Test Result

Dr. Godin & Dr. Kudriashov

Vega 1 – QHET Project

This thermodynamic systems approach differs from standard solutions in “Quantum Hydro Energy Transducer”(QHET), when they look for tricks to overcome the Coulomb barrier to force a proton to fuse with the nucleus of some suitable element such as nickel, palladium and copper. Our understanding of the “Quantum Hydro Energy Transducer”(QHET) mechanism arose due to an analysis of available experimental data obtained by the scientific community over the past 10-15 years, including our own experiments.

“Quantum Hydro Energy Transducer”(QHET) experimental facts:

  1. No gamma radiation. Instead of high-energy gamma quanta, we have only soft X-ray quanta with a maximum energy not exceeding 12 keV.
  2. No neutron radiation. Instead of neutrons, instruments near the “Quantum Hydro Energy Transducer”(QHET) reactors register some radiation similar to neutrons, but not neutrons.
  3. The production of additional thermal energy is registered, exceeding the input energy several times.
  4. The production of new chemical elements, previously absent from the initial components of the reactor working mixtures, is registered too.
  5. The formation of new chemical elements occurs not only in the reactor vessel itself, but also in the external elements of the structure out of the reactor.
  6. The “catalytic agent” exits the reactor walls at a distance of up to half a meter, which affects the recording instruments, in particular, scratches in the form of spiral tracks are found on smooth glass or plastic surfaces.
  7. The following patterns have been identified with respect to the fuel used in reactors:
  8. COP test result: By August 31st, 2026, QHET COP is 11.7

Dr. Klimov

Vega 2 – plasma vortex reactor (PVR)

PVR — A Scalable Platform for Future Commercial Energy

  • High COP: Target COP 8–10, enabling potentially disruptive energy economics.
  • Scalable: Designed to scale from 30–100 kW industrial systems to larger power-generation platforms.
  • Self-Sustaining: Closed-loop plasma and gas-dynamic architecture enables reduced operating consumption and potential internal energy feedback.
  • Direct Power Generation: Potential direct plasma-to-electricity conversion, reducing conventional thermal-cycle complexity.
  • Commercialization Pathway: Engineered toward a practical industrial PVR energy system for distributed, grid and off-grid applications.

The 2024 PVR-W replaces the external steam generator with a water-swirl chamber. A water flow of approximately 30 L/min surrounds an argon cavity, while pulsed discharge heating evaporates water directly at the gas–liquid interface. This reduces steam-line heat losses and places the heat-transfer medium closer to the active discharge zone. Active dimensions were reduced from approximately 10 × 10 × 100 cm³ (1000 cm³) for the older PVR to 3 × 3 × 20 cm³ (180 cm³) for PVR-W. The paper states that output thermal power increased from 1–3 kW in earlier versions to as much as 10 kW. An LC circuit produces stable self-sustained relaxation oscillations; The lastest R&D describes two power-extraction methods: a resistive electrical probe installed on the quartz discharge-tube wall, and a downstream magnetohydrodynamic (MHD) generation channel using transverse electrodes and approximately 0.1–1 T permanent magnets.

Dr. Klimov’s work establishes a paradigm in non-equilibrium Low Energy Nuclear Reactions (LENR) driven by high-density, heterogeneous plasma-vortex hydrodynamics. The primary technological breakthrough is the Water Plasma Vortex Reactor (PVR-W), which achieves an extra thermal output of up to 10 kW with a Coefficient of Performance (“COP”=Q_”out” /Q_”in” ) ranging from 2.0 to 10.0, direct electrical power extraction of ~200 W via magnetohydrodynamic (MHD) conversion, high-yield hydrogen generation (~1 mg/s), and controlled elemental transmutation (~17–20 mg/s of synthesized powder vs. <1″ mg/s” electrode erosion).

Crucially, the diagnostics confirm that these nuclear-level reactions are accompanied by soft X-ray radiation (0.1-30″ keV” ), localized micro-zone electron temperatures reaching T_e∼100″ eV” (≈1.16×10^6 ” K” ), and the generation of low-momentum neutron-like entities (hydrinos). Furthermore, Klimov discovered that synthesized transmuted elements exist in a metastable state exhibiting temporal decay instability, which can be accelerated by a factor of 10^3-10^6 when exposed to Weakly Ionized Non-equilibrium Plasma (WINP). Those data of test were published between 2015 and 2024 in the Leading international journals, such as Journal of Condensed Matter Nuclear Science, Journal of Physics: Conference Series, and international conference proceedings,etc.