A New Layer in the Energy Landscape

A closed-loop energy system, TRL 5–6, entering a €300B+ market.
Not a concept. Not a prototype. This is your early-mover window.

Self-contained

Operates independently — even in the absence of a grid

Clean

No combustion. No exhaust. Whisper-quiet operation.

Flexible Deployment

No cables. No combustion. No reliance on weather conditions.

VENDOR turns ambient air into autonomous power — through impulse dynamics, not combustion.

Portable, resilient, and ready where others fail.

Power. Reimagined.

A solid-state energy unit — no combustion, no fuel, no moving parts.

Engineered for low-impact operation. Designed to endure.

Clean Conversion. Silent Power.

No batteries. No moving parts. Quiet by design. Real-time output through impulse-phase physics.

Off-Grid Ready. Always Stable.

No external fuel. No weather risk. Compact and resilient. Validated for autonomous deployment.

Certified Foundations. Proven Tech.

Lab-tested under strict conditions.
Verified at TRL 5. Now entering formal regulatory certification.

Discover how impulse-phase physics enables clean, reliable power — wherever it’s needed most.

Power That Stays On.
When Others Don’t.
VENDOR.Max

From emergency teams to remote operations — VENDOR provides stable power where the grid isn’t available.

Explore how this technology transforms markets — and who gets in first.

 

Built for the Batteryless Edge
Vendor.Zero

What if you never had to replace a battery again?
Vendor.Zero introduces autonomous energy for IoT systems — solid-state, long-life, zero-intervention.

  • Stable 3.3–12V output — powers sensors, modems, edge CPUs, and telemetry nodes

  • 20+ year design life — engineered to exceed 30 battery replacement cycles in typical edge environments

  • Operates from −50°C to +80°C — functions without external thermal shielding

  • Solid-state architecture — no moving parts, no wear, no degradation over time

  • No charging. No replacement. Zero maintenance — reduces field servicing costs dramatically

Elegant. Silent. Enduring. Explore the invisible layer of energy powering tomorrow’s machines — autonomously.

Why Now:
The Perfect Storm of Tech & Policy

Autonomous energy is no longer a curiosity — it fits directly into strategic frameworks shaping the next decade.

EU Green Deal

Supporting global net-zero goals and long-term off-grid resilience for critical infrastructure.
Target: Achieve 55% emission reduction by 2030

Horizon EU

Funding breakthrough technologies in energy-autonomy, robotics, and AI.
Priority area: Energy transitions & climate adaptation

US IRA

Encouraging decentralized, clean energy solutions in disaster zones & rural areas.
Tax incentives & grants up to $3B for resilience tech

Discover how impulse-phase physics enables clean, reliable power — wherever it’s needed most.

The laws remain unchanged.
But our control over energy has.

It’s not science fiction — it’s nature’s own rhythm, delivered on command. Clean. Contained. On demand.

Lab-Validated Prototype

Tested over 1,000 hours by internal engineering team. Now advancing toward independent EU certification.

Rebuilding for Certification

System refinement underway in next-gen EU lab. Target: compliance with international verification standards.

Global Patent Application Filed

Global filing under the Patent Cooperation Treaty. Core architecture and process now priority-protected.

Core IP Secured and Protected

Exclusive technical documentation registered under EU and international legal frameworks.

Deep-Tech Maturity Achieved

System proven under real-world test conditions. Now positioned at Deep-Tech Readiness Level 5.

Touch the Next Era

What if your name powered the future?

Every breakthrough begins with someone who dared to believe. VENDOR unlocks a world where machines run on clean, autonomous energy. You can be one of the first to bring this future to life — and leave your name on it.

The World That Runs on VENDOR

Not a dream. A roadmap.

Humanoid Robot Surgeon

Precision powered by autonomous energy — even when the grid fails.

Domestic AI Helper

Your daily assistant, always powered — no wires, no waiting.

Autonomous Field Medical Kit

Life-saving power in warzones, floods, and remote missions.

Disaster-Ready Refrigerator

Keeps medicine and food safe — even off-grid. Always

Emergency Network Drone

Communication restored in minutes — powered by impulse energy.

Energy-Independent EV Charger

A self-powered charging station that fuels your vehicle — without grid, fuel, or delay.

Just the Beginning.
These are only the first glimpses of a future filled with autonomous, user-friendly machines — all powered by impulse energy.

The Next Energy Frontier Is Quietly Forming

A billion future devices. A trillion-euro potential. Still early.

We are witnessing the emergence of a new category in energy infrastructure — compact, autonomous modules that operate without traditional grid dependency.

The global addressable market includes over 1 billion potential embedded energy units in robotics, vehicles, appliances, and off-grid systems.

Even at 1% adoption, this implies a market exceeding €20 billion in equipment revenue alone.

Regulatory frameworks, certifications, and standardization paths are being actively evaluated — and this is your chance to be at the starting line of a transformation.

Government Use Cases

Resilience where the grid can’t reach.
When infrastructure fails or never existed — autonomous power makes the mission possible.

Field Medical Stations

Power where lives depend on it.

Mobile clinics and warzone hospitals run uninterrupted, even without grid access.

Stable energy for lights, diagnostics, and vital refrigeration.

Wildfire & Remote Fire Stations

Off-grid doesn’t mean off-duty.

Autonomous units ensure emergency teams operate deep in forests or mountains.

Reliable power for pumps, comms, and protective gear.

Rural Vaccination & Emergency Points

Health missions with zero delay.

Deployable power kits enable vaccination points in villages, deserts, or flood zones.

No diesel. No waiting. Just autonomous supply.

This is just a glimpse.
Vendor’s autonomous energy units can support any mission where mobility, resilience, and independence from the grid are critical — from tactical deployments to disaster response, from remote research stations to future space analogs. The real potential is only beginning to unfold.

Social & Environmental Contribution of One VENDOR Unit

Quantified impact on health, emissions, and long-term sustainability.

12,000+ critical medical procedures enabled

Uninterrupted power for surgeries, mobile hospitals, and frontline missions — even where no grid exists.

Imagine saving lives with every hour of clean, autonomous energy.

~33.6 tons of CO₂ emissions avoided

A sustainable alternative to diesel:
no fuel logistics, no fumes, no noise — just consistent performance.

Based on 24/7 autonomous operation over 7 years.

Up to €95,760 saved in lifecycle costs

One unit. Seven years.

No scheduled maintenance. No refueling.

Resilience without recurring costs — field-ready from day one.

This is just the beginning.
Every VENDOR unit reshapes what’s possible in the field — saving lives, cutting emissions, and eliminating operating costs. From the first hour to year seven, the impact compounds — quietly, reliably, relentlessly.

Forecasting Global Impact

By 2035, up to 20% of off-grid energy systems are expected to shift to autonomous alternatives. That’s over 2 billion tons of CO₂ emissions avoided — and a leap toward global energy resilience.

Powered by data from the World Energy Outlook & OECD projections.

Get Involved — Three Ways to Join the Future of Energy

Whether you’re an investor, a field partner, or a policy innovator — you can help accelerate the shift to autonomous energy.

Invest in the Transition

Fuel the future with early-stage capital.

Pilot with Us

Deploy a unit where energy matters most.

Certify & Standardize

Join regulatory bodies shaping the framework.

Entering Final Validation.
Positioned for Strategic Impact.

Our solid-state energy system has achieved TRL 5 with core technology validated in lab conditions. Now entering integration and certification — where regulatory alignment meets real-world deployment.

We didn’t wait. We built.

“I didn’t build VENDOR for attention.

I built it because I’ve seen what happens when the power goes out during surgery — and someone doesn’t make it.

The world needs energy that obeys no one but the user.”

- Vitaly Peretyachenko, Co-Founder

This Can’t Be Stopped

Thousands of engineers around the world are searching for the same thing:
a way to harvest energy from impulse-phase dynamics.

We are the first to achieve it — and the only ones with a functional patent.

This milestone has been reached. The future is no longer theoretical.

Just like with electric vehicles — first, they laughed.

Now they’re stuck in traffic behind a Tesla.

You can delay change, but you can’t un-invent it.

When a breakthrough is born, there’s no turning back.

You’re still early.

But not for long.

Global Proof. Peer-Reviewed. Decades Deep.

Thousands of Scientists. One Outcome.

Long before our patent — researchers across the globe were already exploring the same direction:

extracting usable energy from ionization and impulse-phase effects.

From nanofluidics to pulsed-ion systems, the field is real, mature, and verifiable.

We didn’t invent the physics. We refined the architecture.

Below is a curated selection of 25 landmark publications — across journals like Nano Letters, ACS Nano, Phys. Rev., Lab on a Chip, and more — showing decades of global effort toward direct energy conversion through ion dynamics.

Each link is real. Each study is open. Each line proves:

We are standing on deep scientific shoulders — and finally made it work.

VENDOR Bibliography
No.
Title and Authors
Source & Year
1
Morrison FA Jr. & Osterle JF, "Electrokinetic energy conversion in ultrafine capillaries."
Journal of Chemical Physics (1965)
2
Daiguji H., Yang P., Szeri AJ & Majumdar A., "Electrochemomechanical energy conversion in nanofluidic channels."
Nano Letters (2004)
3
Van der Heyden FH et al., "Electrokinetic energy conversion efficiency in nanofluidic channels."
Nano Letters (2006)
4
Mansouri A. & Kostiuk LW, "Giant streaming currents measured in a gold sputtered glass microchannel array."
Chemical Physics Letters (2016)
5
Mansouri A. & Bhattacharjee S., "Transient electrokinetic transport in a finite length microchannel."
J. Phys. Chem. B (2007)
6
Pennathur S., Eijkel JCT & van den Berg A., "Energy conversion in microsystems: is there a role for micro/nanofluidics?"
Lab on a Chip (2007)
7
Xuan X. & Li D., "Thermodynamic analysis of electrokinetic energy conversion."
Journal of Power Sources (2006)
8
Chang CC & Yang RJ, "Electrokinetic energy conversion in micrometer-length nanofluidic channels."
Microfluidics & Nanofluidics (2010)
9
Haldrup S. et al., "Tailoring membrane nanostructure and charge density for high electrokinetic energy conversion efficiency."
ACS Nano (2016)
10
Xu P., Zhang B., Chen S. & He J., "Influence of Humidity on the Characteristics of Positive Corona Discharge in Air."
Physics of Plasmas (2016)
11
Liu C. & Nakajima T., "Anomalous ionization efficiency by few-cycle pulses in the multiphoton ionization regime."
Phys. Rev. A (2007)
12
Catalano J., Hamelers HVM, Bentien A & Biesheuvel PM, "Revisiting Morrison and Osterle 1965: the efficiency of membrane-based electrokinetic energy conversion."
J. Phys.: Condens. Matter (2016)
13
Yao S. et al., "Porous glass electroosmotic pumps: design and experiments."
J. Colloid Interface Sci. (2003)
14
Ban H., Lin B. & Song Z., "Effect of electrical double layer on electric conductivity and pressure drop in a pressure-driven microchannel flow."
Biomicrofluidics (2010)
15
Mansouri A. & Bhattacharjee S., "High-power electrokinetic energy conversion in a glass microchannel array."
Lab on a Chip (2012)
16
Pennathur S., Eijkel JCT & van den Berg A., "Energy conversion in microsystems: is there a role for micro/nanofluidics?"
Lab on a Chip (2007)
17
Grossek A. & Pierce R., "Studies of the Pulse Line Ion Accelerator."
Proc. of PAC 2007 (2007)
18
Schreiber J. et al., "Ultrashort laser-accelerated ion pulses for compact fusion drivers."
Phys. Rev. Research (2024)
19
Wu J., Yang R.J. & Majumdar A., "Electrokinetic microchannel battery by means of electrokinetic and microfluidic phenomena."
J. Micromech. Microeng. (2003)
20
"Direct energy conversion." Wikipedia — review of fusion-plasma-to-electricity schemes (electrostatic, inductive, MHD, photoelectric).
Wikipedia (2025)
1
Morrison FA Jr. & Osterle JF, "Electrokinetic energy conversion in ultrafine capillaries."
Journal of Chemical Physics (1965)
2
Daiguji H., Yang P., Szeri AJ & Majumdar A., "Electrochemomechanical energy conversion in nanofluidic channels."
Nano Letters (2004)
3
Van der Heyden FH et al., "Electrokinetic energy conversion efficiency in nanofluidic channels."
Nano Letters (2006)
4
Mansouri A. & Kostiuk LW, "Giant streaming currents measured in a gold sputtered glass microchannel array."
Chemical Physics Letters (2016)
5
Mansouri A. & Bhattacharjee S., "Transient electrokinetic transport in a finite length microchannel."
J. Phys. Chem. B (2007)
6
Pennathur S., Eijkel JCT & van den Berg A., "Energy conversion in microsystems: is there a role for micro/nanofluidics?"
Lab on a Chip (2007)
7
Xuan X. & Li D., "Thermodynamic analysis of electrokinetic energy conversion."
Journal of Power Sources (2006)
8
Chang CC & Yang RJ, "Electrokinetic energy conversion in micrometer-length nanofluidic channels."
Microfluidics & Nanofluidics (2010)
9
Haldrup S. et al., "Tailoring membrane nanostructure and charge density for high electrokinetic energy conversion efficiency."
ACS Nano (2016)
10
Xu P., Zhang B., Chen S. & He J., "Influence of Humidity on the Characteristics of Positive Corona Discharge in Air."
Physics of Plasmas (2016)
11
Liu C. & Nakajima T., "Anomalous ionization efficiency by few-cycle pulses in the multiphoton ionization regime."
Phys. Rev. A (2007)
12
Catalano J., Hamelers HVM, Bentien A & Biesheuvel PM, "Revisiting Morrison and Osterle 1965: the efficiency of membrane-based electrokinetic energy conversion."
J. Phys.: Condens. Matter (2016)
13
Yao S. et al., "Porous glass electroosmotic pumps: design and experiments."
J. Colloid Interface Sci. (2003)
14
Ban H., Lin B. & Song Z., "Effect of electrical double layer on electric conductivity and pressure drop in a pressure-driven microchannel flow."
Biomicrofluidics (2010)
15
Mansouri A. & Bhattacharjee S., "High-power electrokinetic energy conversion in a glass microchannel array."
Lab on a Chip (2012)
16
Pennathur S., Eijkel JCT & van den Berg A., "Energy conversion in microsystems: is there a role for micro/nanofluidics?"
Lab on a Chip (2007)
17
Grossek A. & Pierce R., "Studies of the Pulse Line Ion Accelerator."
Proc. of PAC 2007 (2007)
18
Schreiber J. et al., "Ultrashort laser-accelerated ion pulses for compact fusion drivers."
Phys. Rev. Research (2024)
19
Wu J., Yang R.J. & Majumdar A., "Electrokinetic microchannel battery by means of electrokinetic and microfluidic phenomena."
J. Micromech. Microeng. (2003)
20
"Direct energy conversion." Wikipedia — review of fusion-plasma-to-electricity schemes (electrostatic, inductive, MHD, photoelectric).
Wikipedia (2025)

While others are still publishing papers — we’ve already switched it on.

Still researching? Others are already signing in.

Enter the private zone — while it’s still open.