Introduction of the Patented Energy Saving Technology by Quantum Physics

Introduction of the Patented Energy Saving Technology by Quantum Physics

American researcher’s first presented a technical idea to the Institute of Electrical and Electronics Engineers (IEEE) in 2005. The idea was founded on the principles of Quantum Physics, Photoelectric Effects & Photochemistry and was inspired by Quantum Optimization Techniques. The Compton scattering effect, which happens when high-energy photons hit electrons in a material, is specifically used by the EV Saving.

American researcher’s first presented a technical idea to the Institute of Electrical and Electronics Engineers (IEEE) in 2005. The idea was founded on the principles of Quantum Physics, Photoelectric Effects & Photochemistry and was inspired by Quantum Optimization Techniques. The Compton scattering effect, which happens when high-energy photons hit electrons in a material, is specifically used by the EV Saving.

The 4th Generation Energy Savings Device

The 4th Generation Energy Savings Device

Hundreds of successful cases at numerous local and international locations and facilities, with consistent energy efficiency over 10 years, as validated by positive client feedback.

Hundreds of successful cases at numerous local and international locations and facilities, with consistent energy efficiency over 10 years, as validated by positive client feedback.

Patented synthetic infrared wavelength irradiation modifies electron flight paths in the EV, reducing energy loss and heat generation, thereby enhancing consumption efficiency.

Minimization of electron collisions and resistance through the technology optimizes energy utilization, transforming outward-diffusion-induced centrifugal force into centripetal force.

This innovation enhances electron conduction, resulting in reduced friction, heat, and overall energy consumption.

The approach holds the potential to improve power transmission efficiency and is adaptable to a range of devices.

The balanced connection design ensures grid stability, even during periods of inactivity.

Energy-saving impact varies based on power system complexity and load conditions, influencing adaptation and associated benefits.