greening of the USSR was not fully implemented. The quality of agricultural lands protected by shelterbelts significantly improved: erosion decreased, the water balance stabilized, and crop yields increased as a result. Overall, the implemented measures led to the following average increases in yields:

  •  

    • Grain crops: 18–23%
    • Industrial crops: 20–26%
    • Forage crops: 29–41%

    Variability of Results

    Results varied significantly across different areas, as the effectiveness of shelterbelts depends on:

    • The age of the plantations (typically no younger than 3–5 years).
    • The species composition of trees and shrubs used.
    • Planting methods and the structure of the shelterbelts (e.g., permeable, semi-permeable, dense).
    • Local physical and geographical conditions, soil types, and properties.

    Complementary Measures

    Creating shelterbelts alone does not yield the expected results unless accompanied by other forestry and agronomic measures such as:

    • Soil plowing around shelterbelts and their maintenance.
    • Conservation tillage, cover crops, stubble retention, crop rotation, and subsoiling.

    Achievements of the Plan

    The Great Plan for the Transformation of Nature made substantial improvements to the country’s agricultural situation, providing a safety cushion that continues to have residual effects today.

    The plan’s strength lay in its unified vision, comprehensive approach, and scale. It ensured not only food self-sufficiency for the Soviet Union but also the potential for increasing revenue from grain exports. Moreover, the shelterbelt system was designed to enrich the USSR’s flora and fauna.

    Environmental and Agricultural Benefits

    Shelterbelts offer several strategic benefits:

    • Reducing soil erosion and preventing dust storms.
    • Serving as corridors for migrating animals and habitats for birds and insects.
    • Supporting pollination, which plays a critical role in yield improvement.

    This multi-faceted utility underscores shelterbelts as a strategic element in ensuring food security.

    No-till Farming

    In addition to shelterbelts, no-till farming emerged as an excellent method for preventing soil erosion. This practice, developed in Russia in the 1930s, became globally recognized under the term No-till. It involves conservation tillage methods, leaving stubble on the surface, and has gained increasing popularity among farmers worldwide due to its proven effectiveness in maintaining soil health. (ссылка на  статью)

    Within the framework of the Great Plan for the Transformation of Nature, forest belts were established across an average of 2% of agricultural lands. In some regions, like Voronezh Oblast, this coverage reached 3.4%, though significantly below the recommended 15–20% proposed by V. V. Dokuchaev for sustainable agricultural practices. Forest belts were intended to combat drought, leveraging the biotic pump mechanism, whereby forests attract rainfall and stimulate the emergence of natural springs (ссылка на статью).

    Timeline and Curtailment of the Plan

    The original timeline of the project spanned 16 years (1949–1965). However, after Stalin’s death in 1953, the project lost political support and was terminated by 1955. Decisions by L. Beria, G. Malenkov, and especially N. Khrushchev led to the dismantling of this major ecological initiative. Khrushchev’s reforms ultimately halted the world’s largest ecological program before its completion.

    Key Events in Project Termination

    • April 1953: The Soviet Council of Ministers issued Decree No. 1144, suspending all protective afforestation efforts.
    • Censorship: The Main Directorate for Literature and Publishing (Glavlit) removed all publications about the plan from circulation.
    • Operational Impact:
      • Closure of forest protection stations.
      • Elimination of positions for agro-reclamation specialists.
      • Removal of artificial forest planting goals from organizational reporting.
      • Transfer of forest belts to collective and state farms.
    • Destruction of Resources:
      • Many forest belts were cut down.
      • Thousands of ponds and reservoirs were abandoned.
      • 570 forest protection stations were shut down.

    These measures not only halted the plan’s progress but also reversed many of its early gains, undermining efforts to combat drought and soil erosion effectively.

    The crop rotation system in agriculture was subjected to ridicule and eventually abandoned. At the Timiryazev Agricultural Academy, the leading agricultural institution in the country, an agrochemical development approach began to take root, despite strong resistance from crop rotation advocates. These experts strongly recommended continuing practices like crop rotation, leaving land fallow, and using green manure, such as natural herbal fertilizers (special mowing techniques). However, Khrushchev, the new head of state, adopted Western agricultural approaches, where the agrochemical method prevailed due to lobbying efforts by chemical corporations interested in promoting fertilizers.

    Thus, in the USSR, the crop rotation system was replaced with numerous contradictory recommendations aimed at improving soil fertility, primarily involving artificial fertilizers and pesticides. As a result, vast sums were spent on building chemical plants, transporting, and applying these chemicals.

    Simultaneously, during the March Plenum of the CPSU Central Committee in 1954, a decision was made to expand arable land by developing virgin and fallow lands. All available resources were directed toward the project, resulting in 42 million hectares being cultivated. However, due to fundamentally flawed agricultural policies, the soil began to suffer from erosion after initial high yields, and by the early 1960s, the land could no longer provide expected returns. The consequences were dire—many of the virgin black soil lands were transformed into saline soils. Water bodies became contaminated, beneficial birds, animals, and insects perished, and cancer rates among humans increased.

    One of the outcomes of abandoning Stalin’s plan and implementing extensive methods to increase arable land by plowing virgin soils without first protecting them with shelterbelts was an ecological disaster in 1962–1963. Soil erosion on virgin lands led to a food crisis in the USSR. In 1963, following poor harvests and the absence of reserves, the USSR, for the first time since the war, sold 600 tons of gold reserves to purchase approximately 13 million tons of grain from abroad.

    Over time, the emphasis on Stalin’s “political mistakes” overshadowed this grand program, which is now partially implemented in the USA, China, and Western Europe through the creation of green frameworks. These frameworks play a significant role in preventing soil degradation.

    Modern Russian history often recalls the destruction of vineyards6 under Gorbachev in the final years of the USSR. However, the loss of hundreds of thousands of hectares of forest in the 1960s and the degradation of fertile lands on an even larger scale is seldom mentioned.

    [6.As part of the temperance policy, wine grape varieties were cut down to make way for the planting of table grape varieties.]

    On the 1887 soil map of Voronezh, created by V. V. Dokuchaev, extensive zones with a 13% humus content were marked. Today, such soils no longer exist anywhere. Soils with 10–12% humus content have also disappeared. In Russia, only rare patches of land with 8–10% organic content can still be found. Meanwhile, the total area of depleted chernozem soils, with a humus content of 2–4%, has quadrupled, and such soils are comparable in fertility to podzolic ones.

    In 1900, V. V. Dokuchaev brought a chernozem profile 8 meters thick, excavated in the Voronezh region, to the Paris exhibition. Unfortunately, chernozem with such depth can no longer be found in Russia. The maximum thickness of chernozem in Russia today is 2 meters, while in most regions, it does not exceed 0.7 meters. Over the past century, more than 6 meters of fertile soil have been eroded and washed into the World Ocean. This raises a serious and natural question: how many years will it take for the remaining 2 meters of fertile soil to erode? And behind this question looms another: what will we feed our children, grandchildren, and descendants with when the entire fertile layer is gone?

    In southern Russia, the most agriculturally productive areas are experiencing an increase in dust storms, soil salinization, and desertification. Farmers report widespread soil depletion and exhaustion. Agricultural lands are turning into sand dunes, while the Kizlyar pastures are transitioning into desert due to overgrazing.

    The work under Stalin’s Great Plan for the Transformation of Nature formally ended in the 1960s, although many activities continued by inertia afterward. Efforts to revive Central Russia’s agriculture were resumed only during Brezhnev’s era. Although the project was terminated, forestry enterprises continued planting seedlings until the 1980s, covering 30,000 hectares annually. However, the number of trees planted steadily decreased. By 2007, forest shelterbelt renewal had fallen to just 0.3 thousand hectares. Today, satellite images reveal that, in some places, shelterbelts have disappeared entirely, although environmentalists continue to stress their importance. Additionally, due to mismanagement, forest plantations have been subjected to deforestation. Forest restoration is steadily declining, while the area affected by forest fires continues to grow, with more forest being destroyed than restored. The long-term consequences of this trend need no elaboration.

    Modern History of Russia

    “Until 2006, forest belts were part of the Ministry of Agriculture’s structure, but they were subsequently stripped of their status and effectively abolished. Having become unclaimed, forest belts began to be actively cut down for cottage construction or timber extraction,” wrote M. B. Voitsekhovsky, General Director of the Rosgiproles Institute.

    Today, the plan for transforming nature has turned into a plan for extracting profit from it, even at the cost of turning it into a lifeless desert. Instead of “garden cities,” the current trajectory leans toward Zinoviev’s “human anthills.”

    The current situation is vividly reflected in every agricultural region of Russia. Altai Krai, one of the country’s leading agricultural regions and Siberia’s breadbasket, had 140,000 hectares (2% of all agricultural land) of forest belts planted during the Soviet period. In 2011, an inventory revealed that only about 70,000 hectares (1%) remained. Half of the plantations had disappeared.

    The Stalinist Plan for the Transformation of Nature, launched in 1949, was implemented for less than six of its intended 16 years and remained incomplete. However, its results continue to mitigate many negative factors to this day. Despite gradual degradation, the remaining forest belts still serve snow retention and other ecological functions. The remaining ponds are successfully utilized, leased to effective managers for fish farming and paid recreational fishing.

    Summing up the above, the following points should be noted. The grand project of V. I. Stalin, undoubtedly necessary in essence, contained a series of erroneous decisions stemming from the neglect of natural laws. This reflects the spirit of a well-known quote emphasizing humanity’s transformative power over nature: “The human mind has discovered many wonders in nature and will discover even more, thereby increasing its dominion over it…” (V. I. Lenin, Vol. 14, 4th Edition, p. 268).

    Unsurprisingly, the literature of that era was replete with expressions such as “transformation of nature,” “active human intervention in nature,” “not waiting for favors,” “scientific methods of managing nature,” “biosphere management,” and “turning the biosphere into the noosphere.” Even today, one of the key economic indicators, GDP (Gross Domestic Product), continues to consider the biosphere merely as an extracted resource, ignoring its critical role in providing ecosystem services and maintaining environmental balance.

    At that time, either the importance of the natural biota was not known, or its significance was insufficiently understood. Without natural biota, there is no life itself. Only at the end of the last century did Russian biophysicist V. G. Gorshkov scientifically substantiate the mechanisms of environmental regulation by biota and develop the concept of biotic regulation of the environment. Within this framework, it is more appropriate to speak not of transforming or managing nature, but of a managed “collaboration” with the regulatory mechanisms of the biosphere and biota.

     

     

    A Global Issue

    The rapid depletion of soils observed worldwide is leading to “hidden hunger”—a deficiency of nutrients in food products. This phenomenon is recognized as a primary cause of many modern diseases, including diabetes and cancer.

    According to data from the World Health Organization (WHO), within just 17 years of observation (1985 to 2002), the nutrient content in food products decreased by more than half. Some foods lost up to 78% of calcium and magnesium—elements essential for the proper functioning of the heart.

    Today’s Nutritional Crisis

    Due to soil depletion, fruits and vegetables now contain significantly fewer nutrients than even a decade ago. Over the past ten years, the vitamin C content in certain produce has dropped by over 80%. In many cases, the only beneficial component remaining in supermarket fruits and vegetables is plant fiber. If, over 17 years, nutrient content decreased by 24–78%, current estimates suggest that we are now consuming less than 1% of the nutrients present in food a century ago. This alarming decline is directly linked to reduced life expectancy and the widespread prevalence of numerous diseases.

    An estimated one-third of the global population—over 2 billion people—suffers from serious health issues caused by nutrient deficiencies (Pingault N. et al., 2017). The 2020 Global Nutrition Report (link: https://globalnutritionreport.org/reports/2020-global-nutrition-report/) highlights that nutrient deficiencies are a worldwide issue, with children and pregnant women being especially affected. The increasing shortages of key micronutrients—such as iron, vitamin A, iodine, folic acid, and zinc—are contributing to severe and life-threatening conditions.

    Nutrient deficiencies have direct health implications. For example, selenium deficiency is linked to Alzheimer’s disease, while vitamin D deficiency causes rickets. The rising incidence of nutrient-related illnesses is alarming, as these conditions are appearing in younger populations. Diseases once associated with old age are now diagnosed in individuals as young as 20–30 years old. Additionally, an increasing number of children are born with weakened immunity or chronic health conditions.

    The root cause of this issue lies in soil degradation. Human health is directly linked to the health of the soil. The situation is further exacerbated by the focus of agricultural corporations and ministries on the quantity rather than the quality of food production. Breeders are developing increasingly high-yield plant varieties, and the higher the yield from depleted soils, the fewer nutrients these plants contain.

    As part of the UN’s “Decade on Ecosystem Restoration” program, Russia must analyze and account for both the positive and negative outcomes of its past efforts and make a significant contribution to restoring soil fertility, both domestically and globally—especially in the BRICS countries.

    The immense scientific and practical experience gained during the implementation of the “Great Plan for the Transformation of Nature”, combined with modern soil-conservation and fertility-restoration technologies, such as:

    • No-till farming (link to article),
    • Cover crop systems (link to article),
    • Crop rotation systems,
    • Green frameworks and alley cropping (link to article), and
    • Soil food web restoration technology (link to article),
       provides a comprehensive toolkit to halt and reverse soil degradation across the planet, transforming Earth into a flourishing garden once again.

    A Greek proverb wisely states:
     “A society becomes great when its elders plant trees in whose shade they will never sit.”

    “He who protects his land saves his people!” -Ivan the Terrible

    References:

    1. “70 Years of the Great Plan for the Transformation of Nature” (70 let Velikomu planu preobrazovaniya prirody)
       https://nstarikov.ru/stalinskij-plan-preobrazovaniya-prirody-ubityj-hrushhevym-99400
    2. Zelenin, I. E. “State Farms of the USSR (1941–1950)” (Sovkhozy SSSR)
       Institute of History of the Academy of Sciences of the USSR. — Moscow: Nauka, 1969. — p. 344.

    3. Zemlyanitsky, L. T., Morozov, I. R. “State Protective Forest Belt Voronezh — Rostov-on-Don” (Gosudarstvennaya zashchitnaya lesnaya polosa Voronezh — Rostov-na-Donu)
       — Moscow-Leningrad: Goslesbumizdat, 1949. — p 36.

    4. Prasolov, L. I. “The Great Plan for the Cultural Transformation of the Nature of Our Steppes” (Velikiy plan kulturnogo preobrazovaniya prirody nashikh stepyei)
       // Nauka i Zhizn. — 1949. — No. 2. — Pp. 8–12.

    5. Kovda, V. A. “The Great Plan for the Transformation of Nature” (Velikiy plan preobrazovaniya prirody)
       — Moscow: Publishing House of the Academy of Sciences of the USSR, 1952.

    6. Sukachev, V. N. “Stalin’s Plan for the Transformation of Nature” (Stalinskiy plan preobrazovaniya prirody)
       — Moscow: Publishing House of the Academy of Sciences of the USSR, 1950.

    7. Dokuchaev, V. V. “Foundations of Soil Science” (Osnovy pochvovedeniya)
       — A fundamental work describing scientific approaches to soil studies.

    8. Kostychev, P. A. “Soils and Their Use in Agriculture” (Pochvy i ikh ispolzovanie v selskom khozyaystve)
       — A study on soil resources and their rational use.

    9. Williams, V. R. “Agroecology and Agronomy” (Agroekologiya i agronomiya)
       — A work addressing modern aspects of agroecosystem management and its relationship with nature.

    10. Maiboroda, N. S. “The History of Agronomy in Russia” (Istoriya agronomii v Rossii)
       — A book covering the development of agronomy in Russia, including contributions to Stalin’s plan.

    11. Pravda [1949]: “Propaganda of Stalin’s Plan for the Transformation of Nature” (Propaganda Stalinskogo plana preobrazovaniya prirody).

    12. Kurakina, I. V. “Ecological Consequences of Agricultural Practices in the USSR” (Ekologicheskie posledstviya agronomicheskoy praktiki v SSSR)
       — A study analyzing the ecological impacts of agricultural practices, including the field rotation system.

    13. Skripkin, A. A. “Soils, Their Protection, and Agriculture in the USSR” (Pochvy, ikh okhrana i selskoe khozyaystvo v SSSR)
       — A book about soil protection in agriculture within Stalin’s plan framework.

    14. “The Birth and Death of the Soviet Garden City” (Rozhdenie i smert sovetskogo goroda-sada)
       https://archi.ru/elpub/91183/rozhdenie-i-smert-sovetskogo-goroda-sada
    15. “How Was Stalin’s Plan for the Transformation of Nature Implemented?” (Kak realizovyvali Stalinskiy plan preobrazovaniya prirody?)
       https://dzen.ru/a/YPFnfkmJnDlJhl_T
    16. Dokuchaev, V. V. “Russian Chernozems” (1883) (Russkie chernozemy)
       — A foundational work describing soil properties and their relationship with agronomy.

    17. Kotlyarova, O. “Sustainable Agriculture: Problems and Solutions” (Ustoychivoe selskoe khozyaystvo: problemy i resheniya)
       — A study exploring modern approaches to agriculture and confirming Dokuchaev’s experimental results.

    18. Zinoviev, A. A. “On the Path to a Super-Society” (Na puti k sverkhobshchestvu)
       — Moscow: Astrel, 2008.

    19. “Biotic Regulation of the Environment” (Bioticheskaya regulyatsiya okruzhayushchey sredy)
       https://bioticregulation.ru/ab.php?id=lect2021&lang=ru
    20. Balashov, V. “Soils of Russia and Their Use” (Pochvy Rossii i ikh ispolzovanie)
       — A work dedicated to soil studies in Russia, including research on protective forest belts.
      Kirillov, A. “Ecological Foundations of Agronomy” (Ekologicheskie osnovy agronomii)
       — A book discussing the principles of sustainable agriculture and the role of forest belts.

    21. Kirillov, A. “Ecological Foundations of Agronomy” (Ekologicheskie osnovy agronomii)
       — A book discussing the principles of sustainable agriculture and the role of forest belts.

    22. “Forestry and Agronomy” (Lesovodstvo i agronomiya).

    23. Groysman, I. F. “Transformation of Nature in the USSR in the 1940–1950s” (Preobrazovanie prirody v SSSR v 1940–1950-e gody)
       — A book examining various aspects and consequences of the transformation of nature during Stalin’s era.

    24. Kovalev, A. A. “Stalin’s Plan for the Transformation of Nature: Measures, Consequences, Lessons” (Stalinskiy plan preobrazovaniya prirody: mery, posledstviya, uroki)
       — A study that thoroughly analyzes the elements of the plan and its impact on ecosystems and society.

    25. Maslov, I. V. “Scientific Foundations of Land Reclamation and Irrigation in the USSR in the 1930–1950s” (Nauchnye osnovy melioratsii i irrigatsii v SSSR v 1930–1950-kh godakh)
       — A work on scientific achievements in land reclamation and their application during Stalin’s era.

    26. Shutov, V. S. “The Technical Policy of Stalin’s State: Modernization and Its Consequences” (Tekhnicheskaya politika stalinskogo gosudarstva: modernizatsiya i ee posledstviya)
       — The author analyzes how technical and scientific solutions affected various spheres, including nature transformation.

    27. Nauchi, V. N. “Stalin’s Reforms in Agrarian Policy: A Historical Retrospective” (Stalinskie reformy v agrarnoy politike: istoricheskaya retrospektiva)
       — A book on how Stalin’s reforms influenced agriculture and ecology.

    28. Solomonov, A. N. “Ecological Policy in the USSR: History and Consequences” (Ekologicheskaya politika v SSSR: istoriya i posledstviya)
       — A work examining Soviet ecological policy, with a focus on Stalin’s era.

    29. Kanevsky, D. I. “The Green Movement and Ecology in the USSR” (Zelenoe dvizhenie i ekologiya v SSSR)
       — An analysis of Soviet ecology from Stalin’s period to the present day.

    30. Alexander Evgenyevich Usanin
       — General Director of ANO “Revival of the Earth (Vozrozhdeniye Zemli)”.

    31. Marina Yuryevna Troitskaya
       — Environmental expert and researcher.

    32. Andrey Vladimirovich Stetsenko
       — President of the Center for Ecological Innovations, Candidate of Economic Sciences.

    33. Evgeny Lvovich Lebedev
       — State Advisor of the Russian Federation, Class 2, former head of the Federal Service for Environmental Supervision in the Penza Region.

Alexander Evgenievich Usanin – General Director of the NGO “Renaissance of the Earth”,

Andrey Vladimirovich Stetsenko – President of the Center for Environmental Innovation, Candidate of Economic Sciences,

Evgeny Lvovich Lebedev is a State Adviser of the Russian Federation, 2nd class, former Head of the Federal Service for Supervision of Natural Resources in the Penza Region.

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