Mathematical Model → Experimental Prototype

Linear Pulsed Electric Accelerator

High-speed electric acceleration using plasma instead of gunpowder. Fully electric, digitally controlled, up to tens of km/s.

Prototype Built & Tested Plasma — Milligrams vs. Grams of Gunpowder Up to Tens of km/s

Why Current Systems Are Limited

Conventional acceleration systems depend on chemical energy or complex mechanical architectures.

The Challenge

High-speed material testing remains expensive, specialized and difficult to scale.

  • Compressed-gas systems have limited energy density
  • Chemical systems require special handling and consumables
  • Large electromagnetic systems are heavy and complex
  • Custom research rigs often lack modular scalability

Our Solution

Stored electrical energy converted into a controlled plasma pulse — no chemicals, no compressed gas.

  • Fully electric architecture
  • Digital pulse control
  • Compact modular design
  • No chemical propellant storage
  • Scalable energy configuration

How It Works

A precisely timed high-energy pulse creates plasma inside a linear chamber.

1

Energy Storage

Electrical energy supplied

2

Plasma Formation

Plasma core inside chamber

3

Acceleration

Expanding plasma accelerates projectile

4

Result

Milligrams of plasma vs. grams of gunpowder

Key Scientific Feature

Balance of Inductance and Time

Two parameters are critical for the accelerator's operation:

  • Inductance — If too high, plasma won't form (insufficient energy density). If too low, energy dissipates too quickly.
  • Balance of Time and Energy — Precise calculation implemented in our design.

Mathematical model completed, plasma formation confirmed under specified parameters.

Demonstration Video

Plasma formation and acceleration sequence — laboratory testing completed.

Demonstration Video

Click to play — video will be added

Gunpowder System vs New Technology

Parameter Gunpowder System New Technology
Working Substance Grams of gunpowder Milligrams of plasma
Projectile Velocity Limited by chemical energy Fundamentally higher (up to tens of km/s)
Safety Sensitive to impact, fire, moisture No explosives — electrical system
Reliability Depends on powder quality, humidity Fail-safe system by design
Recoil Present Absent

Commercial Applications

Four civilian markets with distinct customer profiles.

Research Infrastructure

Universities, national laboratories

Materials Science

High-speed impact testing, composites

Advanced Manufacturing

High-speed forming, process development

Aerospace Research

Laboratory acceleration systems