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?
All tests conducted in our certified lab show reproducible results with full energy cycle demonstration (minimal input → stable 220V AC output). Results verified by external technical experts and investors. We’re ready for independent testing at certified EU labs (e.g., TÜV SÜD) under NDA. Video documentation and test logs available upon NDA agreement.
How do you ensure there are no hidden energy sources in the demonstration prototypes?
Our prototypes use transparent construction with certified measurement equipment forfull visibility. Multi-phase testing shows energy gain through ionized air charge multiplication and high-voltage resonance within physical laws. We’re ready for independent audits at certified EU labs (TÜV SÜD). Performance data and boundary models available under NDA.
What is the actual efficiency (or COP) of the system under standardized lab conditions?
The VENDOR system’s Coefficient of Performance (COP) varies with prototype size, load, operating mode and boundary conditions, so we don’t publish a single “efficiency” figure. Internal multi-stage tests on 3 W, 100 W and 5 kW transparent prototypes—using certified measurement benches—have all shown clear net energy gain (output significantly exceeding the initial input pulse) within conserved-energy frameworks. For precise COP values under defined loads and environmental parameters, we offer full independent audits at certified EU labs (e.g. TÜV SÜD) and can provide detailed test logs and preliminary COP models under NDA.
How scalable is the technology — can you demonstrate a working 1 kW or 10 kW prototype in lab conditions?
The technology has already been proven at lab scale with a 5 kW prototype, confirming that the core conversion principle scales seamlessly from 3 W and 100 W devices to multi-kilowatt systems. The modular architecture was engineered to extend to 10 kW and beyond without altering fundamental physics. Real-world integration (e.g., electric vehicles, autonomous power units) and full EU certification are the next steps. Technical demonstrations and detailed architectural documentation are available under NDA.
Can we conduct our own technical evaluation in an independent lab?
Yes. You may perform independent third-party verification at any qualified lab under a mutual NDA. We recommend EU-certified facilities experienced in high-frequency electronics and energy systems (e.g., TÜV SÜD, DEKRA, SGS).
The evaluation can include:
Prototype testing under load
Real-time input/output energy measurements
Visual inspection of the transparent design (no hidden elements)
Full documentation and reporting of procedures
We will supply test units, measurement setups, schematics, and protocols, while respecting IP protection boundaries. To proceed, please contact us to finalize the NDA and select your laboratory.
Do you reveal the technology to investors?
Yes. We share essential technical details and system architecture with qualified investors under a mutual NDA. Disclosures include:
Device functional architecture overview
Live prototype demonstrations of energy cycles
Patent filings and process overviews
Engineering limitations, validations, and scalability roadmap
The core signal control algorithm remains a protected trade secret and is not disclosed in source code or full specification, even under NDA. Independent lab testing and third-party performance verification are available. To start the 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?
Our global patent portfolio includes both granted and pending applications in over 30 countries (US, China, India, Canada, Russia, EPO).
Covered areas:
Impulse-generation and energy-transfer methods
System architecture and core modules
Software control mechanisms
Status:
Granted: Key patent approved in Spain
Pending: International PCT application and national phases in remaining jurisdictions
For a full list of countries, application texts, and legal statuses, please contact us under NDA.
Who will own the licenses and technology during scaling?
Patents and core technology are currently held by the inventors. After a strategic partnership agreement, all IP (patents, trade secrets, algorithms) will transfer to the parent company, registered in the chosen jurisdiction (EU, UK, BVI, etc.).
Licensing will then proceed via restricted agreements with manufacturing and integration partners, while central control and update rights remain with the parent company. The model can adapt based on strategic investment terms. Full IP transition and licensing frameworks are available under NDA.
What specifically protects your technological core — algorithms, components, or architecture?
Our technology is secured on three layers for maximal protection:
Patent coverage
– International applications in 30+ jurisdictions (EU, US, China, India, Russia, etc.)
– Claims on signal structures, energy transformation principles, and system configurationsAlgorithmic trade secret
– Proprietary impulse-control logic embedded as compiled code
– Not disclosed in patents; synchronized with system’s internal statesModular, non-transparent architecture
– Unique hardware configuration prevents replication without internal parameters (phase logic, signal timing, control dynamics)
– Standard components interact in a protected system-level design
Even with full physical access, cloning is impossible without our protected control logic and architectural intelligence.
Team And Competences
Who on the team has deep expertise in physics and energy systems? What is their background?
Our team combines extensive experience in radioelectronics, physics, and power systems:
System Architect: 20+ years designing high-precision electronics, power supplies, high-speed digital interfaces, and FPGA solutions.
Power Electronics Expert: Specialized in converters from 5 kW to 1 MW, load management, and industrial energy infrastructure.
Control Algorithm Designer: Focused on high-frequency pulse modulation, resonant circuits, and digital phase synchronization.
External Technical Advisors: Distinguished academics and practitioners in theoretical physics, applied electronics, and energy systems.
Detailed profiles and credentials are available under NDA.
Who developed the impulse generation algorithms and what scientific school are they based on?
Our in-house VENDOR team created the proprietary impulse-control algorithms, led by an expert in plasma physics, radio systems, nonlinear dynamics, and DSP. The approach synthesizes:
Soviet radiophysics and nonlinear oscillation theory (Landau, Mitropolski)
Phase transition and resonance control from synchronization theory (Andronov, Van der Pol)
Modern high-frequency pulse modulation and FPGA timing methods
These algorithms, refined through empirical experimentation and lab validation, are protected as trade secrets. Detailed architecture and logic reviews are available under NDA.
Why is your team so small? Are you confident you can deliver such a complex project?
Our lean core—CEO, CTO, and System Architect—reflects the TRL 6–7 focus on rapid prototyping and validation. Around them, we’ve established a flexible network of:
Power-electronics, FPGA, and control-logic specialists
Software developers and UI designers
Strategic advisors in energy, marketing, and investment
This “lean core + outsourced engineering” model ensures agility, cost efficiency, and strong IP control. It enables rapid scaling via OEM partnerships and expert collaborations. As we move from validation and certification to pilot production, we will expand both internal teams and partner networks to meet project demands.
What happens to the company if a key person becomes unavailable?
VENDOR is built for resilience through documented processes and modular governance:
Comprehensive documentation: All engineering designs, algorithms, and test results are formalized in manufacturing-ready technical maps and engineering journals.
Modular architecture: The system’s design is divided into independent modules, each maintainable by external experts in circuit design, FPGA, power systems, and production.
Expert network: A vetted pool of specialists ensures continuity across all technical domains.
Governance framework: A technology holding structure with a board and clear knowledge-transfer protocols is in place for smooth leadership transitions.
Founders’ longevity focus: The founding team adheres to strict health and performance standards to support long-term leadership.
You invest in a robust, deep-tech platform—not just individuals.
Who is responsible for building sales channels and business development?Who is responsible for building sales channels and business development?
Strategic Marketing & Partnerships: Managed by our Head of Marketing, who leads global communications, partner channel development, early adopter onboarding, and media strategy.
B2B Sales & OEM Partnerships: A Business Development Lead—identified and to be onboarded post-funding—will drive pilot collaborations with industrial players (hardware, telecom, logistics).
Fundraising & Institutional Channels: Led by the CEO, covering venture capital, grants, accelerators, and public funding (e.g., EIC Accelerator, Horizon Europe).
This GTM structure, supported by industry-specialized advisors, scales sales roles in line 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 engineered for industrial-grade reliability across diverse environments:
Humidity & Dust: Optional IP65–IP67 housing and conformal-coated PCBs provide full moisture protection.
Temperature & Pressure: Operates from –20 °C to +60 °C without moving parts or gas-dependent components, so pressure fluctuations are non-critical.
EMI/EMC: Built-in shielding, filtering, and active suppression circuits meet EMC (CE) and industrial standards.
Internal stabilization and automatic signal correction ensure consistent performance under variable conditions. Detailed environmental specifications and EMC design documentation are available under NDA.
What are the risks related to electromagnetic compatibility (EMC) and safety when using impulse-based generation?
Impulse-based energy conversion poses potential EMC and safety challenges, which we mitigate through comprehensive design and protection measures:
Pulse Circuit Shielding & Filtering: All high-voltage pulse circuits and power modules are enclosed and filtered to suppress parasitic emissions.
Harmonic & Frequency Control: Operating frequencies, harmonics, and amplitudes are managed to meet CE, EMC, and Low Voltage Directive (LVD) thresholds.
Active Suppression & Diagnostics: Built-in EMI suppression circuits, real-time diagnostics, and automatic shutdown protect against overloads, short circuits, overheating, and unstable regimes.
Compliance & Certification: Prototypes demonstrate low external EMI. The system architecture is engineered for full compliance with EU EMC, LVD, and RoHS standards, and can be tailored for stricter industry requirements (e.g., transportation, telecom).
Preliminary EMC test reports and detailed modeling are available under NDA.
What are the known system limitations — max load, lifespan, and long-term degradation?
The VENDOR system employs a modular architecture allowing each unit to deliver between 100 W and 5 kW. Multiple modules can be combined in parallel or cascade to meet higher power requirements, so maximum load is dictated by the number of modules rather than a hard cap on the core technology.
Under normal operating conditions with standard cooling and maintenance, the electronics have an estimated service life of 7–10 years. Because the system contains no batteries or chemically active components, there is no intrinsic performance degradation over time—aging factors such as temperature, vibration, or load cycling are mitigated by industrial-grade components, real-time correction circuits, and robust shielding.
In practical terms, this means:
Continuous 24/7 operation without performance loss
No periodic consumable replacements (e.g., batteries)
No hazardous end-of-life disposal concerns
Detailed technical specifications, stress-test results, and lifecycle-analysis reports are available under NDA.
What happens if you don’t receive funding in the next 12 months?
Lack of major funding won’t halt VENDOR’s progress—our technology is operational, and we have multiple alternative pathways:
Staged market entry:
Small-batch production and pre-orders
Early device sales to generate revenue
Web3 options (tokenization, NFT access, DAO funding)
Active alternative funding:
EU grants (EIC, Horizon Europe) applications in process
Discussions with angel investors and family offices
Revenue from R&D contracts and commercial/government projects
Mitigated impact on timeline:
Without large funding: 24–36 months to market
With funding: 12–18 months to market
Funding level affects speed, not survival. A detailed contingency funding strategy 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 adheres to the conservation of energy by leveraging valid mechanisms of energy conversion and redistribution within conductive and ionized media. It does not generate energy from nothing; instead, it uses precisely controlled impulses and feedback cycles to trigger and amplify internal energy flows. This process exploits energy differentials across materials and fields—principles also employed in high-frequency converters, impulse radio circuits, and electrostatic generators—all of which conform to classical physics. Our advanced architecture enables realizations previously impractical due to component limitations. For a detailed scientific overview and documentation, please contact us under NDA.
Is the effect based on energy accumulation, resonance, or any known nonlinear electrical phenomena?
The VENDOR device’s effect stems from a synchronized regimen of controlled impulses, oscillatory interactions, and nonlinear transitions within an ionized medium—not simple energy storage or classic resonance. It leverages nonlinear electrodynamic phenomena such as internal charge transfer, field-density redistribution, and transient field oscillations to restructure the medium’s energy behavior. Unlike capacitors, batteries, or transformers, it operates via self-sustained internal cycles initiated by a trigger. For full technical models and scientific details, please request our confidential documentation and live demonstration under NDA.
If the technology truly works and is scalable, why hasn’t anyone done this before?
Until recently, the necessary combination of high-frequency precision electronics, powerful microcontrollers, and high-speed SMD components—tightly synchronized by advanced impulse algorithms—simply didn’t exist or was impractical due to cost and instability. Industry focus remained on incremental energy solutions (batteries, solar, fuel cells), leaving nonlinear and resonance-based physics largely unexplored. Modern digital control and affordable, robust components now enable VENDOR’s approach. We’re among the first to convert these principles into a reproducible, functional prototype. For our detailed engineering evolution and patent backing, please request our technical deck under NDA.
What is your core technological advantage and why is it hard to replicate?
Our core advantage is a novel energy generation method that uses controlled ion movement and impulse excitation, driven by a precisely synchronized digital signal architecture within an industrial-grade electronic system.
Replication barriers:
Non-obvious engineering execution – Years of empirical tuning have produced a unique configuration and signal sequence that cannot be reverse-engineered without proprietary insight.
Precision impulse control logic – A custom digital controller generates highly specific signals outside standard PWM or frequency schemes; the algorithm is a protected trade secret.
Hidden internal parameters – Patents alone aren’t sufficient; replication requires knowledge of phase triggers, impulse response logic, and environmental tuning profiles.
Non-standard use of off-the-shelf components – Although built with mass-market parts, the device operates them in unique configurations, making reproduction ineffective without architectural access.
Protection is enforced through patents, proprietary algorithms, and compiled control firmware. Demonstrations and technical verifications are available under NDA.
Why should you be the one to deliver this technology — not a large corporation?
Because only a lean, mission-driven team could challenge established energy paradigms and carry a high-risk, high-reward project through hands-on engineering to TRL 6–7.
Agility over convention: Corporations fund safe, incremental advances; they wouldn’t back a solution that defies foundational energy assumptions.
Founder obsession: Our persistence generated working prototypes, dozens of iterations, and a proprietary impulse-ion control framework that corporate R&D wouldn’t attempt.
Open-platform vision: Unlike acquirers that patent and shelve, we build, scale, and drive real-world impact under controlled IP.
Proven traction: Patents, prototypes, partners, and validation are already in place—achievements made possible by our independence and focus.
Investing in us means shaping the future, not just following 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.
