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Hauptverfasser: Alizadeh, Sanaz, Nasiri, Modara, Saraei, Mohadese, Zahiri, Maria, Khosrowpour, Zahra, Sineh Sepehr, Koushan, Nouri, Masoumeh, Zarrabi, Morteza, Kalantari, Nikta, Shafikhani, Sasha H, Gholipourmalekabadi, Mazaher
Format: Artículo científico
Sprache:en
Veröffentlicht: ACS applied bio materials 2024
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Online-Zugang:https://pubmed.ncbi.nlm.nih.gov/39475164/
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author Alizadeh, Sanaz
Nasiri, Modara
Saraei, Mohadese
Zahiri, Maria
Khosrowpour, Zahra
Sineh Sepehr, Koushan
Nouri, Masoumeh
Zarrabi, Morteza
Kalantari, Nikta
Shafikhani, Sasha H
Gholipourmalekabadi, Mazaher
author_facet Alizadeh, Sanaz
Nasiri, Modara
Saraei, Mohadese
Zahiri, Maria
Khosrowpour, Zahra
Sineh Sepehr, Koushan
Nouri, Masoumeh
Zarrabi, Morteza
Kalantari, Nikta
Shafikhani, Sasha H
Gholipourmalekabadi, Mazaher
Alizadeh, Sanaz
Nasiri, Modara
Saraei, Mohadese
Zahiri, Maria
Khosrowpour, Zahra
Sineh Sepehr, Koushan
Nouri, Masoumeh
Zarrabi, Morteza
Kalantari, Nikta
Shafikhani, Sasha H
Gholipourmalekabadi, Mazaher
collection PubMed - marine biology
contents Optimization of an Affordable and Efficient Skin Allograft Composite with Excellent Biomechanical and Biological Properties Suitable for the Regeneration of Deep Skin Wounds: A Preclinical Study. Alizadeh, Sanaz Nasiri, Modara Saraei, Mohadese Zahiri, Maria Khosrowpour, Zahra Sineh Sepehr, Koushan Nouri, Masoumeh Zarrabi, Morteza Kalantari, Nikta Shafikhani, Sasha H Gholipourmalekabadi, Mazaher Animals Rats Humans Wound Healing Materials Testing Biocompatible Materials Skin Allografts Alginates Particle Size Rats, Sprague-Dawley Skin, Artificial Tissue Scaffolds Tissue Engineering Regeneration Female Skin Transplantation Deep skin wounds require grafting with a skin substitute for treatment. Despite many attempts in the development of an affordable and efficient skin substitute, the repair of deep skin wounds still remains challenging. In the current study, we present a 3D sponge composite made from human placenta (a disposable organ) and sodium alginate with exceptional properties for skin tissue engineering applications. Toward this goal, different proportions of alginate (Alg) and decellularized placenta scaffold (DPS) were composited and freeze-dried to generate a 3D sponge with the desired biomechanical and biological features. Comprehensive in vitro, in ovo, and in vivo characterizations were performed to assess the morphology, physical structure, mechanical behaviors, angiogenic potential, and wound healing properties of the composites. Through these analyses, the scaffold with optimal proportions of Alg (50%) and DPS (50%) was found to have superior properties. The optimized scaffold (Alg50/DPS50) was applied to the full-thickness wounds created in rats. Our data revealed that the addition of DPS to the Alg solution caused a significant improvement in the mechanical characteristics of the scaffold. Remarkably, the fabricated composite scaffold exhibited mechanical properties similar to those of native skin tissue. When implanted into the full-thickness wounds, the Alg50/DPS50 composite scaffold promoted angiogenesis, re-epithelialization, and granulation tissue formation, as compared to the group without a scaffold. Overall, our findings underscore the potential value of this hybrid scaffold for enhancing skin wound healing and suggest an Alg50/DPS50 composite for clinical investigations.
format Artículo científico
id pubmed_39475164
institution PubMed
language en
publishDate 2024
publisher ACS applied bio materials
record_format pubmed
spellingShingle Optimization of an Affordable and Efficient Skin Allograft Composite with Excellent Biomechanical and Biological Properties Suitable for the Regeneration of Deep Skin Wounds: A Preclinical Study.
Alizadeh, Sanaz
Nasiri, Modara
Saraei, Mohadese
Zahiri, Maria
Khosrowpour, Zahra
Sineh Sepehr, Koushan
Nouri, Masoumeh
Zarrabi, Morteza
Kalantari, Nikta
Shafikhani, Sasha H
Gholipourmalekabadi, Mazaher
Animals
Rats
Humans
Wound Healing
Materials Testing
Biocompatible Materials
Skin
Allografts
Alginates
Particle Size
Rats, Sprague-Dawley
Skin, Artificial
Tissue Scaffolds
Tissue Engineering
Regeneration
Female
Skin Transplantation
Optimization of an Affordable and Efficient Skin Allograft Composite with Excellent Biomechanical and Biological Properties Suitable for the Regeneration of Deep Skin Wounds: A Preclinical Study. Alizadeh, Sanaz Nasiri, Modara Saraei, Mohadese Zahiri, Maria Khosrowpour, Zahra Sineh Sepehr, Koushan Nouri, Masoumeh Zarrabi, Morteza Kalantari, Nikta Shafikhani, Sasha H Gholipourmalekabadi, Mazaher Animals Rats Humans Wound Healing Materials Testing Biocompatible Materials Skin Allografts Alginates Particle Size Rats, Sprague-Dawley Skin, Artificial Tissue Scaffolds Tissue Engineering Regeneration Female Skin Transplantation Deep skin wounds require grafting with a skin substitute for treatment. Despite many attempts in the development of an affordable and efficient skin substitute, the repair of deep skin wounds still remains challenging. In the current study, we present a 3D sponge composite made from human placenta (a disposable organ) and sodium alginate with exceptional properties for skin tissue engineering applications. Toward this goal, different proportions of alginate (Alg) and decellularized placenta scaffold (DPS) were composited and freeze-dried to generate a 3D sponge with the desired biomechanical and biological features. Comprehensive in vitro, in ovo, and in vivo characterizations were performed to assess the morphology, physical structure, mechanical behaviors, angiogenic potential, and wound healing properties of the composites. Through these analyses, the scaffold with optimal proportions of Alg (50%) and DPS (50%) was found to have superior properties. The optimized scaffold (Alg50/DPS50) was applied to the full-thickness wounds created in rats. Our data revealed that the addition of DPS to the Alg solution caused a significant improvement in the mechanical characteristics of the scaffold. Remarkably, the fabricated composite scaffold exhibited mechanical properties similar to those of native skin tissue. When implanted into the full-thickness wounds, the Alg50/DPS50 composite scaffold promoted angiogenesis, re-epithelialization, and granulation tissue formation, as compared to the group without a scaffold. Overall, our findings underscore the potential value of this hybrid scaffold for enhancing skin wound healing and suggest an Alg50/DPS50 composite for clinical investigations.
title Optimization of an Affordable and Efficient Skin Allograft Composite with Excellent Biomechanical and Biological Properties Suitable for the Regeneration of Deep Skin Wounds: A Preclinical Study.
topic Animals
Rats
Humans
Wound Healing
Materials Testing
Biocompatible Materials
Skin
Allografts
Alginates
Particle Size
Rats, Sprague-Dawley
Skin, Artificial
Tissue Scaffolds
Tissue Engineering
Regeneration
Female
Skin Transplantation
url https://pubmed.ncbi.nlm.nih.gov/39475164/