Javascript must be enabled to continue!
Current Concepts and Methods in Tissue Interface Scaffold Fabrication
View through CrossRef
Damage caused by disease or trauma often leads to multi-tissue damage which is both painful and expensive for the patient. Despite the common occurrence of such injuries, reconstruction can be incredibly challenging and often may focus on a single tissue, which has been damaged to a greater extent, rather than the environment as a whole. Tissue engineering offers an approach to encourage repair, replacement, and regeneration using scaffolds, biomaterials and bioactive factors. However, there are many advantages to creating a combined scaffold fabrication method approach that incorporates the treatment and regeneration of multiple tissue types simultaneously. This review provides a guide to combining multiple tissue-engineered scaffold fabrication methods to span several tissue types concurrently. Briefly, a background in the healing and composition of typical tissues targeted in scaffold fabrication is provided. Then, common tissue-engineered scaffold fabrication methods are highlighted, specifically focusing on porosity, mechanical integrity, and practicality for clinical application. Finally, an overview of commonly used scaffold biomaterials and additives is provided, and current research in combining multiple scaffold fabrication techniques is discussed. Overall, this review will serve to bridge the critical gap in knowledge pertaining to combining different fabrication methods for tissue regeneration without disrupting structural integrity and biomaterial properties.
Title: Current Concepts and Methods in Tissue Interface Scaffold Fabrication
Description:
Damage caused by disease or trauma often leads to multi-tissue damage which is both painful and expensive for the patient.
Despite the common occurrence of such injuries, reconstruction can be incredibly challenging and often may focus on a single tissue, which has been damaged to a greater extent, rather than the environment as a whole.
Tissue engineering offers an approach to encourage repair, replacement, and regeneration using scaffolds, biomaterials and bioactive factors.
However, there are many advantages to creating a combined scaffold fabrication method approach that incorporates the treatment and regeneration of multiple tissue types simultaneously.
This review provides a guide to combining multiple tissue-engineered scaffold fabrication methods to span several tissue types concurrently.
Briefly, a background in the healing and composition of typical tissues targeted in scaffold fabrication is provided.
Then, common tissue-engineered scaffold fabrication methods are highlighted, specifically focusing on porosity, mechanical integrity, and practicality for clinical application.
Finally, an overview of commonly used scaffold biomaterials and additives is provided, and current research in combining multiple scaffold fabrication techniques is discussed.
Overall, this review will serve to bridge the critical gap in knowledge pertaining to combining different fabrication methods for tissue regeneration without disrupting structural integrity and biomaterial properties.
Related Results
Synthesis and Investigation into Apatite-forming Ability of Hydroxyapatite/Chitosan-based Scaffold
Synthesis and Investigation into Apatite-forming Ability of Hydroxyapatite/Chitosan-based Scaffold
In this study, porous scaffolds were fabricated using inorganic material-hydroxyapatite and chitosan for bone-tissue engineering. The combination of hydroxyapatite and chitosan may...
Development of a polymer/ceramic composite scaffold for bone tissue engineering
Development of a polymer/ceramic composite scaffold for bone tissue engineering
The current gold standard for traumatic bone injury is autograft. Harvesting this graft material requires additional surgery, leading to potential complications and added pain and ...
Evaluation of the Effective Diffusivity of a Freeform Fabricated Scaffold Using Computational Simulation
Evaluation of the Effective Diffusivity of a Freeform Fabricated Scaffold Using Computational Simulation
In scaffold-based tissue engineering, sufficient oxygen and nutrient supply into cells within a scaffold is essential to increase cell viability and the proliferation rate. General...
Electrospun triple‐layered PLLA/gelatin. PRGF/PLLA scaffold induces fibroblast migration
Electrospun triple‐layered PLLA/gelatin. PRGF/PLLA scaffold induces fibroblast migration
AbstractThe function of fibroblast cells in wounded areas results in reconstruction of the extra cellular matrix and consequently resolution of granulation tissue. It is suggested ...
3D-printed nanohydroxyapatite/methylacrylylated silk fibroin scaffold for repairing rat skull defects
3D-printed nanohydroxyapatite/methylacrylylated silk fibroin scaffold for repairing rat skull defects
AbstractThe repair of bone defects remains a major challenge in the clinic, and treatment requires bone grafts or bone replacement materials. Existing biomaterials have many limita...
A potential approach for in vitro bone tissue engineering: expression of BMP-2 and FGF-2 on nano Ch-CA scaffolds
A potential approach for in vitro bone tissue engineering: expression of BMP-2 and FGF-2 on nano Ch-CA scaffolds
Background: Alveolar bone resorption after tooth extraction is a physiological process that cannot be avoided. The traditional approach to treating bone defects is frequently ineff...
Interface Resistance Analysis in Solid Oxide Fuel Cells
Interface Resistance Analysis in Solid Oxide Fuel Cells
A sophisticated design of the interface structure between the cathode and the electrolyte is essential to improve the performance of solid oxide fuel cells (SOFCs). It is because t...

