I have heard about electroculture farming many times before, and today I did some research on it! Wow… what a journey!
Electroculture agriculture is a sustainable farming method that harnesses the earth’s natural energy to increase crop yields while reducing the need for pesticides, manure, and fertilizers. This ancient technique has been gaining popularity among farmers in recent years due to its impressive results and environmentally friendly approach.
What is Electro culture farming?
History of electro culture and farming
How does it work?
Advantages of Elector Culture Agriculture
Is this method real, are there scientific studies?
What is Electro culture Farming?
Electroculture agriculture is the practice of utilizing the energy present in the atmosphere, known as chi, prana, life force, or aether, to promote plant growth and yield. This technique was first presented in 1749 by Abbe Nollett, then in the 1920s by Justin Christofleau, and in the 1940s by Viktor Schauberger.
By using electroculture, farmers can reduce the use of chemicals and fertilizers, and increase crop yields. The atmospheric antennas can be created from materials such as wood, copper, zinc, and brass, and can be used to amplify yields, reduce irrigation, combat frost and excessive heat, reduce pests, and increase the magnetism of the soil, leading to more nutrients in the long run.
- Copper (used a lot in organic agriculture), which is essential to the growth of plants, can play a role in electroculture.
- Copper plays a part in several enzyme processes and is key to the formation of chlorophyll, among other things.
- Copper wire can be used to create atmospheric antennas that harness the earth’s energy and increase the magnetism and sap of plants, leading to stronger plants, more moisture for the soil, and reduced pest infestations.
History of Electro Culture Farming
Between the First and Second World Wars, the British government conducted secret investigations into the possibilities of electrifying plants. This was the beginning of a new science or, as some would say, a pseudo-science called Electroculture. Although it was met with skepticism, research and publication about the effects of electricity on plants continued on both sides of the Channel.

In the late 1770s, Frenchman Bernard-Germain-Étienne de La Ville-sur-Illon began experiments watering plants with water impregnated with electrical fluid. He published an Essay on Electricity in 1781, which reported his findings that plants grew quicker and with more vigor when electrified. Other French experimenters, including Abbé Pierre Berthelon, also watered plants with electrified water, and in 1841 Alexander Bain invented the “Earth battery,” which operated on the same principles as a modern battery.
Atmospheric Electricity and Boosting Crop Yield
In 1844, Scottish landowner Robert Forster used atmospheric electricity to substantially boost his barley crop. The details were reported in The British Cultivator in March 1845, and Letters on Agricultural Improvement by John Joseph Mechi added that Forster was still “indefatigably employed in collecting Electro-Cultural facts from our most eminent electricians.” Professor Karl Selim Lemström of Helsinki University also experimented with atmospheric electricity in the 1880s and published his findings in Electricity in Agriculture and Horticulture in 1904, which offered detailed findings that there was an increase in the harvest of every kind of plant that came under treatment.
The British Electrocultural Committee
In 1918, a group of British scientists set up experiments to test the efficacy of electricity at boosting yields. Their results showed that the electro-cultural effect was real and promised substantial gains. However, their trials suffered from several years of bad weather and were forced to use plants in pots, which were highly erratic and hard to control. Interest in electroculture faded away in the 1930s when the British Electrocultural Committee was wound up, concluding that there was little advantage to continuing the work.

Despite this, in France, engineer and inventor Justin Christofleau experimented with “electro-magnetic terro-celestial” power in his electric vegetable garden, and he patented several devices that went into commercial production. Over 150,000 of them were sold before war broke out in 1939 and closed the factory.
It was not until 2006 that Andrew Goldsworthy, a plant biotechnologist from Imperial College, put forward what seems like the most likely explanation for what actually caused this reaction. He showed that what is seen in electro-cultural experiments is a plant’s natural reaction to a brewing thunderstorm. Thunderstorms carry an electrical charge, and somehow plants have learned to read that as a signal that heavy rain is imminent. When it receives the charge, a plant activates genes and speeds up its metabolism, increasing the rate at which roots can absorb water and encouraging growth.
How Does Electroculture Agriculture Work?
Atmospheric antennas, made from materials such as wood, copper, zinc, and brass, are placed into the soil to create an ether antenna. This antenna picks up frequencies that are all around and helps increase the magnetism and the sap, the blood of the plant. The antenna harvests the energy of the earth through the series of vibration and frequency, such as rain, wind, and temperature fluctuations. These antennas lead to stronger plants, more moisture for the soil, and reduced pest infestations.

Additionally, copper/brass/bronze tools have been found to be more beneficial to the soil than those made of iron. Copper tools lead to high-quality soil, require less work when used, and do not alter the magnetism of the soil. In contrast, iron tools decrease the magnetism of the soil, make the farmers work harder, and can cause drought-like conditions.
Advantages of Electro Culture Agriculture
Electroculture agriculture provides numerous benefits to farmers and the environment, including:
- Increased crop yields without the use of chemicals and fertilizers
- Reduced irrigation needs
- Combatting frost and excessive heat
- Reduced pest infestations
- Increased magnetism of the soil leading to more nutrients in the long run
- Sustainable and environmentally friendly farming practices
- Reduced need for heavy machinery, leading to cost savings and reduced emissions
Getting Started with Electroculture Agriculture
To get started with electroculture agriculture, farmers can create atmospheric antennas from materials such as wood, copper, zinc, and brass. The taller the antenna, the larger the plants will grow. Farmers can also experiment with different designs and materials to find what works best for their crops and soil.
Additionally, copper/brass/bronze tools are recommended for agriculture to improve soil quality and reduce the need for heavy machinery.
Is there scientific research, is electro culture farming real?
Electroculture is the practice of using electricity in agriculture or horticulture to stimulate plant growth. While the idea of using electricity to boost crop yields has been around for a while, it has been met with skepticism due to the lack of rigorous scientific research. However, a team of researchers in China recently published a paper in the journal Nature Food, claiming that electroculture can indeed increase agricultural yields.
In their study, the researchers grew two plots of peas from the same sample pods in a greenhouse. The plants in one of the plots were grown in an electric field, while the other plot served as the control group. The researchers found that the plants grown in the electric field produced approximately a fifth more product than those in the control group. Notably, the electric field was generated on-site using a triboelectric nanogenerator powered by harvested energy from wind and rainfall. The researchers suggest that this low-cost technique could be used immediately to increase the food supply for a growing world population.
Researchers have developed a system that uses wind and rain energy to enhance crop production. The all-weather triboelectric nanogenerator (AW-TENG) can increase pea seed germination speed by 26.3% and pea yield by 17.9%, while also driving various agricultural sensors for optimizing plant growth. The system is eco-friendly and sustainable, and could contribute to the development of a sustainable economy.
Critics: Method & Approach
While the results of this study are promising, critics have pointed out that the research lacked a double-blind approach and therefore could have been influenced by other factors. Nevertheless, the idea of electroculture is intriguing, and further research may shed more light on its potential benefits.
One possible explanation for how electroculture works is that electrical stimulation can boost seed germination and seedling growth. Studies have shown that electrical stimulation with optimal intensity can increase the length of shoots and roots as well as the fresh weight of seedlings.
There are those who think that electroculture is a bit of hippy, new age pseudo-science allied to ley lines, pyramids, and crystals, and those who are passionate believers in the possibilities. While some studies have shown promising results, others have shown no significant difference between electrified and non-electrified plants. The scientific community remains divided on whether or not Electroculture is a legitimate science or merely a pseudoscience.
While the idea of electroculture is still in its infancy, it holds promise for increasing agricultural yields and helping to feed a growing world population. With further research, electroculture could become a valuable tool in the farmer’s toolkit.
Phần kết luận
Electroculture agriculture is a sustainable and environmentally friendly farming method that provides numerous benefits to farmers and the environment. By harnessing the earth’s natural energy, farmers can reduce the use of chemicals and fertilizers while increasing crop yields. The use of atmospheric antennas and copper/brass/bronze tools can lead to stronger plants, more moisture for the soil, and reduced pest infestations. It’s time for farmers to embrace this ancient technique and revolutionize the future of agriculture.
câu hỏi thường gặp
- Is Electroculture a legitimate science?
Electroculture is a controversial topic in the scientific community, with some researchers considering it a pseudoscience and others seeing potential in its practical applications. While some studies have shown promising results, others have shown no significant difference between electrified and non-electrified plants. Further research is needed to determine its efficacy and whether it is a viable alternative to traditional agriculture methods.
- How does Electroculture work?
Electroculture uses electricity to enhance plant growth. The exact mechanisms behind how it works are not fully understood, but some researchers believe that plants can sense electrical charges in the air and respond by increasing their metabolic rates and absorbing more water and nutrients.
- What are the potential benefits of Electro culture farming?
The potential benefits of Electroculture are vast. It could be used to increase crop yields and reduce the need for harmful chemicals in agriculture, creating a more sustainable and environmentally friendly approach to farming. It could also help to reduce the carbon footprint of agriculture and mitigate the effects of climate change.
- Is Electroculture environmentally friendly?
Electroculture has the potential to be environmentally friendly. By reducing the need for chemical fertilizers and pesticides, it could help to create a more sustainable and environmentally friendly approach to farming. However, more research is needed to determine its long-term effects on soil health and plant growth.
- Is there any evidence to support the efficacy of Electroculture?
While some studies have shown promising results, others have shown no significant difference between electrified and non-electrified plants. The scientific community remains divided on whether or not Electroculture is a legitimate science or merely a pseudoscience. Further research is needed to determine its efficacy and whether it is a viable alternative to traditional agriculture methods.