Quantitative results corresponding to the work "Decellularized Nerve Allografts Promoted Superior Peripheral Nerve Regeneration Compared to Bioengineered Grafts across 15-mm Gaps in Rodents".
Authors/Creators
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García García, Óscar Darío
(Data manager)1
- Losilla-Rodríguez, José Martín (Researcher)2
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Khoury Martín, Elías Fahim
(Data collector)3, 4, 5
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Blanco Elices, Cristina
(Data collector)6
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Etayo, Miguel
(Data collector)
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Pérez Barraza, Natalia
(Data collector)7
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Chato-Astrain, Jesus
(Data curator)1
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Sanchez-Porras, David
(Data collector)8, 1
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Campos, Fernando
(Data collector)1
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Carriel, Víctor
(Supervisor)1
-
1.
Universidad de Granada
- 2. Plastic & Reconstructive Unit, University Hospital Carlos Haya, Málaga, Spain
- 3. NeuroAlia
- 4. Corporación Rincón
- 5. Servicio Andaluz de Salud
-
6.
University of Coimbra
-
7.
University of Valparaíso
- 8. Fundación Pública Andaluza para la investigación Biosanitaria Andalucía Oriental
Description
This dataset corresponds to the quantification results carried out in a comparative study using different strategies for peripheral nerve repair, which were analyzed in the manuscript entitled "Decellularized Nerve Allografts Promoted Superior Peripheral Nerve Regeneration Compared to Bioengineered Grafts across 15-mm Gaps in Rodents".
Background: To overcome the limitations of traditional autografts in peripheral nerve repair, various bioengineered substitutes have been developed for peripheral nerve repair. This study evaluated the preclinical efficacy of different tissue-engineering strategies for repairing a 15-mm sciatic nerve defect in Wistar rats. Five approaches were compared over 16 weeks: Neuragen® collagen conduit (CC), CC with acellular fibrin-agarose hydrogel (CC-FAH), CC with FAH supplemented with adipose mesenchymal stem cells (CC-FAH-C), decellularized nerve allograft (DC), and autograft (AUTO). Functional recovery and tissue reinnervation were assessed via electromyography, muscle morphometry, and comprehensive nerve and muscle histological analyses. Results revealed that DC significantly outperformed hollow tubes and FAH-based substitutes (cellular and acellular). Notably, DC achieved functional and structural repair efficacy closely matching the gold-standard autograft. In conclusion, our DC substitute is a highly viable autograft alternative for long-gap peripheral nerve repair, showing superior results to the other strategies tested in 15-mm defects. The original data obtained for the quantitative analyses of each component are shown in this dataset.
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Additional details
Funding
- Instituto de Salud Carlos III
- PI23/00337
- Fundación Mutua Madrileña
- FMM-AP23014-2025