Real Questions. Clear Answers.

What investors ask us — and how we respond.

No pseudoscience. No vagueness. Just the facts — with clarity, respect, and logic.

We Don’t Break Physics — We Use More of It

Understanding Energy Replenishment Through Ionization, Not Illusion

“How can it work without external power — and still follow thermodynamics?”

Energy Doesn’t Vanish. It Transfers — With Loss.

A Vacuum Breakdown Shows Why Free Energy Myths Fail

As we know from the law of conservation of energy and the first law of thermodynamics, we know that energy does not appear or disappear without a trace.

To obtain energy replenishment we need to get additional charges from the environment.

To fulfil these conditions we need to use neighbouring electrons from the environment. During the ionisation process, one charged electron starts to charge a neighbouring electron in a chain. In gases this process is slower, in metals and dielectrics it is faster. Based on this thesis, we can say that in the ordinary breakdown between two electrodes located in vacuum there is a loss of energy. For example, having 10 electrons on one electrode, at transition in the form of ion channel at breakdown will be delivered 9 electrons to the other electrode.

Figure 1: This figure shows the breakdown process between two electrodes, with the loss of one electron (was 100%, remained after the breakdown 90%).

Conclusion: the efficiency of this example is 90%, which in no way meets the condition of Free energy from the environment more than 100%!

Ionized Air. Amplified Energy

How Environmental Electrons Multiply the Output Without Breaking the Laws of Physics

Processes Occurring In Gas Medium

If we place the electrodes in a gas environment (external human environment, where the air includes oxygen, carbon, hydrogen and a small percentage of other gases), the efficiency of the installation increases many times due to the attraction of electrons of ionised particles located between the two electrodes

The higher the voltage between the electrodes, the higher the degree of ionisation of the particles, the higher the number of electrons attracted into the electric circuit (x10, x20, x100, etc.). By mathematical calculation of the attracted electrons from ionised particles, the efficiency increases above 100%.

To create such conditions, high voltage (10-100 kV) is required, as well as selection of the frequency of operation. When the initial phase of free oscillations and forced oscillations coincide, resonance is obtained, which in turn increases the amplitude of the oscillations and eventually the energy is obtained N times more than at the input. Additional energy is obtained from the environment, precisely due to ionisation and increase in the energy of the accumulated mass of electrons.

To make the process work stably and completely, it is necessary to create the conditions of two electric fields with different potential, but synchronised in phase. Further it is necessary to use energy storage devices in the form of capacitors, which will fulfil the function of energy storage, and in the primary winding will fulfil the function of resonance. Only after fulfilling all conditions can this phenomenon be achieved.

By understanding the process of obtaining additional charges, we can obtain additional energy from the environment without contradicting the law of conservation of energy and the first law of thermodynamics.

It Happens in Nature.
We Just Made It Work

Lightning, solar storms, and air ionization — none of these violate the laws of physics. Neither do we.

1. Lightning is proof of natural discharge.

Every second, countless electric discharges occur in Earth’s atmosphere. These are high-voltage events across an ionized medium — governed by the same principles used in our generator. Nature has validated this process millions of times.

2. Earth constantly receives free electrons.

Solar wind, cosmic rays, ionospheric disturbances, and auroras all prove the continuous inflow of charged particles into our planetary environment. This is not a theory — it’s an extensively documented phenomenon in astrophysics and geophysics.

3. Ionization is not exotic. It’s everywhere.

Ionization occurs in devices you use every day:

automotive ignition systems, plasma TVs, microwave ovens, data center servers, even industrial lasers. Our system simply applies these well-known principles in a closed, optimized configuration.

4. What happens to the electrons we use?

They don’t disappear. The system’s charge is naturally restored by:

– the surrounding environment (air, ions, molecules),

– ongoing atmospheric ionization,

– cosmic and solar particle input.

This is consistent with laboratory observations of plasma recovery, ionosphere recharging, and open-system electron equilibrium models published by institutions such as NASA, ESA, and IEEE.

Our edge? Geometric control and resonance.

The specific mechanisms that enable surplus energy, directional discharge, and stable oscillation — remain part of our protected know-how.

They are not disclosed in the patent and will only be made available to Series A&B investors under NDA.

What Nature Sparks, We Refined into Energy

From chaos to coherence — this is how you master the invisible.

Other Questions

Scientific Validation and Literature Review

We do not break physics. We extend it — with geometry, resonance, and validated discharge dynamics.

Our core principles are backed by a growing body of peer-reviewed research and granted patents. Independent studies across Sandia National Labs, Naval Weapons Center, Westinghouse R&D, and academic institutions confirm that:

  • Multi-gap spark systems improve reliability under variable humidity, pressure, and wear.

  • Ionized-air discharge systems can increase electron flow without violating thermodynamics.

  • Resonant high-voltage circuits can amplify stored energy using real physics — not speculation.

This is not theoretical wishful thinking — it is observed, tested, and replicated.

Key Publications Demonstrating the Feasibility and Reliability of Multi-Gap Pulsed-Power Generators

Below is an annotated list of peer-reviewed papers and granted patents showing that parallel (multi-gap) discharge architectures and resonant transformer circuits with overlapping spark-gap spectra yield robust, stable electric-energy generation. These references provide independent verification that (1) overlapping-frequency, multi-discharger units improve reliability by compensating spectral shifts over time or environmental changes; and (2) resonant pulse-transformer generators employing such spark-gap schemes have been successfully demonstrated in laboratory and industrial settings.

1. L.P. Rinehart & M.T. Buttram, “Spark‐Gap Stability Under Rep-Rate Conditions,” Sandia National Laboratories Technical Report (1982). 
Demonstrates statistical distributions of self-breakdown voltages for single spark gaps at repetition rates up to 40 pps, revealing the onset of bimodal distributions (“dropouts”) and the need for multi-channel or parallel architectures to maintain voltage stability under high rep-rates.
https://www.osti.gov/servlets/purl/6888582

2. B. Xu, B. Zhang, S. Chen & J. He, “Influence of Humidity on the Characteristics of Positive Corona Discharge in Air,” Physics of Plasmas,  23(6), 063511 (2016).
Quantifies how air humidity shifts corona-discharge repetition frequency and pulse amplitude—key for understanding environmental variations in spark-gap resonant generators and motivating overlapping spectral designs.
https://doi.org/10.1063/1.4953890

3. US 7692913 B2, “Multichannel Spark-Gap with Multiple Intervals and Pulsed High-Power Generator,” Inventors: A. Smith et al. (2005).

Describes a multichannel (parallel) spark-gap assembly for Linear Transformer Driver (LTD) pulsed-power modules. Demonstrates reduced inductance, improved charge transfer, and stable high-power operation via multiple arcs with staggered breakdown voltages.
https://patents.google.com/patent/US7692913B2/en

4. “Generator for Production of Electric Energy,” Vendor Energy S.L. (2024). 
Discloses a three-discharger unit with breakdown-voltage–shifted, overlapping frequency spectra feeding a 2.45 MHz slab-coil primary and diode-bridge tertiary, achieving enhanced reliability under electrode wear and humidity variation. 

5. S.L. Moran & L.F. Rinehart, “Voltage Recovery Time of Small Spark Gaps,” Naval Surface Weapons Center Report, ADA639493 (1992). 
Uses a two-pulse method to measure hold-off recovery versus time for millimeter-scale spark gaps, highlighting that rapid recovery (<100 ms) varies strongly with gap conditions—underscoring the benefit of parallel gaps to sustain continuous operation.
https://apps.dtic.mil/sti/tr/pdf/ADA639493.pdf

6. A. Calfo, D.J. Scott & D.W. Scherbarth, “Design and Test of a Continuous-Duty Pulsed AC Generator,” Sandia National Laboratories & Westinghouse Science & Technology Center, ADA640246 (1990). 
Reports on a generator delivering 9.5 kV, 11 kA pulses at up to 10 Hz continuously for >9 × 10⁶ discharges with no failures—validating that carefully engineered pulsed-transformer systems with optimized switchgear (including multi-gap units) can achieve high reliability.
https://apps.dtic.mil/sti/pdfs/ADA640246.pdf

7. P. Gasik, “Discharge Mitigation Methods in MPGD-Based Detectors,”  (2024).
Reviews methods including resistive electrodes, HV-scheme optimization, and multi-unit discharge quenching to minimize spark-discharge probability—providing design principles applicable to energy-generation spark-gap stability.
https://arxiv.org/pdf/2405.16323.pdf

These sources collectively constitute an independent literature review affirming that:

– Multi-gap/parallel discharge units with staggered breakdown voltages and overlapping frequency spectra compensate for electrode erosion and environmental changes, preserving resonant coupling to transformer primaries.
– Continuous-duty pulsed-transformer generators using multi-gap switchgear have been demonstrated to operate reliably for millions of cycles at industrial rep-rates.
– Environmental factors (humidity, pressure) measurably shift discharge characteristics, validating the need for redundant spectral coverage in spark-gap designs.

Examination And Proof Of Performance

What independent tests have been conducted to verify input/output energy? Are the results reproducible?

So far, all tests have been conducted in our in-house lab using transparent prototypes, open construction, and certified measurement equipment. We demonstrate the full cycle — from minimal input impulse to stable 220V AC output with internal self-sustaining regeneration.

The results are reproducible and have been shown to external technical experts, both from our team and interested investors. Moreover, we are ready to undergo independent testing at certified EU laboratories, such as TÜV SÜD (Germany), under standard NDA agreements.

We also provide video documentation with real-time measurements and test logs for preliminary review.

To gain access to demonstration materials and reports, please contact us to initiate an NDA.

VENDOR prototypes are purposefully built with maximum transparency and verifiability in mind. The system is mounted on clear acrylic platforms, allowing full visual inspection and confirming the absence of batteries, capacitors, or any concealed storage components.

Before each demonstration, all passive components are fully discharged and verified both visually and with measurement tools. Demonstrations are conducted in front of third-party observers using certified multimeters and oscilloscopesconnected in real time.

We are also open to independent inspection by qualified engineers and can conduct verification in a certified EU laboratory, if needed.

To request full teardown videos, lab footage, or schedule an inspection, please contact us under NDA.

At this stage, the VENDOR system has undergone multi-stage lab testing on proprietary benches, using certified measurement tools. Results confirm significantly higher output energy relative to the initial input pulse, demonstrated on 3W, 100W, and 5kW prototypes.

However, since the COP (Coefficient of Performance) is dependent on the specific energy cycle model, and the VENDOR device does not fit the framework of classical thermodynamic machines, we do not publish fixed COP values without specifying load, mode, and boundary conditions.

We are open to independent verification at certified EU labs (e.g., TÜV SÜD, Germany) and are ready to conduct full measurement audits under standardized procedures.

Detailed test logs and preliminary COP models are available under NDA.

The VENDOR technology is already validated through a functional 5 kW prototype, assembled and tested in a lab environment. This proves that the energy conversion principle is not only scalable — it is already operational at real-world power levels.

With 3W, 100W, and 5 kW prototypes, we demonstrate the full transition from a lab-scale effect to a practical, modular energy system. The architecture is inherently scalable and was designed from the ground up to support extensions to 10 kW and beyond — without altering the core physical principles.

The next phase includes integration into real-world applications (such as electric vehicles and autonomous energy units) and full EU certification.

To schedule a technical demonstration or access architectural documents, please contact us under NDA.

Yes, we are open to independent third-party technical verification at a lab of your choice — under standard conditions and subject to signing a mutual non-disclosure agreement (NDA).

We recommend working with labs experienced in high-frequency electronics and energy system certification — such as TÜV SÜD (Germany), Dekra, SGS, or other certified facilities in the EU.

The evaluation may include:

  • prototype testing under load;
  • real-time measurement of input/output energy;
  • full visual inspection and verification of open design (no hidden elements);
  • documentation and transparent reporting of all procedures.

We are fully cooperative and will provide test units, measurement setups, schematics, and protocols — within reasonable IP protection boundaries.

To initiate the process, please contact us to finalize NDA and laboratory selection.

Yes — under appropriate conditions. We are ready to disclose key technical principles and system architecture to qualified investors, once a mutual non-disclosure agreement (NDA) is signed.

The disclosure includes:

  • presentation of the device’s functional architecture;
  • real-time demonstration of working prototypes and energy cycles;
  • access to patent filings and algorithmic process overviews;
  • discussion of engineering limitations, technical validations, and scalability roadmap.

The core of the technology — the signal control algorithm — is protected as a trade secret and is not disclosed as source code or in full specification, even under NDA. However, we are open to independent lab testing and third-party verification of the system’s performance.

To begin the review process, please sign our NDA and request the technical briefing materials.

Intellectual Property And Protection

What patents do you hold? Are they granted or only filed?

The VENDOR technology is protected by a global patent portfolio covering critical innovation territories. Patent applications have been filed — and some granted — in over 30 countries, including the European Union, USA, China, India, Canada, Russia, and more.

Our IP strategy includes:

  • Protection of the core impulse-generation principleand energy transfer mechanisms;
  • The device’s architecture and key functional modules;
  • The control algorithm, covered in a dedicated software-focused claim block.

One core patent has been granted (Spain), with others progressing through examination, while others are progressing through international PCT and regional application phases.

Our objective is to secure intellectual property in all strategic markets before commercial rollout begins.

To access the full list of jurisdictions, patent texts, and legal statuses, please request our IP portfolio under NDA.

Currently, patents and the core technology are registered to the inventors directly involved in the project. However, it is planned that upon signing a strategic partnership agreement, all intellectual property (patents, trade secrets, algorithms) will be transferred to the parent company, to be registered in an appropriate jurisdiction (EU, UK, BVI, etc.).

As the project scales, the technology will be licensed through:

  • restricted agreements with manufacturing and integration partners;
  • while maintaining central control over the core technology and ability to issue updates;
  • with flexibility to adjust ownership or licensing models based on the structure of a strategic investment deal.

This provides legal transparency, strong IP protection, and secure scalability across regions.

IP transfer to corporate entity planned within 6 months of Series A funding

The full IP transition framework and licensing model are available under NDA.

Our core technology is protected across three layers: patents, proprietary know-how, and non-replicable architecture. This ensures that replication without internal access is virtually impossible.

  1. Patent Protection

– International patent applications filed in 30+ jurisdictions (EU, US, China, India, Russia, etc.);

– Key signal structures, transformation principles, and system-level configurations are covered.

  1. Algorithmic Trade Secret

– The impulse control logic is based on a proprietary digital algorithm synchronized with the internal states of the system;

– This algorithm is not disclosed in patents and is embedded as compiled code in the control unit.

  1. Modular and non-transparent system architecture

– The device is structured in such a way that external analysis cannot replicate the cycle without specific internal parameters, such as phase logic, signal response timing, and control dynamics.

– While the hardware uses standard components, their interaction is engineered in a unique, protected configuration.

Even with full physical access, the system cannot be cloned without the control logic and architectural intelligence.

Team And Competences

Who on the team has deep expertise in physics and energy systems? What is their background?

The VENDOR team includes seasoned professionals with advanced expertise in radioelectronics, physics, power systems, FPGA design, and digital signal control.

Core team members:

  • System architect— 20+ years in designing high-precision electronics, power supply units, high-speed digital interfaces, and FPGA solutions.
  • Power electronics expert— experience in converters from 5 kW to 1 MW, load management systems, and industrial energy infrastructure.
  • Control algorithm designer— specialized in high-frequency pulse modulation, resonant circuits, and digital phase synchronization.
  • External technical advisors— experts with academic and practical backgrounds in theoretical physics, applied electronics, and energy systems.

This team structure ensures a strong foundation in energy generation and control, capable of passing technical audits and scientific validation.

Profiles, technical portfolios, and team credentials are available under NDA.

The impulse control algorithms were developed in-house by the VENDOR team, with the lead developer having strong practical and academic experience in plasma physics, radio systems, nonlinear dynamics, and digital signal processing.

The approach is not based on a single scientific school but rather on a synthesis of applied knowledge from multiple areas:

  • Concepts from the Soviet school of radiophysics and nonlinear oscillation theory(Landau, Mitropolski);
  • Phase transition and resonance control from nonlinear systems and synchronization theory(Andronov, Van der Pol);
  • Practical methods from modern high-frequency pulse modulation and FPGA-based timing control.

The algorithms were developed empirically, through years of experimentation, iteration, and lab validation, and today are protected as proprietary trade secrets (know-how), both legally and technically.

Access to the algorithm’s architecture and design logic is possible via technical sessions and expert verification under NDA.

Yes — while our core team currently includes three key roles (CEO, CTO, System Architect), this is an intentional setup designed for the current TRL 6–7 stage.

Around this core, we have already built a network of external experts and partners, including:

  • specialists in power electronics, FPGA systems, control logic, and testing;
  • software developers and interface designers;
  • strategic advisors with deep backgrounds in energy, marketing, and investment.

We follow a model of “lean core + outsourced engineering and production”, which allows us to:

  • scale rapidly through partnerships and OEM collaboration;
  • stay agile and cost-efficient during early development;
  • retain control over IP and architectural decisions.

Our current goal is to validate the technology, complete certification, and prepare for pilot production. At this phase, a focused, compact team is the most effective structure. As we transition to scaling, we will expand operations with a full in-house and partner-based workforce.

The VENDOR project is structured to ensure its continuity regardless of any individual. We’ve built in both technical and organizational resilience.

Why the company remains stable:

  1. All knowledge is fully documented and ready for production

– Engineering decisions, algorithms, and circuit designs are formalized into ready-to-use manufacturing documentation, including process charts and technical maps.

– All work is logged in engineering journals, tracking parameters, test results, and design updates.

– The entire technical package can already be handed over to production.

  1. Founders maintain peak physical and cognitive performance

– The founding team maintains strong health and performance standards to ensure long-term project leadership.

– We treat longevity as a strategic asset — health is part of our long-term operational capacity.

  1. Functional distribution and expert network in place

– External experts are involved across key domains: circuit design, FPGA, power systems, production.

– The system architecture is modular — each block can evolve independently.

  1. Governance and transition framework ready

– As we scale, the company will be structured as a technology holding with a board, delegated roles, and knowledge transfer protocols.

You’re not investing in a person — you’re backing a resilient deep-tech platform ready for scale.

Sales strategy and business development are handled by the core team and industry-specialized advisors, with defined roles for different market phases:

  1. Strategic marketing and partnerships

– He oversees global communication, partner channels, early adopter onboarding, and strategic media presence.

  1. B2B sales and OEM partnerships

– At TRL 7–8, we focus on pilot-based collaborations with industrial players (hardware, telecom, logistics).

– A dedicated Business Development Lead is already identified and will be brought in post-funding to build the sales team.

  1. Fundraising and institutional channels

– Managed by the CEO, covering VCs, grant programs, accelerators, and public funding frameworks (e.g. EIC Accelerator, Horizon Europe).

In short: GTM is already covered by seasoned professionals, with sales roles scaling in sync with product maturity.

Reliability, Safety And Stability Of Operation

How sensitive is the system to external conditions (humidity, pressure, electromagnetic interference)?

The VENDOR system is designed as a robust industrial-grade electronic device, adaptable to a wide range of environments — from labs to vehicles and outdoor installations.

  • Humidity & dust: when required, the device can be enclosed in a sealed IP65–IP67-rated housing, with moisture protection and conformal-coated PCBs.
  • Temperature & pressure: operational range is –20°C to +60°C. The system has no moving parts or gas-dependent components, so pressure changes are not critical.
  • Electromagnetic interference (EMI/EMC): equipped with shielding, filtering, and active suppression circuits, designed to comply with EMC (CE)and industrial norms.

Additionally, the system features internal stabilization mechanisms and automatic signal correction, ensuring stable operation even in unstable environmental conditions.

Environmental specs and EMC design documentation are available under NDA.

Impulse-based energy systems demand a high level of attention to electromagnetic compatibility (EMC) and user safety — and these factors have been built into the VENDOR architecture from day one.

Key EMC and safety measures include:

  • Shielding of pulse circuitsand power modules;
  • Filtering of power and signal lines;
  • Control of frequencies, harmonics, and amplitudes within CE, EMC, and LVD compliance levels;
  • Self-diagnostic and safety shutdown systems, including protection against overload, short-circuit, overheating, and unstable operation.

Our test prototypes already demonstrate low external EMI, thanks to a circuit architecture that minimizes parasitic fields and harmonics.

The system is also designed to comply with EU certifications (EMC, LVD, RoHS) and can be adapted for stricter standards in sectors like transportation or telecom.

Preliminary measurement reports and EMC modeling are available under NDA.

The VENDOR system is based on a modular design: a single module provides 100 W to 5 kW, and modules can be scaled via parallel or cascaded configurations.

Current technical boundaries:

  • Maximum load— depends on configuration and number of modules, not a limitation of the core principle.
  • Service life— estimated at 7–10 years under normal conditions with minimal maintenance.
  • Degradation— none, as the system contains no batteries, chemical reactions, or memory-affected elements.

The electronics are industrial-grade, designed for high-frequency operation. Aging factors like temperature, vibration, and load cycles are managed through cooling, shielding, and real-time correction systems.

VENDOR maintains stable performance over its entire life cycle, requires no battery replacement or hazardous disposal, and supports continuous 24/7 operation.

Technical specs, stress tests, and reliability data are available under NDA.

The project will not stop — we already have a working core and several alternative strategies to move forward.

Why:

  1. The technology is real and working

– Prototypes have been built, patents filed, and the team is in place. We’re currently at TRL 6 and progressing toward pilot implementations.

  1. We have Plan B — and Plan C

– We can go to market in stages, even without a major investment round:

  • through small-batch production;
  • through pre-orders and early device sales;
  • using Web3 tools — tokenization, NFT-based access, or DAO-driven community funding.

– These approaches allow for early revenue and user engagement.

  1. Alternative funding streams are already active

– We are applying for EU grants (EIC), and are in talks with angel investors and family offices.

– Given our deep expertise and the fact that we operate as a R&D company, the company leverages its professional, long-standing knowledge and experience by executing commercial and government contracts around the world.

  1. Funding affects speed, not survival

– Without it: 2–3 years to market. With it: 12–18 months.

– The question is not if, but how fast and how big.

A full alternative funding model is available under NDA.

Technology And Physical Principles

How does the device comply with the law of conservation of energy? Doesn’t it contradict classical electrodynamics?

The VENDOR device does not violate the law of conservation of energy. It operates based on lesser-known but physically valid mechanisms of energy conversion and redistribution within a conductive or ionized medium. It does not create energy from nothing — it triggers and amplifies internal energy flows through precisely controlled impulses and feedback cycles.

The system works with energy differentials across materials and fields, similar to effects used in high-frequency converters, impulse radio circuits, and electrostatic generators — all of which comply with classical physics.

We are not bypassing physical laws — we are working within them using advanced architectures that were previously impossible to realize due to limitations in electronic components.

To explore the physics behind the process in detail, please request our scientific overview and documentation under NDA.

The effect behind the VENDOR device is not based on classical energy storage, such as in capacitors or batteries, and is not the result of a simple resonance. Instead, it relies on a synchronized system of controlled impulses, oscillatory interactions, and nonlinear transitions within the electronic environment.

The system does make use of nonlinear electrodynamic phenomena, including internal charge transfer, field density redistribution, and transient field oscillations — effects that are often overlooked or suppressed in conventional circuits. We are not simply amplifying a signal — we are restructuring the energy behavior of the medium through field dynamics and impulse symmetry.

This is not a capacitor, battery, or transformer — it is a new class of energy conversion systems that operates through self-sustained internal cycles after an initial trigger.

To review technical models and scientific basis of operation, please request our confidential documentation and live demonstration under NDA.

The answer is simple: it wasn’t physically feasible until now. The VENDOR approach requires a combination of high-frequency precision electronics, powerful microcontrollers, high-speed SMD components, and tightly synchronized impulse algorithms — all of which were either unavailable, unstable, or prohibitively expensive just 10–15 years ago.

Moreover, most of the energy sector focused on traditional incremental improvements — batteries, solar cells, fuel cells — rather than exploring the less conventional interaction zones of nonlinear and resonance-based physics, which were often dismissed due to lack of tools or understanding.

Today, with modern components and advanced digital control, it is finally possible. We are among the first teams to translate this principle into a functional and reproducible hardware prototype.

To learn more about our technological evolution and the breakthroughs that made it possible, please request our engineering deck and patent materials.

VENDOR’s core advantage lies in its energy generation method based on controlled ion movement and impulse excitation, implemented through a precisely synchronized digital signal architecture embedded in an industrial-grade electronic system.

Why it’s hard to replicate:

  1. Non-obvious engineering execution

– This is not just theory — it’s the result of years of hands-on tuning and experimental iteration. While the system uses known physical effects, it does so in a non-traditional configuration and signal sequence, hard to reverse-engineer without proprietary insight.

  1. Precision impulse control logic

– The core module is a custom digital controller that generates highly specific signals in critical ranges. It is not standard PWM or frequency logic. The algorithm is protected as a trade secret.

  1. Barrier to imitation without internal data

– Even with the patents, no one can recreate the performance without internal parameters: phase triggers, impulse response logic, environmental tuning profiles, and specific excitation curves.

  1. Production-ready with off-the-shelf components

– While based on mass-market parts, the device operates them in non-standard configurations, making replication without architectural access ineffective.

The system is protected through patents, proprietary algorithms, and compiled control firmware. Demonstration and technical verification are possible under NDA.

Because no corporation would have dared to build this from scratch — outside standard frameworks and against conventional logic.

Here’s why us:

  1. Corporations don’t chase “impossible” ideas

– They scale what’s already accepted, proven, and predictable. Our solution didn’t fit. It precedes current standards and expectations.

– No board would fund a project that challenges foundational energy assumptions without a guaranteed ROI.

  1. We bring engineering persistence and founder obsession

– This isn’t just theory. We built working prototypes, ran dozens of iterations, and developed a proprietary impulse and ion control framework.

– Most corporations wouldn’t reach TRL 6–7 unless market pressure forced them to try.

  1. We’re motivated to build — not bury

– We want to scale this technology as an open platform, with controlled IP. Corporates prefer to acquire, patent, and shelve. We build with purpose and independence.

  1. We’re already ahead

– We have patents, prototypes, partners, and traction. That didn’t happen by accident — we moved when others thought it couldn’t be done.

This is why the investor who joins now doesn’t follow the future — they help shape it.

You Won’t Get This Moment Twice

You’ve already seen more than most investors ever do before making a move.

Market size. Technology. Traction. Margins. It’s all here — on this very page.

Not noise. Not theory. Real fundamentals.

But here’s what you don’t see:

This round is still open — but it’s closing fast.

It’s a SAFE at €1M. No due diligence. No bottlenecks. Just timing.

Beyond this point, access narrows.

Detailed data, deep modeling, deal architecture — all of it goes private.

And is shown only to those considering €20M+ participation under NDA.

If you’re serious, now’s the moment.

Because the next wave of investors will be negotiating against you — not with you.

Request access to Silent Pitch Room now. Before the reset completes without you.

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