(Automatic translation generated by the author)
We often think of the past as being behind us — outdated, over, archived. Yet it regularly resurfaces in our lives, not as a memory, but as a clue to the future. It sometimes seems ahead of our own time, as if it held answers the future still struggles to formulate.
Those who turn their gaze toward it sometimes discover more concrete elements than those who expect everything from novelty. Is it a matter of age? Perhaps. But it is also a matter of memory. And crop circles, from this perspective, appear as discreet activators of that memory.
A forgotten technology: the EBNER effect
Among the lesser-known yet fascinating scientific discoveries is what is known as the EBNER effect, identified in the late 1980s in the laboratories of the Swiss pharmaceutical group Ciba-Geigy (now Novartis) by Guido EBNER and Heinz SCHÜRCH.
Their method, both simple and bold, involved exposing seeds or fish eggs to an intense electrostatic field — a high voltage, but with no current flow. To their great surprise, these exposures triggered unexpected biological transformations, without resorting to transgenesis.
The results were spectacular:




Recent scientific findings support these observations
Two separate studies, published in 2013 and 2022, reinforce the idea that electrostatic fields can significantly stimulate seeds without genetic modification or chemical additives.
The first, conducted in Turkey by Adu et al. (2022), shows that exposing bean and lentil seeds to a high-voltage electrostatic field (HVEF) clearly improves germination rate, seedling vigor, and resistance to environmental stress. This method acts as a trigger for a potential already present in the seed, accelerating its natural development.
The second, carried out in Iran by Molamofrad et al. (2013), focuses on onion seeds subjected to electric pulses of up to 20 kV/cm. It demonstrates faster germination, more robust root and stem growth, and increased enzymatic activity. These results suggest that the electric field acts at the cellular level, activating latent biological mechanisms.
In both cases, researchers emphasize that these effects are achieved without altering the genetic material: only the expression of certain genes is stimulated. A properly calibrated electrostatic field is enough to enhance the agronomic performance of seeds. These reproducible results deserve consideration as part of a broader reflection on non-invasive agricultural technologies.
These effects can be measured from the very first days of growth. Researchers also note a stimulation of natural antioxidant systems: the electric field causes a controlled stress that leads to increased antioxidant production — exactly as described in the MIR/Stress Guard protocol developed by PROSEED Technologies.
Levengood, Burke and the MIR process
The MIR/Stress Guard protocol was developed by William LEVENGOOD (1925–2013), biophysicist, and John BURKE (1951–2010), an independent researcher specializing in electromagnetic fields. They also conducted in-depth studies of crop circles. Their company, Proseed Technologies Inc., offered an electrical seed stimulation method, called MIR / Stress Guard™, designed to improve yields while increasing plant tolerance to drought, flooding, or extreme temperature variations — without adding any chemical input. (Patent: 1996–1998).
Their method involved exposing seeds to a calibrated pulse, creating a kind of "gentle electron bomb". In response, the seed released free radicals and triggered a powerful antioxidant reaction. The result: improved cellular balance (reduced redox ratio) and better stress preparedness. The difference between treated and untreated seeds was visible from the first leaves.
Unfortunately, this technology was not pursued after the death of both researchers. Several descriptions of the MIR/Stress Guard™ method remain accessible online through archived pages. The effects reported by Levengood in crop circles — elongated nodes, abnormal germination, controlled thermal stress — show striking similarities to those observed in modern experiments using electrostatic fields.
These four approaches, although coming from different backgrounds, are all based on the same fundamental principle: exposing the seed to a controlled electromagnetic or electrostatic field in order to induce a beneficial biological response. This mild, controlled stress not only triggers enhanced growth and greater stress resistance, but also — in some cases — the reactivation of ancient genetic traits that had remained dormant until then.
The question remains. What if crop circles, appearing in the fields — right where our seeds grow — were not just a magical chalkboard that vanishes each year, but also a message?
A message about the medium itself.
This line of questioning, long pushed into the background, is now resurfacing. Several emerging technologies — such as devices inspired by the Ebner effect — seem to act on plants in ways that trigger a lasting physiological response, amplifying the desired effect.
We might even ask: are the patents related to the Ebner effect — or its variants — still active?
The recent arrival on the market of small devices available to the general public could indicate that they are not. This remains to be verified.
An increasing number of devices, offered without chemical inputs and at affordable prices, claim to stimulate germination or accelerate the growth of certain plants.
What we may be witnessing here is a concrete link between the anomalies observed in crop circles for decades (thermal residues, elongated nodes, altered germination...) and effects that can now be reproduced in laboratories — or even at home.
So why not consider that some of these formations — far from being mere aesthetic oddities or extraterrestrial messages, as the most common hypothesis suggests — might actually activate a latent potential in seeds?
No chemicals, no genetic modification, no marketing promises...
July 2025 - Anne L.