Why Does a Prism Produce Rainbow Colors (According to the PCMM Theory(

Why Does a Prism Produce Rainbow Colors (According to the PCMM Theory( Discovered By: Habiballa Abaker Mohamed Ahmed [email protected] +201108505785 Sudan - Republic of Darfur Introduction: In the PCMM (Pulsed-Cycle-Matter-Motion) theory, light is defined as an Light is an induced oscillation in energy in energy. Consequently, it is necessary to explain the phenomenon of the prism and how it performs optical decomposition. This theory rejects the notion that light simply passes through the prism; instead, when light strikes the surface of a prism, the surface oscillates at a frequency approximately equal to the frequency of the incident light. This oscillation, in turn, induces a corresponding frequency within the PCMM field, thereby generating "new" light. Explaining Why a Prism Decomposes White Light into Its Spectra: The fundamental premise is that white light consists of approximately seven distinct spectra. If these seven components are not induced simultaneously, only a partial spectrum—one of the seven recognized components—is produced. 1/ If the incident light strikes at a right angle and covers the entire surface area, the resulting light remains white. The following possibilities are ruled out: 2/ The idea that a time lag—caused by an oblique angle of incidence—results in a weaker frequency (due to the angle of impact on the prism's cross-section) is considered an unlikely explanation. 3/ The hypothesis that the refraction of a specific spectrum is caused by a time lag between different points of impact (e.g., points A, B, C, D, E, F, and G) is also ruled out. 4/ The total surface area that must be stimulated to produce white light is the sum of the areas corresponding to all seven components [A + B + C + D + E + F + G]. If one of these areas (such as area A) is excluded, the remaining components manifest as the observed spectra (excluding the one that was omitted). This is the true reason for the appearance of spectra according to the PCMM theory. Why does the spectrum tend to shift toward the base of the prism? Can you explain the reason based on your knowledge? Near the apex (top), the glass is very thin, while near the base (bottom), it is thicker. In a sense, it functions somewhat like a convex lens—though one might ask: why does a convex lens cause light to curve and converge at a focal point? *It acts roughly like a convex lens; let’s discuss this further until we uncover the true underlying cause.*

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-06
DOI
https://doi.org/10.5281/zenodo.24013543
Primary Topic
Scientific Research and Discoveries
Type
article
Field-Weighted Citation Impact
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article

Why Does a Prism Produce Rainbow Colors (According to the PCMM Theory(

Habiballa Abaker Mohamed Ahmed
Zenodo (CERN European Organization for Nuclear Research)
Scientific Research and Discoveries
article

Why Does a Prism Produce Rainbow Colors (According to the PCMM Theory(

Habiballa Abaker Mohamed Ahmed
article en

Abstract

Why Does a Prism Produce Rainbow Colors (According to the PCMM Theory( Discovered By: Habiballa Abaker Mohamed Ahmed [email protected] +201108505785 Sudan - Republic of Darfur Introduction: In the PCMM (Pulsed-Cycle-Matter-Motion) theory, light is defined as an Light is an induced oscillation in energy in energy. Consequently, it is necessary to explain the phenomenon of the prism and how it performs optical decomposition. This theory rejects the notion that light simply passes through the prism; instead, when light strikes the surface of a prism, the surface oscillates at a frequency approximately equal to the frequency of the incident light. This oscillation, in turn, induces a corresponding frequency within the PCMM field, thereby generating "new" light. Explaining Why a Prism Decomposes White Light into Its Spectra: The fundamental premise is that white light consists of approximately seven distinct spectra. If these seven components are not induced simultaneously, only a partial spectrum—one of the seven recognized components—is produced. 1/ If the incident light strikes at a right angle and covers the entire surface area, the resulting light remains white. The following possibilities are ruled out: 2/ The idea that a time lag—caused by an oblique angle of incidence—results in a weaker frequency (due to the angle of impact on the prism's cross-section) is considered an unlikely explanation. 3/ The hypothesis that the refraction of a specific spectrum is caused by a time lag between different points of impact (e.g., points A, B, C, D, E, F, and G) is also ruled out. 4/ The total surface area that must be stimulated to produce white light is the sum of the areas corresponding to all seven components [A + B + C + D + E + F + G]. If one of these areas (such as area A) is excluded, the remaining components manifest as the observed spectra (excluding the one that was omitted). This is the true reason for the appearance of spectra according to the PCMM theory. Why does the spectrum tend to shift toward the base of the prism? Can you explain the reason based on your knowledge? Near the apex (top), the glass is very thin, while near the base (bottom), it is thicker. In a sense, it functions somewhat like a convex lens—though one might ask: why does a convex lens cause light to curve and converge at a focal point? *It acts roughly like a convex lens; let’s discuss this further until we uncover the true underlying cause.*

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 28%
Scientific Research and Discoveries
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