Theoretical Development Proposal: Theoretical study of polyatomic plasma collisions (48Ca and 7Li) on 249Bk targets via magnetic confinement and optical braking for the synthesis of element Unbinilium-304

This independent research paper presents a alternative theoretical physical-mathematical model to overcome the limitations of conventional binary fusion in the synthesis of superheavy elements. The proposal explores a simultaneous triple collision mechanism using a mixed polyatomic plasma of Calcium-48 and Lithium-7 directed toward a Berkelium-249 target. Through hydrodynamic synchronization via dynamic magnetic gradients and electromagnetic confinement, the system balances the charge-to-mass ratios to behave as a single composite projectile. To prevent premature nuclear fission from thermal excitation, a thermodynamic cooling scheme based on optical braking (Doppler limit) is applied to the target. Finally, the work discusses the structural stability of the synthesized isotope Unbinilium-304 ($^{304}\text{Ubn}$) as a doubly magic nucleus within the "Island of Stability" and proposes its potential nanostructural application in aerospace engineering through a two-dimensional hexagonally arranged allotrope ("Unbinilium Graphene").

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-08
DOI
https://doi.org/10.5281/zenodo.20577609
Primary Topic
Nuclear physics research studies
Type
article
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article

Theoretical Development Proposal: Theoretical study of polyatomic plasma collisions (48Ca and 7Li) on 249Bk targets via magnetic confinement and optical braking for the synthesis of element Unbinilium-304

Darien Joshua Almendariz Contreras
Zenodo (CERN European Organization for Nuclear Research)
Nuclear physics research studies
article

Theoretical Development Proposal: Theoretical study of polyatomic plasma collisions (48Ca and 7Li) on 249Bk targets via magnetic confinement and optical braking for the synthesis of element Unbinilium-304

Darien Joshua Almendariz Contreras
article en

Abstract

This independent research paper presents a alternative theoretical physical-mathematical model to overcome the limitations of conventional binary fusion in the synthesis of superheavy elements. The proposal explores a simultaneous triple collision mechanism using a mixed polyatomic plasma of Calcium-48 and Lithium-7 directed toward a Berkelium-249 target. Through hydrodynamic synchronization via dynamic magnetic gradients and electromagnetic confinement, the system balances the charge-to-mass ratios to behave as a single composite projectile. To prevent premature nuclear fission from thermal excitation, a thermodynamic cooling scheme based on optical braking (Doppler limit) is applied to the target. Finally, the work discusses the structural stability of the synthesized isotope Unbinilium-304 ($^{304}\text{Ubn}$) as a doubly magic nucleus within the "Island of Stability" and proposes its potential nanostructural application in aerospace engineering through a two-dimensional hexagonally arranged allotrope ("Unbinilium Graphene").

Zenodo (CERN European Organization for Nuclear Research)
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Nuclear physics research studies
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