Home > Press > Application of Stronger Ceramic Nanostructures in Tissue Engineering
Abstract:
Iranian researchers gained new achievements in increasing the strength of ceramic materials to be used in tissue engineering.
Application of Stronger Ceramic Nanostructures in Tissue Engineering
Tehran, Iran | Posted on January 14th, 2015This study suggests the application of nanoparticles that increase the biodegradability of implants and the required strength.
Forsterite (Mg2SiO4) is one of the novel bio-ceramics that is used in tissue engineering, specially in bone tissue. Forsterite nanoparticles are bioactive and help the natural tissue of the bone to recover the damaged bone through Osteo-conduction method. This research studies the mechanisms to increase mechanical strength and modify biological properties of the substance.
To this end, forsterite nanoparticles with dimensions less than 50 nm have been used in the production of desired scaffold. The proposed method for the production of bone scaffold is two-step sintering or cooking with controlled and adjustable thermal shelf time. This method increases bioactivity and biodegradability of the product and the mechanical strength of the structure.
Due to the low mechanical strength of materials, including hydroxyapatite, the application of these materials has been limited in tissue engineering. That is why the production of scaffolds made of forsterite nanostructures with optimum mechanical strength and properties (such as bioactivity and biological sorption) is considered an evolution in the production of scaffolds in hard tissue engineering.
Results of the research have been published in Ceramics International, vol. 41, issue 1, Part B, 2015, pp. 1361-1365.
####
For more information, please click here
Copyright © Fars News Agency
If you have a comment, please Contact us.Issuers of news releases, not 7th Wave, Inc. or Nanotechnology Now, are solely responsible for the accuracy of the content.
Bookmark:
| Related News Press |
News and information
Quantum computer improves AI predictions April 17th, 2026
Flexible sensor gains sensitivity under pressure April 17th, 2026
A reusable chip for particulate matter sensing April 17th, 2026
Detecting vibrational quantum beating in the predissociation dynamics of SF6 using time-resolved photoelectron spectroscopy April 17th, 2026
Nanomedicine
A fundamentally new therapeutic approach to cystic fibrosis: Nanobody repairs cellular defect April 17th, 2026
New molecular technology targets tumors and simultaneously silences two ‘undruggable’ cancer genes August 8th, 2025
New imaging approach transforms study of bacterial biofilms August 8th, 2025
Electrifying results shed light on graphene foam as a potential material for lab grown cartilage June 6th, 2025
Discoveries
Quantum computer improves AI predictions April 17th, 2026
Flexible sensor gains sensitivity under pressure April 17th, 2026
A reusable chip for particulate matter sensing April 17th, 2026
Detecting vibrational quantum beating in the predissociation dynamics of SF6 using time-resolved photoelectron spectroscopy April 17th, 2026
Announcements
A fundamentally new therapeutic approach to cystic fibrosis: Nanobody repairs cellular defect April 17th, 2026
UC Irvine physicists discover method to reverse ‘quantum scrambling’ : The work addresses the problem of information loss in quantum computing system April 17th, 2026
Interviews/Book Reviews/Essays/Reports/Podcasts/Journals/White papers/Posters
A fundamentally new therapeutic approach to cystic fibrosis: Nanobody repairs cellular defect April 17th, 2026
UC Irvine physicists discover method to reverse ‘quantum scrambling’ : The work addresses the problem of information loss in quantum computing system April 17th, 2026
 |
||
 |
||
| The latest news from around the world, FREE | ||
 |
||
|
|
||
| Premium Products | ||
 |
||
|
Only the news you want to read!
Learn More |
||
 |
||
|
Full-service, expert consulting
Learn More |
||
|
|
||