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openalexOpen Science Framework2026-07-24Cited by 0

The Sovereign Xenograft: Viscoelastic Depolymerization, Morphological Entrainment, and Plastic Surgical Integration for Severe Burn and Scar Regeneration

D.J. Chapman

This protocol establishes a physics-driven architectural standard for severe burn reconstruction, scar regeneration, and peripheral nerve repair, directly challenging the archaic mechanical tension inherent in classical plastic surgery. By treating severe thermal desmoplasia and amputee neuromas as localized structural collapses of the Extracellular Matrix (ECM) tensegrity lattice, the Sovereign Xenograft framework abandons forced end-to-end suturing. Instead, it deploys a zero-tension, immunologically neutral biological runway (utilizing GGTA1-KO porcine xenografts or Acellular Nerve Allografts) strictly governed by a Viscoelastic Shear-Lag model to prevent fibrotic tethering and clinical avulsion. ​To actively depolymerize hyper-crosslinked fibrotic boundaries without thermal ablation, the protocol utilizes Acoustic Droplet Vaporization (ADV) via decafluorobutane (C₄F₁₀) Phase-Change Nanodroplets. These highly compressible payloads are targeted and trapped within the bright ring of First-Order Acoustic Bessel-Vortex Beams, navigating through tortuous tissue strictly under Darcy-Brinkman advection bounds. ​By integrating spatiotemporally multiplexed mechanotransduction (via PIEZO1 and the CD44-hyaluronan axis) and utilizing Targeted Muscle Reinnervation (TMR) to definitively ground severed biological circuits, this framework provides a rigorously bounded mathematical mechanism to close the peripheral signal loop and restore the host's structural blueprint. Related Sovereign Architecture Publications: This clinical protocol operates as a translational surgical modality of the broader Sovereign Architecture framework. For the foundational mathematics, continuous-curvature wave mechanics, computational digital twin verification, and parallel peripheral nerve protocols governing this procedure, please refer to the primary architectural publications linked below: ​Master Project Repository: THE SOVEREIGN ARCHITECTURE: A UNIFIED FRAMEWORK FOR MECHANOTRANSDUCTION & STRUCTURAL BIOLOGY https://doi.org/10.17605/OSF.IO/TNZ9D ​Foundational Physics & Biology: The Sovereign Architecture: A Theoretical Framework for Laminar Biological Engineering and Targeted Acoustic Mechanotransduction https://doi.org/10.17605/OSF.IO/J9R47 ​Computational Verification: A Computational Protocol for Finite Element Analysis (FEA) Verification of Targeted Acoustic Mechanotransduction https://doi.org/10.17605/OSF.IO/YEJ6A ​Parallel Surgical Protocol: Protocol Blueprint: The Dual-Purpose Decellularized Nerve Allograft Runway https://doi.org/10.17605/OSF.IO/AFE5J Please, download PDF to mitigate any coding issues on OSF.

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openalexOpen Science Framework2026-07-26

Machine Learning-Enhanced Echocardiography for the Detection of Coronary Artery Disease: A Scoping Review Protocol

Wagner Rios-García, Erick Barrientos-Ventura, Victoria E. Butrón-Verástegui, Daniela E. Oriundo-Arbizu, Kehit A. Velasquez-Taipe, Abigail D. Via-y-Rada-Torres, et al.

Coronary artery disease (CAD) remains a leading cause of morbidity and mortality worldwide. Echocardiography is widely available and provides real-time structural and functional assessment, but diagnostic accuracy is limited by operator dependency. Machine learning (ML) and deep…

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openalexOpen Science Framework2026-07-26

Personalized Forecasting and Just-in-Time Interventions for Repetitive Negative Thinking: A Proof-of-Concept Study

Ohad Hadar, Gal Lazarus

This research project examines whether person-specific prediction models can improve the timing and effectiveness of just-in-time adaptive interventions for rumination. This proof-of-concept study integrates intensive ecological momentary assessment, idiographic machine-learning…

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openalexOpen Science Framework2026-07-26Cited by 2

The Sovereign FEA Computational Protocol: Digital Twin Validation of Acoustic Capsid Cleavage (Adenovirus Baseline)

D.J. Chapman

This protocol establishes a deterministic, multi-physics digital twin framework for validating the targeted acoustic cleavage of viral nucleocapsids within an extracorporeal shunt. Utilizing a non-enveloped Adenovirus baseline, the methodology bridges discrete atomistic data and…

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