<p>(A) A 3D collagen scaffold measured to a diameter of 8 mm and a thickness of 2 mm. (B) Representative images captured by scanning electron microscopy on the surface (left) and through a cross section (right) of collagen scaffold.</p
Additional file 1: Appendix S1. Cross-section grayscale images of all model specimens: A) 37 MAX B) ...
3D printing is of great interest for tissue engineering scaffolds due to the ability to form complex...
<p>Confocal microscopy for visualization of fibronectin network (red) to illustrate the filling of s...
<p>This granular scaffolds were taken photographs under the scanning electron microscope (125×). The...
Abstract Background Collagen-based scaffolds provide a promising option for the treatment of bone de...
Additional file 2: Appendix S3. Movie is presenting inner structure of collagen-based scaffold (RT M...
Image processing permits scientists to investigate morphological properties of three-dimensional str...
In tissue engineering, porous scaffolds are often used as three-dimensional (3D) supports for tissue...
<p>Optical micrographs of 3D interconnected porous scaffold prepared by SLS and SEM images of the po...
A complete morphologic characterization of porous scaffolds for tissue engineering application is fu...
Detailed knowledge of the porous architecture of synthetic scaffolds for tissue engineering, their m...
Tissue engineering applications commonly encompass the use of three-dimensional (3D) scaffolds to pr...
The record contains a sample stack of images of a 0.75wt% collagen scaffold. These images were obtai...
Tissue engineering involves seeding the patient’s cells on to a three-dimensional temporary scaffold...
A limitation to engineering viable thick tissues (greater than a few hundred microns in thickness) h...
Additional file 1: Appendix S1. Cross-section grayscale images of all model specimens: A) 37 MAX B) ...
3D printing is of great interest for tissue engineering scaffolds due to the ability to form complex...
<p>Confocal microscopy for visualization of fibronectin network (red) to illustrate the filling of s...
<p>This granular scaffolds were taken photographs under the scanning electron microscope (125×). The...
Abstract Background Collagen-based scaffolds provide a promising option for the treatment of bone de...
Additional file 2: Appendix S3. Movie is presenting inner structure of collagen-based scaffold (RT M...
Image processing permits scientists to investigate morphological properties of three-dimensional str...
In tissue engineering, porous scaffolds are often used as three-dimensional (3D) supports for tissue...
<p>Optical micrographs of 3D interconnected porous scaffold prepared by SLS and SEM images of the po...
A complete morphologic characterization of porous scaffolds for tissue engineering application is fu...
Detailed knowledge of the porous architecture of synthetic scaffolds for tissue engineering, their m...
Tissue engineering applications commonly encompass the use of three-dimensional (3D) scaffolds to pr...
The record contains a sample stack of images of a 0.75wt% collagen scaffold. These images were obtai...
Tissue engineering involves seeding the patient’s cells on to a three-dimensional temporary scaffold...
A limitation to engineering viable thick tissues (greater than a few hundred microns in thickness) h...
Additional file 1: Appendix S1. Cross-section grayscale images of all model specimens: A) 37 MAX B) ...
3D printing is of great interest for tissue engineering scaffolds due to the ability to form complex...
<p>Confocal microscopy for visualization of fibronectin network (red) to illustrate the filling of s...