Akermanite scaffolds reinforced with boron nitride nanosheets in bone tissue engineering

2015 ◽  
Vol 26 (5) ◽  
Author(s):  
Cijun Shuai ◽  
Zikai Han ◽  
Pei Feng ◽  
Chengde Gao ◽  
Tao Xiao ◽  
...  
Keyword(s):  
Tissue Engineering ◽  
Boron Nitride ◽  
Bone Tissue Engineering ◽  
Bone Tissue ◽  
Boron Nitride Nanosheets

scholarly journals Design of Boron Nitride/Gelatin Electrospun Nanofibers for Bone Tissue Engineering

2017 ◽  
Vol 9 (39) ◽  
pp. 33695-33706 ◽  
Author(s):  
Sakthivel Nagarajan ◽  
Habib Belaid ◽  
Céline Pochat-Bohatier ◽  
Catherine Teyssier ◽  
Igor Iatsunskyi ◽  
...  
Keyword(s):  
Tissue Engineering ◽  
Boron Nitride ◽  
Bone Tissue Engineering ◽  
Bone Tissue ◽  
Electrospun Nanofibers

PEGylated boron nitride nanotube-reinforced poly(propylene fumarate) nanocomposite biomaterials

RSC Advances ◽  
2016 ◽  
Vol 6 (83) ◽  
pp. 79507-79519 ◽  
Author(s):  
Ana M. Díez-Pascual ◽  
Angel L. Díez-Vicente
Keyword(s):  
Tissue Engineering ◽  
Boron Nitride ◽  
Bone Tissue Engineering ◽  
Bone Tissue ◽  
Boron Nitride Nanotube ◽  
Poly Propylene

Novel PPF/PEG-g-BNNTs nanocomposites were synthesized and characterized. These antibacterial and non-toxic biomaterials are suitable for bone tissue engineering.

scholarly journals Boron Nitride Based Nanobiocomposites: Design by 3D Printing for Bone Tissue Engineering

2020 ◽  
Vol 3 (4) ◽  
pp. 1865-1874 ◽  
Author(s):  
Habib Belaid ◽  
Sakthivel Nagarajan ◽  
Carole Barou ◽  
Vincent Huon ◽  
Jonathan Bares ◽  
...  
Keyword(s):  
Tissue Engineering ◽  
3D Printing ◽  
Boron Nitride ◽  
Bone Tissue Engineering ◽  
Bone Tissue

HYDROXYAPATITE, ALGINATE, AND CHITOSAN FOR BONE SCAFFOLDS: SPECTROSCOPY STUDY

2016 ◽  
Vol 19 (2) ◽  
pp. 93-100
Author(s):  
Lalita El Milla
Keyword(s):  
Tissue Engineering ◽  
Bone Tissue Engineering ◽  
Bone Tissue ◽  
Functional Groups ◽  
Bone Growth ◽  
Three Dimensional ◽  
Dimensional Structure ◽  
Tissue Engineering Scaffolds ◽  
Hydroxyapatite Powder ◽  
Materials Used

Scaffolds is three dimensional structure that serves as a framework for bone growth. Natural materials are often used in synthesis of bone tissue engineering scaffolds with respect to compliance with the content of the human body. Among the materials used to make scafffold was hydroxyapatite, alginate and chitosan. Hydroxyapatite powder obtained by mixing phosphoric acid and calcium hydroxide, alginate powders extracted from brown algae and chitosan powder acetylated from crab. The purpose of this study was to examine the functional groups of hydroxyapatite, alginate and chitosan. The method used in this study was laboratory experimental using Fourier Transform Infrared (FTIR) spectroscopy for hydroxyapatite, alginate and chitosan powders. The results indicated the presence of functional groups PO43-, O-H and CO32- in hydroxyapatite. In alginate there were O-H, C=O, COOH and C-O-C functional groups, whereas in chitosan there were O-H, N-H, C=O, C-N, and C-O-C. It was concluded that the third material containing functional groups as found in humans that correspond to the scaffolds material in bone tissue engineering.

PLGA+HA/βTCP scaffold incorporating simvastatin: a promising biomaterial for bone tissue engineering

2020 ◽  
Author(s):  
Mariane Beatriz Sordi ◽  
Ariadne Cristiane Cabral da Cruz ◽  
Águedo Aragones ◽  
Mabel Mariela Rodríguez Cordeiro ◽  
Ricardo de Souza Magini
Keyword(s):  
Tissue Engineering ◽  
Bone Tissue Engineering ◽  
Bone Tissue ◽  
Thermal Analyses ◽  
Chemical Properties ◽  
Biological Properties ◽  
Scanning Calorimetry ◽  
Evaporation Technique ◽  
Porosity Analysis ◽  
Biphasic Ceramic

The aim of this study was to synthesize, characterize, and evaluate degradation and biocompatibility of poly(lactic-co-glycolic acid) + hydroxyapatite / β-tricalcium phosphate (PLGA+HA/βTCP) scaffolds incorporating simvastatin (SIM) to verify if this biomaterial might be promising for bone tissue engineering. Samples were obtained by the solvent evaporation technique. Biphasic ceramic particles (70% HA, 30% βTCP) were added to PLGA in a ratio of 1:1. Samples with SIM received 1% (m:m) of this medication. Scaffolds were synthesized in a cylindric-shape and sterilized by ethylene oxide. For degradation analysis, samples were immersed in PBS at 37 °C under constant stirring for 7, 14, 21, and 28 days. Non-degraded samples were taken as reference. Mass variation, scanning electron microscopy, porosity analysis, Fourier transform infrared spectroscopy, differential scanning calorimetry, and thermogravimetry were performed to evaluate physico-chemical properties. Wettability and cytotoxicity tests were conducted to evaluate the biocompatibility. Microscopic images revealed the presence of macro, meso, and micropores in the polymer structure with HA/βTCP particles homogeneously dispersed. Chemical and thermal analyses presented very similar results for both PLGA+HA/βTCP and PLGA+HA/βTCP+SIM. The incorporation of simvastatin improved the hydrophilicity of scaffolds. Additionally, PLGA+HA/βTCP and PLGA+HA/βTCP+SIM scaffolds were biocompatible for osteoblasts and mesenchymal stem cells. In summary, PLGA+HA/βTCP scaffolds incorporating simvastatin presented adequate structural, chemical, thermal, and biological properties for bone tissue engineering.

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