Ex Vivo Traceability Platform for Phospholipoproteomic Formulations: Functional Evidence Without Clinical Exposure

<b>Background:</b> Structurally active phospholipoproteomic formulations that lack pharmacodynamic targets or systemic absorption present unique challenges for validation. Designed for immune compatibility or structural modulation-rather than therapeutic effect-these platforms cannot be evaluated through conventional clinical or molecular frameworks. <b>Methods:</b> This study introduces a standardized, non-invasive ex vivo protocol using real-time kinetic imaging to document biological behavior under neutral conditions. Eight human tumor-derived adherent cell lines were selected for phenotypic stability and imaging compatibility. Phospholipoproteomic preparations were applied under harmonized conditions, and cellular responses were recorded continuously over 48 h. <b>Results:</b> Key parameters included signal continuity, morphological integrity, and inter-batch reproducibility. The system achieved high technical consistency without labeling, endpoint disruption, or destructive assays. Outputs included full kinetic curves and viability signals across multiple cell-fraction pairings. <b>Conclusions:</b> This method provides a regulatorily compatible foundation for functional documentation in non-pharmacodynamic programs where clinical trials are infeasible. It supports early-stage screening, batch comparability, and audit-ready records within SAP, CTD, or real-world evidence (RWE) ecosystems. By decoupling validation from systemic exposure, the protocol enables scalable, technically grounded decision-making for structurally defined immunobiological platforms.

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Publication Details

Journal
Biomedicines
Published
2025-08-28
DOI
https://doi.org/10.3390/biomedicines13092101
Primary Topic
3D Printing in Biomedical Research
Type
article
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article

Ex Vivo Traceability Platform for Phospholipoproteomic Formulations: Functional Evidence Without Clinical Exposure

Andrés Toledo, Montserrat Vidal, Andy Lagos, Francisco Gutiérrez-Castro et al.
Biomedicines
3D Printing in Biomedical Research
article

Ex Vivo Traceability Platform for Phospholipoproteomic Formulations: Functional Evidence Without Clinical Exposure

Andrés Toledo, Montserrat Vidal, Andy Lagos, Francisco Gutiérrez-Castro, Natalia Muñoz-Godoy, Ígnacio Muñoz, Ider Rivadeneira, Francisco Krakowiak, Ramón Gutiérrez-Sandoval, Jordan Iturra, Cristián Peña-Vargas
article en

Abstract

<b>Background:</b> Structurally active phospholipoproteomic formulations that lack pharmacodynamic targets or systemic absorption present unique challenges for validation. Designed for immune compatibility or structural modulation-rather than therapeutic effect-these platforms cannot be evaluated through conventional clinical or molecular frameworks. <b>Methods:</b> This study introduces a standardized, non-invasive ex vivo protocol using real-time kinetic imaging to document biological behavior under neutral conditions. Eight human tumor-derived adherent cell lines were selected for phenotypic stability and imaging compatibility. Phospholipoproteomic preparations were applied under harmonized conditions, and cellular responses were recorded continuously over 48 h. <b>Results:</b> Key parameters included signal continuity, morphological integrity, and inter-batch reproducibility. The system achieved high technical consistency without labeling, endpoint disruption, or destructive assays. Outputs included full kinetic curves and viability signals across multiple cell-fraction pairings. <b>Conclusions:</b> This method provides a regulatorily compatible foundation for functional documentation in non-pharmacodynamic programs where clinical trials are infeasible. It supports early-stage screening, batch comparability, and audit-ready records within SAP, CTD, or real-world evidence (RWE) ecosystems. By decoupling validation from systemic exposure, the protocol enables scalable, technically grounded decision-making for structurally defined immunobiological platforms.

BiomedicinesVol. 13(9)
University of Concepción (CL), Instituto Oncológico Dr. Rosell (ES)
Openalex Percentile: Top 79%
3D Printing in Biomedical Research
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