Preprint Article Version 17 Preserved in Portico This version is not peer-reviewed

Heat and Photon Energy Phenomena: Dealing with Matter at the Atomic and Electronic Levels

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How to cite: Ali, M. Heat and Photon Energy Phenomena: Dealing with Matter at the Atomic and Electronic Levels. Preprints 2017, 2017010028. https://doi.org/10.20944/preprints201701.0028.v17 Ali, M. Heat and Photon Energy Phenomena: Dealing with Matter at the Atomic and Electronic Levels. Preprints 2017, 2017010028. https://doi.org/10.20944/preprints201701.0028.v17

Abstract

There is a misconception about using the terms photon and electron. When the electron of the outer ring in the silicon atom executes interstate dynamics for only one cycle, it generates force and energy for the unit photon. The unit photon has a shape similar to a Gaussian distribution with turned ends. When a photon of suitable length interacts with the side of the laterally orientated electron of a semisolid or solid atom, it converts into heat. At an approximate angle of 90°, when a photon interacts with the tip of a laterally orientated electron, it divides into bits of energy with shapes similar to integral symbols. Solid or semisolid element atoms can reveal the phenomenon of heat energy if their electrons address the interactions of photons. In the neutral state silicon atom, the center acts as the reference point for electrons executing interstate dynamics, and the north-south tips of the electrons remain along the north-south poles. The energy shapes around the force tracing along the trajectory of electron dynamics. Two forces are exerted on the electron at one time. In interstate dynamics, the electron of the outer ring first reaches the maximum limit point, where the one-bit energy is shaped. In the remaining half cycle, that electron also generates energy of one bit. When there is an uninterrupted supply of heat energy to the silicon atom, electron dynamics generate photons with a shape-like wave. Path-independent but interstate-dependent forces assume the control of an electron. This electron executes dynamics nearly at the speed of light. In dynamics, conservative forces are exerted on position-acquiring electrons. A photon can be unending in length if the electron dynamics remain uninterrupted. The changing aspect of the electron reflects the auxiliary moment of inertia at each turning point. Atoms of suitable elements generate differently shaped photons when executing dynamics for the outer ring electrons. Thus, they can also reveal the phenomenon of photon energy.

Keywords

Heat energy; Photon energy; Fundamental forces; Electron dynamics; Atomic-scale phenomenon; Photon-matter interaction

Subject

Chemistry and Materials Science, Materials Science and Technology

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