Nanohybridization as a Route to a Water-Friendly Therapeutic Tool for Rescuing Misfolded Proteins

Misfolded proteins cause several threatening pathologies, ranging from Alzheimer’s disease to cystic fibrosis. Although several protein folding correctors were tested, their delivery is usually inadequate. Here, via a self-assembly wet reaction, colloidal γ-Fe2O3 was used to immobilize two correctors (C4 and C17) for a cystic fibrosis-associated transmembrane protein. The as-obtained core–shell magnetic nanohybrids were extensively characterized, revealing high drug loading and remarkable chemical stability in water. In addition, a dedicated computational study revealed that the whole organic multilayer is involved in a long-range polarization on the nanoconjugate surface, showing sufficient colloidal stability for its application in cells and in contrast with the cargo’s hydrophobic nature. Experiments conducted in HEK293 cells, expressing a mutated subunit of α-sarcoglycan, showed a positive effect on protein complex recovery. This study represents the first in vitro example of a multifunctional nanochaperone for the structural recovery of misfolded proteins.

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Publication Details

Journal
ACS Nanoscience Au
Published
2025-11-07
DOI
https://doi.org/10.1021/acsnanoscienceau.5c00119
Primary Topic
Nanoparticle-Based Drug Delivery
Type
article
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article

Nanohybridization as a Route to a Water-Friendly Therapeutic Tool for Rescuing Misfolded Proteins

Graziano Rilievo, Lavinia Rutigliano, Marcello Carotti, Simone Molinari et al.
ACS Nanoscience Au
Nanoparticle-Based Drug Delivery
article

Nanohybridization as a Route to a Water-Friendly Therapeutic Tool for Rescuing Misfolded Proteins

Graziano Rilievo, Lavinia Rutigliano, Marcello Carotti, Simone Molinari, Massimiliano Magro, Barbara Fresch, Dorianna Sandonà, Juri Ugolotti, Roberta Sacchetto, Fábio Vianello, Lucio Litti, Federica Tonolo, Alessandro Cecconello, Tiziana Martinello, Aura Cencini, Mary Bortoluzzi
article en

Abstract

Misfolded proteins cause several threatening pathologies, ranging from Alzheimer’s disease to cystic fibrosis. Although several protein folding correctors were tested, their delivery is usually inadequate. Here, via a self-assembly wet reaction, colloidal γ-Fe2O3 was used to immobilize two correctors (C4 and C17) for a cystic fibrosis-associated transmembrane protein. The as-obtained core–shell magnetic nanohybrids were extensively characterized, revealing high drug loading and remarkable chemical stability in water. In addition, a dedicated computational study revealed that the whole organic multilayer is involved in a long-range polarization on the nanoconjugate surface, showing sufficient colloidal stability for its application in cells and in contrast with the cargo’s hydrophobic nature. Experiments conducted in HEK293 cells, expressing a mutated subunit of α-sarcoglycan, showed a positive effect on protein complex recovery. This study represents the first in vitro example of a multifunctional nanochaperone for the structural recovery of misfolded proteins.

ACS Nanoscience Au
University of Padua (IT), Regional Centre of Advanced Technologies and Materials (CZ), Istituto Pasteur (IT), University of Bari Aldo Moro (IT), Palacký University Olomouc (CZ), University of Brescia (IT)
Openalex Percentile: Top 78%
Nanoparticle-Based Drug Delivery
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