How It Works
It follows every law of physics — just not the usual paths.
The Vendor generator leverages ionization and coherence to extract controlled energy pulses. The science is known. The architecture is not.
Physics in Motion.
Energy on Command.
Step 1 — Initiation Pulse
Trigger Pulse & Pre-Charge
A short, external energy impulse activates the system — charging internal capacitors and directing the flow toward the discharger unit. This is the only moment Vendor touches the grid. After that, it runs alone.
Step 2 — Ionization & Avalanche
Controlled Ion Field Generation
Voltage from the pre-charged capacitor passes through a discharger array. Ionized particles collide and cascade, forming corona streamers and bulk charge zones. This unleashes a high-density current pulse into the transformer core.
Step 3 — Resonance & Feedback
Magnetic Coupling & Energy Looping
Induced pulses feed the secondary coil, activating a resonant circuit. Feedback from this loop recharges the system’s core, eliminating the need for external input. Frequency shifts are compensated dynamically.
Step 4 — Output & Stabilization
Coherent Energy Delivery
Tertiary winding extracts usable output. A feedback system ensures pulse stability and autonomous self-regulation, maintaining performance across time, temperature, and medium variation. This is where architecture becomes advantage.
What We Share — and
What We Protect
We disclose the principle. We protect the architecture.
Public Domain
Physical principles: ionization, resonance, feedback
Patent claims and process overview
General operation stages
Proof of concept: verified by internal lab tests
Protected Know-How
Chamber geometry and energy routing
Field modulation & discharge logic
Pulse timing architecture
Material configuration and IP blocks
Filed & Protected: Our Patent on Ionized Energy Architecture
The Vendor generator is based on a granted Spanish patent and an active PCT application. The principle is public. The architecture is protected.
The following excerpt summarizes the core principles as disclosed in the patent.
Full text available via public registry and by request.
DISCLOSURE OF THE INVENTION
GENERATOR FOR PRODUCTION OF ELECTRIC ENERGY
The present invention relates to electric power engineering and may be used in power supply systems of different sectors of national economy: industrial, agricultural, defence, transport and amenity facilities.
The prior art describes a device for production of electric energy according to RU 2261521 (published on September 27, 2005) consisting of an electric energy source feeding a current pulse generator which output is connected to an energy storage capacitor and a discharger connected in series to primary winding of a transformer, which secondary high-voltage winding and a parallel connected capacitor form a resonant circuit, which with the use of a diode establishes a positive feedback with the storage capacitor of the discharger, and the transformer tertiary winding feeds the load via a rectifier bridge.
A disadvantage of the said electric energy generator is that in the course of time, because of oxide formation and partial mechanical disintegration of the discharger electrodes, a change in discharge frequency of the discharger is observed which initiates oscillations in the transformer tertiary winding circuit. A process of the discharger electrodes disintegration is due to presence of plasma between the electrodes causing electric erosion disintegration of the electrode metal which inevitably results in an increase of distance between them relative to the initial distance and a shift in frequency spectrum of the discharger oscilations relative to the resonance frequency of the transformer primary winding circuit. Therefore, spectral density of the discharge current at resonance frequency of the transformer primary winding circuit is decreasing which may lead to the device service outage. The shift in frequency spectrum of the discharger may also be determined by a change in air conditions in the discharge gap. It is common knowledge that the discharge repetition frequency increases as the air humidity increases (publication by Pengfei Xu, Bo Zhang, Shuiming Chen, and Jinliang He, “Influence of humidity on the characteristics of positive corona discharge in air”, Physics of Plasmas 23, 063511 (2016); https://doi.org/10.1063/1.4953890).
The technical result of the claimed invention lies in improvement of the generator operation reliability and consistency to produce electric energy.
The technical result is achieved in the generator for production of electric energy, designed with a possibility of connection to the starting electric energy source and disconnection from it, which output is connected to the energy storage capacitor and the discharger unit series-connected to the primary winding of the transformer, which secondary high-voltage winding together with the parallel-connected capacitor form the resonant circuit establishing the positive feedback with the storage capacitor of the discharger, and the transformer tertiary winding feeds the load via a rectifier bridge, wherein the discharger unit is executed as several dischargers connected in parallel, characterized by different values of breakdown voltage and by shifted relative to each other, but overlapping frequency spectrums.
When using several dischargers connected in parallel, characterized by different values of breakdown voltage and by shifted, relative to each other, but overlapping frequency spectrums, spectral densities of the dischargers at the resonance frequency of the transformer primary winding circuit are added and, at a shift in frequency spectrum of the discharger oscilations relative to the resonance frequency of the transformer primary winding circuit (for example, due to increase of distance between the electrodes in the course of time or change in air conditions in the discharge gap) ensure an increase in the cumulative spectral density due to the contribution of the spectral dencity of another or other dischargers which spectrums are overlapping with the first discharger spectrum. Thus, the technical result is achieved in terms of improved reliability and stability of operation of the device for generating electric power in case of a shift in frequency spectrum of the discharger due to a change of distance between the electrodes or air conditions in the discharge gap.
In a preferred embodiment dischargers of the discharger unit are with shifts in frequency spectrums ensuring a close-to-uniform cumulative spectral dencity in the range of the discharger frequencies.
In a preferred embodiment the transformer primary winding circuit is in the form of a slab coil with a resonance frequency of 2.45 MHz.
In a preferred embodiment the rectifier is in the form of a diode bridge.
In a preferred embodiment the dischargers are with shifts in frequency spectrum of 10-20 kHz relative to each other.
The principal of operation of the generator for production of electric energy is explained in Figure 1 showing its block flow diagram.
The generator for production of electric energy is implemented in a generator connected to starting electric energy source 1, which output is connected to energy storage capacitors 2 and discharger unit 3 series-connected to primary winding 4 of transformer 5, which secondary high-voltage winding 6 together with parallel-connected capacitor 7 form resonant circuit, with positive feedback unit 8 of this circuit with energy storage capacitor 2 of discharger 3, and tertiary winding 9 of transformer 5 via rectifier 10, executed according to diode bridge scheme, feeds load 11, wherein discharger unit 3 is implemented as three dischargers 12, 13, 14, connected in series, characterized by different values of breakdown voltage and by shifted relative to each other by 10 kHz, but overlapping frequency spectrums.
The generator for production of electric energy operates as follows.
Starting electric energy source 1 serves for starting generator for production of electric energy, is used only at the initial moment and comprises electric energy source, in which capacity electric mains, accumulator or battery may be used, conveter of low voltage into high voltage and diode, through which voltage is applied to energy storage capacitors 2, and through discharger unit 3 to primary winding 4 of transformer 5. Electric charge accumulated by capacitor 2 from starting electric energy source 1 is applied via discharger unit 3 to primary winding 4 of transformer 5 wherewith magnetic field with high spatial voltage gradient is established in surrounding space. At that, streamers of corona discharge are formed in discharger unit 3 due to ionization by air molecule collision and generation of avalanche electron flows near anode target tip due to highly non-uniform field. Air molecule ions, being much more massive, fail to reach the cathode in the time of discharge pulse and form a bulk charge near the cathode which interrupts the corona dicharge pulse and slowly dissipates in the surrounding space or recombinates with electrons flowing into the discharge gap form the cathode. Photoionization of air molecules, arising by the action of ultraviolet radiation of the streamers on them, is also of great importance for the avalanche development. Thus, pulses of current are generated in discharger unit 3, which current is exceeding current of electrons initiating the corona discharge.
On completion of the discharge in discharger unit 3 the primary winding magnetic field is transmitted by induction to secondary winding 6 of transformer 5 which together with capacitor 7 form a resonant circuit. Voltage from secondary winding 6 of transfomer 5 is transferred via positive feedback unit 8 to energy storage capacitors 2, thus implementing the positive feedback. After a lapse of time, required for the generator oscillation, starting electric energy source 1 is switched off.
Accumulated by energy storage capacitor 2 electric charge, in a lapse of time which is characteristic of each discharger of discharger unit 3, is fed, when they discharged, to primary winding 4 of transformer 5, around which pulsed magnetic field with increased energy is generated due to formation of streamers of corona discharge. Further, due to induction it is fed to secondary winding 6 of transformer 5, forming a resonant circuit together with capacitor 7. The obtained energy excess is removed by tertiary winding 9 of transformer 5 and via rectifier 10, executed according to diode bridge scheme, feeds load 11.
Let spectral dencity maximum of frequency spectrum of discharger 12 originally coincide with resonance frequency of the circuit formed by primary winding 4 of transformer 5, wherein maxima of spectral dencity of dischargers 13 and 14 are positioned on both sides of the spectral dencity maximum of frequency spectrum of discharger 12. Then, in case of a shift of the spectral dencity maximum of frequency spectrum of discharger 12, for example, in the direction of the spectral dencity maximum of frequency spectrum of discharger 13, which shift is due to a change in distance between electrodes of discharger 3 or air condition in the discharge gap, the spectral dencity of discharger 12 shall decrease, however, the spectral dencity maximum of frequency spectrum of discharger 13 shall increase at that. In case of a shift of the spectral dencity maximum of frequency spectrum of discharger 12 in the direction of the spectral dencity maximum of frequency spectrum of discharger 14, the spectral dencity of discharger 12 shall decrease, however, the spectral dencity of frequency spectrum of discharger 14 shall increase at that, compensating that decrease in the spectral dencity of frequency spectrum of discharger 12. That is, use of several dischargers 12, 13, 14, executed with a shift of the spectral dencity maximum of frequency spectrum relative to each other, when their spectrums overlap, shall ensure higher reliability and consistency of operation of the generator for production of electric energy by compensating the spectral dencity decrease of resonator 12 at the resonance frequency of the primary winding circuit via increase of the spectral dencity of one of resonators 13, 14 of resonator 3.
Thus, when using several dischargers connected in parallel, characterized by different values of breakdown voltage and by shifted, relative to each other, but overlapping frequency spectrums, spectral densities of the dischargers at the resonance frequency of the transformer primary winding circuit are added and, at a shift in frequency spectrum of the first discharger oscilations relative to the resonance frequency of the transformer primary winding circuit (for example, due to increase of distance between the electrodes in the course of time or change in air conditions in the discharge gap) ensure an increase in the cumulative spectral density due to the contribution of the spectral dencity of another or other dischargers, which spectrums are overlapping with the first discharger spectrum. Therefore, in the described generator for production of electric energy the attainment of the technical result is ensured in the form of higher reliability and consistency of operation of the generator for production of electric energy.
Didn’t Catch That? Here’s the 7th Grade Version.
How Our Generator Works — Explained Like You’re 14
Imagine a bicycle with a dynamo. You push the pedal, the wheel spins — and the light comes on.
That’s how our generator works.
Except the “wheel” is air, and the “pedal” is a spark.
1. The First Push (Startup)
To get things going, we briefly connect a regular battery. It:
charges a special capacitor (like a super-fast battery),
then disconnects — we don’t need the battery anymore.
That’s it. From now on, the system runs on its own.
2. The Spark and Air Ionization
The capacitor discharges through special spark gaps — like a supercharged lighter.
This spark does something powerful:
It ionizes the air — knocking electrons loose from air molecules,
Air becomes a conductor, full of free electrons.
We literally make air conduct electricity — like a wire.
3. Avalanche Effect
Free electrons hit other molecules, knocking out even more electrons.
It’s like a snowball:
One electron hits another,
That triggers ten more,
A chain reaction begins.
Plus, the spark emits ultraviolet light — that also frees electrons (called photoionization).
In the end: the current becomes stronger than it started. It feels like magic — but it’s physics.
4. Self-Sustaining Cycle
That amplified current is fed into a transformer, which:
boosts the voltage,
sends part of the energy back to recharge the capacitor.
So:
The capacitor recharges,
Sends another spark,
Ionizes the air again,
And the loop continues — without any battery.
A closed-loop system that powers itself.
5. Delivering Power to Devices
The transformer has a third coil — this is where the output goes:
to sensors,
to electronics,
to any low-power devices.
Everything not needed for the loop is sent outside — as usable energy.
The Big Secret
When ionized correctly, air can release more energy than it takes to start the reaction.
Like lighting a log with a match — and getting heat for hours.
The Bottom Line:
You start it once — and it runs on its own.
Air is our “fuel” — but we don’t need to deliver it.
We harness natural physics to multiply electrons — and turn them into clean power.
Are We Burning Air? No. We’re Restoring It.
Our generator doesn’t destroy molecules — it activates natural processes that happen in the atmosphere millions of times a day.
Ionization Isn’t Destruction
When we ionize air, we temporarily excite molecules — we don’t destroy them. What happens next:
Electrons return to ions through recombination
New electrons enter from the surrounding environment via diffusion
The air naturally rebalances itself — in fractions of a second
It’s the same effect that happens after lightning or a thunderstorm. Nature resets.
In Fact — the Air Gets Cleaner
During this process, carbon monoxide (CO) is transformed into carbon dioxide (CO₂).
That means:
CO — toxic, dangerous in enclosed spaces
Converts to CO₂ — which is naturally absorbed by plants
This is called photochemical conversion. It’s been experimentally verified, including in the peer-reviewed papers we’ve shared — and is now being observed in labs.
Air Isn’t Consumed. It’s Used as a Catalyst.
No fuel
No emissions
No waste
No molecular breakdown
We’re not burning air. We’re harnessing its potential — and returning it cleaner than we found it.
Ionization Is All Around Us
Almost all high-power electronic devices generate ionization fields around them:
Electric motors
Automotive alternators
Transformer substations
Desktop computers and servers
This ionization is why dust tends to accumulate on these devices.
It’s natural. It’s safe. And it has long been part of everyday life.
In Simpler Terms:
Imagine striking a match — the air flashes for a moment, then resets itself.
Now imagine that process:
controlled,
repeatable,
and working like a microburst of nature — inside a device the size of a lunchbox.
What About the Laws of Physics?
This is one of the most common questions — and the answer is simple:
We don’t break the laws of physics. We use them — just like every other energy source in the world.
A wind turbine gets its energy from the wind.
A solar panel gets it from sunlight.
A hydroelectric dam gets it from flowing water.
A nuclear plant gets it from heat, which turns water into steam to spin a turbine.
In all of these, there’s always an external force providing energy. It’s basic physics.
Our generator is no different:
We apply a small initial pulse to start the system,
and then we use the properties of air and electric fields to trigger a chain reaction
that increases the flow of electrons — without burning fuel, without a power grid, without ongoing input.
This isn’t magic. It’s:
ionization,
recombination,
photoionization,
avalanche effect.
All of these are well-known processes — described in physics textbooks and electrical engineering courses.
We simply found a way to trigger them inside a sealed device — and make them work at scale.
Just like a solar panel captures photons from the sun,
our generator draws electrons from the air — through spark and field.
It’s physics. Just used smarter.
Yes, you understood correctly — efficiency can exceed 100%, and it’s not a mistake.
We don’t violate the laws of energy conservation.
Unlike conventional systems that rely on internal fuel, our generator engages the external environment — the air itself.
Think of it like a solar panel, where the “fuel” is sunlight. We initiate avalanche effects where electrons from the air amplify the current.
That’s why the output can be greater than the input. Not because energy comes from nowhere — but because it’s already all around us.
Not Just Simple — Incredibly Sophisticated
While it may sound simple in principle, our generator is the result of over 14 years of deep radioelectronic development.
Every process, every component, every timing circuit has been painstakingly refined over years of research, iteration, and field testing.
The core mechanism is protected not by a conventional hardware patent — but by an invention patent on the energy generation method itself.
Even with access to the device, replicating it without deep knowledge of the underlying physics and architecture is virtually impossible.
This isn’t a DIY kit.
It’s a self-sustaining energy system — engineered at the edge of what science allows.
Why Some Things Stay Hidden — and Why That Protects You
As an investor, you might ask:
“If this works — why not reveal everything?”
Here’s why not revealing everything is exactly what protects your edge.
Patent = Recognition, Not Instruction
The patent proves originality and grants legal protection. But by design, it doesn’t include the full internal logic — so no one can simply “rebuild it from paper.”
Undisclosed Architecture = Competitive Moat
We kept the critical elements — chamber geometry, modulation logic, field resonance design — unpublished. That’s our real moat: you get access to what works, while others can’t reproduce it.
Open Disclosure = Strategic IP Dilution
Disclosing core engineering this early would invite copycats, legal ambiguity, and reduced valuation. Preserving secrecy now means protecting market share later.
