Boundary-Layer Holographic Container (BLHC) Framework: Static Equilibrium and Cavitation Dynamics

Working preprint and simulation specification for the Boundary-Layer Holographic Container (BLHC) framework. The specification establishes two distinct, uncoupled numerical baselines: 1. A static finite-strain boundary-value problem for a hyperelastic spherical shell under 100 GPa hydrostatic confinement, utilizing Birch-Murnaghan and Neo-Hookean energies. 2. A transient Keller-Miksis cavitation stability evaluation for a perturbed fluid bubble. The radial incremental boundary-value problem is defined by the three-stretch energy Hessian evaluated along the verified equilibrium profile, the nominal incremental balance, and fixed-pressure follower boundary conditions. The framework restricts itself strictly to verified numerical outputs and explicit nominal stress linearizations without conflating models or extrapolating uncomputed radial eigenfrequencies.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-30
DOI
https://doi.org/10.5281/zenodo.23812459
Primary Topic
Elasticity and Material Modeling
Type
preprint
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preprint

Boundary-Layer Holographic Container (BLHC) Framework: Static Equilibrium and Cavitation Dynamics

Darnell L. LaFave
Zenodo (CERN European Organization for Nuclear Research)
Elasticity and Material Modeling
preprint

Boundary-Layer Holographic Container (BLHC) Framework: Static Equilibrium and Cavitation Dynamics

Darnell L. LaFave
preprint en

Abstract

Working preprint and simulation specification for the Boundary-Layer Holographic Container (BLHC) framework. The specification establishes two distinct, uncoupled numerical baselines: 1. A static finite-strain boundary-value problem for a hyperelastic spherical shell under 100 GPa hydrostatic confinement, utilizing Birch-Murnaghan and Neo-Hookean energies. 2. A transient Keller-Miksis cavitation stability evaluation for a perturbed fluid bubble. The radial incremental boundary-value problem is defined by the three-stretch energy Hessian evaluated along the verified equilibrium profile, the nominal incremental balance, and fixed-pressure follower boundary conditions. The framework restricts itself strictly to verified numerical outputs and explicit nominal stress linearizations without conflating models or extrapolating uncomputed radial eigenfrequencies.

Zenodo (CERN European Organization for Nuclear Research)
Elasticity and Material Modeling
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