EQMD simulations of all AME2020 nuclides are classified by a new BHTU scheme that labels droplet (B=0), bubble (B=1), and toroidal bubble (B=2) morphologies from radial density profiles.
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4 Pith papers cite this work. Polarity classification is still indexing.
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2026 4verdicts
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New excitation functions measured for 118Sn(p,n)118Sb, 118Sn(p,2n)117Sb, 118Sn(p,α)115mIn, and 118Sn(p,x)117mSn up to 18 MeV, with first-time data for the alpha and 117mSn channels, showing model discrepancies for composite-particle emission.
Applies Lorentz-boosted form factors via Licht-Pagnamenta and Mitra-Kumari formalisms to link nuclear boosts with cluster configurations and resolve light nuclei charge radius discrepancies.
Relativistic nuclear dissociation in emulsion reveals increasing contributions from 8Be(0+), 9B, and 12C Hoyle state with higher alpha multiplicity, consistent with cluster fusion.
citing papers explorer
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A unified classification-quantification framework for bubble-like nuclei within the extended quantum molecular dynamics model
EQMD simulations of all AME2020 nuclides are classified by a new BHTU scheme that labels droplet (B=0), bubble (B=1), and toroidal bubble (B=2) morphologies from radial density profiles.
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Proton induced reactions on 118Sn target at energies up to 18 MeV
New excitation functions measured for 118Sn(p,n)118Sb, 118Sn(p,2n)117Sb, 118Sn(p,α)115mIn, and 118Sn(p,x)117mSn up to 18 MeV, with first-time data for the alpha and 117mSn channels, showing model discrepancies for composite-particle emission.
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Clustering in hadrons and light nuclei from Lorentz boosted form factors
Applies Lorentz-boosted form factors via Licht-Pagnamenta and Mitra-Kumari formalisms to link nuclear boosts with cluster configurations and resolve light nuclei charge radius discrepancies.
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The $^{8}$Be nucleus and the Hoyle state in dissociation of relativistic nuclei
Relativistic nuclear dissociation in emulsion reveals increasing contributions from 8Be(0+), 9B, and 12C Hoyle state with higher alpha multiplicity, consistent with cluster fusion.