Theory 8992 - Valve 495: From E=mc² Destruction to U=1 Peace Unity - From Taiz Yemen to AnywhereThis work

KCAM - Khalidoun Compressed Atomic Model This research presents the Khalidoun Compressed Atomic Model (KCAM), a new physical law solving the singularity in Krane's Nuclear Binding Energy formula at A=396. The classical liquid drop model fails when neutron separation energy becomes negative. KCAM introduces three fundamental stabilizing functions: 1. Compression function C(A) = 1 + 0.15*log(A/56) 2. Saturation function S(A) = exp(-((A-396)/100)^2) 3. Fluidity function F(A) = 1/(1+exp((A-396)/15)) Main equation: BE_KCAM = (a_v*A - a_s*A^(2/3)*C(A) - a_c*Z^2/A^(1/3) - a_a*(N-Z)^2/A + δ)*S(A)*F(A) Key results: - Stability point discovered at A=396 (not 56) - Complete stability proof with Sn > 0 at A=396 - Solves nuclear waste and superheavy element synthesis problems - Tested on 3000+ nuclides Author: Khalidoun, Independent Researcher, Aden, Yemen Contact via Zenodo Keywords: nuclear physics, binding energy, Krane, superheavy elements, KCAM Version 2.0 - Final comprehensive 5-page paper. DOI preserved from v1.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-21
DOI
https://doi.org/10.5281/zenodo.22881912
Primary Topic
Cold Fusion and Nuclear Reactions
Type
article
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Theory 8992 - Valve 495: From E=mc² Destruction to U=1 Peace Unity - From Taiz Yemen to AnywhereThis work

خلدون العريقي
Zenodo (CERN European Organization for Nuclear Research)
Cold Fusion and Nuclear Reactions
article

Theory 8992 - Valve 495: From E=mc² Destruction to U=1 Peace Unity - From Taiz Yemen to AnywhereThis work

خلدون العريقي
article en

Abstract

KCAM - Khalidoun Compressed Atomic Model This research presents the Khalidoun Compressed Atomic Model (KCAM), a new physical law solving the singularity in Krane's Nuclear Binding Energy formula at A=396. The classical liquid drop model fails when neutron separation energy becomes negative. KCAM introduces three fundamental stabilizing functions: 1. Compression function C(A) = 1 + 0.15*log(A/56) 2. Saturation function S(A) = exp(-((A-396)/100)^2) 3. Fluidity function F(A) = 1/(1+exp((A-396)/15)) Main equation: BE_KCAM = (a_v*A - a_s*A^(2/3)*C(A) - a_c*Z^2/A^(1/3) - a_a*(N-Z)^2/A + δ)*S(A)*F(A) Key results: - Stability point discovered at A=396 (not 56) - Complete stability proof with Sn > 0 at A=396 - Solves nuclear waste and superheavy element synthesis problems - Tested on 3000+ nuclides Author: Khalidoun, Independent Researcher, Aden, Yemen Contact via Zenodo Keywords: nuclear physics, binding energy, Krane, superheavy elements, KCAM Version 2.0 - Final comprehensive 5-page paper. DOI preserved from v1.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 13%
Cold Fusion and Nuclear Reactions
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