Delivery of TGFβ3 from Magnetically Responsive Coaxial Fibers Reduces Spinal Cord Astrocyte Reactivity In Vitro (Adv. Biology 10/2024)

Drug Delivery Spinal cord injury (SCI) is a devastating condition that severely impacts patient quality of life, and there are no available treatments that restore lost function. Biomaterials can provide local, sustained release of therapeutics, but drug-releasing biomaterials do not address variability in injury severity. To tune delivery to a unique injury, Ryan J. Gilbert and co-workers developed a fibrous scaffold that can be stimulated with a magnetic field to alter the release rate of a growth factor. The authors found that sustained release of the growth factor resulted in a greater reduction of spinal cord astrocyte reactivity compared to bolus delivery in vitro. The astrocytes treated with the drug-releasing scaffold supported sensory neuron growth in coculture, shown in the flourescence image. Article number 2300531 provides a foundation for developing biomaterials capable of tunable growth factor release in response to externally applied magnetic fields for SCI treatment.

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Journal
Advanced Biology
Published
2024-10-01
DOI
https://doi.org/10.1002/adbi.202470101
Primary Topic
Spaceflight effects on biology
Type
article
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article

Delivery of TGFβ3 from Magnetically Responsive Coaxial Fibers Reduces Spinal Cord Astrocyte Reactivity In Vitro (Adv. Biology 10/2024)

Diana Zahn, Silvio Dutz, Ryan J. Gilbert, Jessica L. Funnell et al.
Advanced Biology
Spaceflight effects on biology
article

Delivery of TGFβ3 from Magnetically Responsive Coaxial Fibers Reduces Spinal Cord Astrocyte Reactivity In Vitro (Adv. Biology 10/2024)

Diana Zahn, Silvio Dutz, Ryan J. Gilbert, Jessica L. Funnell, Jasper Fougere
article en

Abstract

Drug Delivery Spinal cord injury (SCI) is a devastating condition that severely impacts patient quality of life, and there are no available treatments that restore lost function. Biomaterials can provide local, sustained release of therapeutics, but drug-releasing biomaterials do not address variability in injury severity. To tune delivery to a unique injury, Ryan J. Gilbert and co-workers developed a fibrous scaffold that can be stimulated with a magnetic field to alter the release rate of a growth factor. The authors found that sustained release of the growth factor resulted in a greater reduction of spinal cord astrocyte reactivity compared to bolus delivery in vitro. The astrocytes treated with the drug-releasing scaffold supported sensory neuron growth in coculture, shown in the flourescence image. Article number 2300531 provides a foundation for developing biomaterials capable of tunable growth factor release in response to externally applied magnetic fields for SCI treatment.

Advanced BiologyVol. 8(10)
Technische Universität Ilmenau (DE), Rensselaer Polytechnic Institute (US), Albany Stratton VA Medical Center Albany (US), Westsächsische Hochschule Zwickau (DE)
Openalex Percentile: Top 75%
Spaceflight effects on biology
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Delivery of TGFβ3 from Magnetically Responsive Coaxial Fibers Reduces Spinal Cord Astrocyte Reactivity In Vitro (Adv. Biology 10/2024) — Diana Zahn, Silvio Dutz, et al. · Advanced Biology (2024) | TGRS Research Map | TGRS