Physicochemical and biocompatibility characterisation of a 3D lyophilised platelet-rich fibrin scaffold for cleft lip and palate repair

Craniofacial bone defects result from various disorders such as trauma, congenital malformations and infections. Cleft lip and palate are the most prevalent congenital craniofacial birth defect in humans. Growth factors (GFs) are soluble proteins secreted by cells that regulate various cellular proc...

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Published in:JOURNAL OF APPLIED BIOMATERIALS & FUNCTIONAL MATERIALS
Main Authors: Ngah, Nurul Aida; Ratnayake, Jithendra; Dias, George J.; Tong, Darryl C.; Noor, Siti Noor Fazliah Mohd; Cooper, Paul R.; Hussaini, Haizal Mohd
Format: Article
Language:English
Published: SAGE PUBLICATIONS LTD 2024
Subjects:
Online Access:https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001328772100001
author Ngah
Nurul Aida; Ratnayake
Jithendra; Dias
George J.; Tong
Darryl C.; Noor
Siti Noor Fazliah Mohd; Cooper
Paul R.; Hussaini
Haizal Mohd
spellingShingle Ngah
Nurul Aida; Ratnayake
Jithendra; Dias
George J.; Tong
Darryl C.; Noor
Siti Noor Fazliah Mohd; Cooper
Paul R.; Hussaini
Haizal Mohd
Physicochemical and biocompatibility characterisation of a 3D lyophilised platelet-rich fibrin scaffold for cleft lip and palate repair
Biophysics; Engineering; Materials Science
author_facet Ngah
Nurul Aida; Ratnayake
Jithendra; Dias
George J.; Tong
Darryl C.; Noor
Siti Noor Fazliah Mohd; Cooper
Paul R.; Hussaini
Haizal Mohd
author_sort Ngah
spelling Ngah, Nurul Aida; Ratnayake, Jithendra; Dias, George J.; Tong, Darryl C.; Noor, Siti Noor Fazliah Mohd; Cooper, Paul R.; Hussaini, Haizal Mohd
Physicochemical and biocompatibility characterisation of a 3D lyophilised platelet-rich fibrin scaffold for cleft lip and palate repair
JOURNAL OF APPLIED BIOMATERIALS & FUNCTIONAL MATERIALS
English
Article
Craniofacial bone defects result from various disorders such as trauma, congenital malformations and infections. Cleft lip and palate are the most prevalent congenital craniofacial birth defect in humans. Growth factors (GFs) are soluble proteins secreted by cells that regulate various cellular processes and tissue regeneration. At present, developing three-dimensional scaffolds for delivering GFs to the site of injury has become an important aspect in craniofacial bone regeneration. This study aims to develop a novel 3D bone substitute using lyophilized-platelet-rich fibrin (LyPRF) biocomposite scaffolds for potential application for CLP repair. Collagen (C), bioglass (BG), and LyPRF were used to fabricate a biocomposite (C-BG-LyPRF) scaffold. The physical, chemical, and biocompatibility properties of the scaffold were evaluated. The C-BG-LyPRF scaffold demonstrated a mean pore diameter of 146 mu m within a porosity of 87.26%. The FTIR spectra verified the presence of am-ide I, II, and III functional groups. The inorganic phase of the C-BG-LyPRF scaffold was composed of sodium, calcium, silicon, and phosphorus, as determined by EDX analysis. Furthermore, C-BG-LyPRF scaffold was biocompatible with MC3T3-E1 cells in both the Live/Dead and prolif-eration assays. Data demonstrate the developed C-BG-LyPRF scaffold exhibits biomimetic and biocompatibility properties, establishing it as a promising biomaterial for craniofacial regeneration.
SAGE PUBLICATIONS LTD

2280-8000
2024
22

10.1177/22808000241289208
Biophysics; Engineering; Materials Science
gold
WOS:001328772100001
https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001328772100001
title Physicochemical and biocompatibility characterisation of a 3D lyophilised platelet-rich fibrin scaffold for cleft lip and palate repair
title_short Physicochemical and biocompatibility characterisation of a 3D lyophilised platelet-rich fibrin scaffold for cleft lip and palate repair
title_full Physicochemical and biocompatibility characterisation of a 3D lyophilised platelet-rich fibrin scaffold for cleft lip and palate repair
title_fullStr Physicochemical and biocompatibility characterisation of a 3D lyophilised platelet-rich fibrin scaffold for cleft lip and palate repair
title_full_unstemmed Physicochemical and biocompatibility characterisation of a 3D lyophilised platelet-rich fibrin scaffold for cleft lip and palate repair
title_sort Physicochemical and biocompatibility characterisation of a 3D lyophilised platelet-rich fibrin scaffold for cleft lip and palate repair
container_title JOURNAL OF APPLIED BIOMATERIALS & FUNCTIONAL MATERIALS
language English
format Article
description Craniofacial bone defects result from various disorders such as trauma, congenital malformations and infections. Cleft lip and palate are the most prevalent congenital craniofacial birth defect in humans. Growth factors (GFs) are soluble proteins secreted by cells that regulate various cellular processes and tissue regeneration. At present, developing three-dimensional scaffolds for delivering GFs to the site of injury has become an important aspect in craniofacial bone regeneration. This study aims to develop a novel 3D bone substitute using lyophilized-platelet-rich fibrin (LyPRF) biocomposite scaffolds for potential application for CLP repair. Collagen (C), bioglass (BG), and LyPRF were used to fabricate a biocomposite (C-BG-LyPRF) scaffold. The physical, chemical, and biocompatibility properties of the scaffold were evaluated. The C-BG-LyPRF scaffold demonstrated a mean pore diameter of 146 mu m within a porosity of 87.26%. The FTIR spectra verified the presence of am-ide I, II, and III functional groups. The inorganic phase of the C-BG-LyPRF scaffold was composed of sodium, calcium, silicon, and phosphorus, as determined by EDX analysis. Furthermore, C-BG-LyPRF scaffold was biocompatible with MC3T3-E1 cells in both the Live/Dead and prolif-eration assays. Data demonstrate the developed C-BG-LyPRF scaffold exhibits biomimetic and biocompatibility properties, establishing it as a promising biomaterial for craniofacial regeneration.
publisher SAGE PUBLICATIONS LTD
issn
2280-8000
publishDate 2024
container_volume 22
container_issue
doi_str_mv 10.1177/22808000241289208
topic Biophysics; Engineering; Materials Science
topic_facet Biophysics; Engineering; Materials Science
accesstype gold
id WOS:001328772100001
url https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001328772100001
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