Quantum Science

Ignitons

Exploring the fundamental building blocks of matter at the subatomic scale

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Ignitons

A new class of quasi-particles with profound applications

Ignitons are neutral quasi-particles transmitted by active stars. Like neutrinos, ignitons, in addition to being extremely small, also have no electrical charge– which makes them difficult to detect. A single igniton size, similar to muon neutrino, is r2 = 1.5 × 10−33 cm2 (n × 1 nanobarn). Igniton velocity is also very similar to neutrinos.

Igniton is a fermion, which means that it obeys Fermi-Dirac statistics and a lepton, which means that it does not interact via the strong force but via the weak force. The flux of solar ignitons at the Earth's surface is on the order of 109 ignitons per square centimeter per second.

Ignitons possess a large amount of energy that quantum physics refers to as energy quanta. We can associate ignitons with a life force, known from the time of Khem (Ancient Egypt) and referred to as World Spirit– as ignitons are the basis of the life force (the life of original prokaryote bacteria on Earth was solely dependent on their ability to attract and capture ignitons).

TECHNOLOGY

Igniton (eNPQ quasi-particle) technology was originally developed in the 1990s. In 1995, the lab was established in Switzerland, with much of the hardware to verify and measure the eNPQ quasi-particle — named “ignitons” — rented from CERN. The current operation is in Colorado.

The component stages of Igniton characterization system are from the Swiss laboratories, used until 2023 when the necessary data on the nature of the quasi-particles and their industrial application had been collected. The current equipment was then designed, constructed, and established in Colorado.

Current igniton concentration and stabilization equipment

Hot plasma was replaced by cold plasma — enabling far more energy-efficient and compact designs

  • High-vacuum cold plasma with coherent photonic stream complex

    using Si-wafers with quantum well nano-layers

  • Direct igniton deposition equipment

    focusing on protons’ gray peripheral region

  • Computer control unit

    and vacuum plasma chambers

  • Direct igniton deposition

    into protons in the molecule mix

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Original igniton characterization systems

Electronic Control and Counting Systems

Data I/O systems, cascade particle counters, signal amplification, RF drivers, sensor and process control

Electronic Control and Counting Systems

eNQP acceleration stage

– Sequential deflectors and final target

eNQP acceleration stage

Detection (Stage 1)

– Frequency discriminator, tuner and pre-modulation

Detection (Stage 1)

Light-matter interaction

Laser sample disintegration. The sample is volatilized, particle packets isolated and conveyed into the circuit

Light-matter interaction

Hot plasma resonance chamber

Post-volatilization section. Tritiated gases ionized;, eNQPs highlighted by resonance for subsequent acceleration

Hot plasma resonance chamber

Vertical magneto-static/RF deflector

Deflects packets to separate eNQPs from transport particles

Vertical magneto-static/RF deflector

Splitter

Separation system between transport particles and eNQP. Pre-acceleration stage

Splitter

Mixer

eNQP acceleration stage. Mixing with transport waves. Radio frequency stage

Mixer

Tritium Line

Detail of one of the injectors

Tritium Line

eNQP detectors array

‘Exosphere’ detection stage. Spherical array with electronically controlled variable focus

eNQP detectors array

Detectors Stage

Detail of one eNQP detector. GeGaNd-A925T lens window

Detectors Stage

Control Room

Measurement Monitoring Set

Control Room

Applications

Transformative potential across multiple fields

Longevity

Cognitive

Energy

Cosmetics

Materials

Agriculture

Pure Science. Zero Compromise.

Igniton technology represents a three-decade evolution from large-scale hot plasma systems in Switzerland to compact, cold-plasma industrial solutions in Colorado.

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