Photon energy amplification for the design of a micro PV panel

Abstract

Summary To design a micro PV panel, thousands of photons have been produced from a single photon by breaking down its photonic structure using Higgs‐Boson BR (H → γγ¯) quantum field under high temperature conditions. Because the Higgs‐Boson BR (H → γγ¯) Quantum can be excited under high temperature conditions which forms extremely short‐range week force by the photon‐photon collusion of the bare ions; thus, a pair photon (e+e−) is created from a single photon. This pair of photon can be dissociated by 2 surface semiconductors of the photovoltaic panel and further dispersed by the 3 diodes superconducting silicon surface to form multiple photons, here named as Hossain Multiple Photons (HmP¯). A mathematical test has been performed by applying MATLAB software, which revealed that production of HmP¯ [1photon = (1 + 1 = 2photons) = (2photons + 2photons)2surface = 16photon = (16photons)3diode = ∑4,096photons] from a single phone is doable through photon‐photon collusion, photon dissociation, and photon scattering process into the Higgs‐Boson BR (H → γγ¯) quantum field under high temperature condition. These multiple photons can be converted from direct current into alternating current for commercial use. Calculation revealed that 1590.9 MW/h clean energy can be produced by merely 1 cm2 PV panel which indeed would be a new field of science that will substantially satisfy the total global energy demand.

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Splitting Photon into Pair Photons to Design a High-Performance Printable Solar Cell

“…Thus, it has presented an unsurmountable challenge to date for commercial used solar energy globally with an attractive e ciency rate (4,19). Interestingly, recent studies revealed that pair-photon formation from a single one is doable via photon-photon collision of a single photon once implemented by high thermal conditions but di cult to demonstrate the potential applications of this energy commercially (1,5,9).…”