Nothing Special   »   [go: up one dir, main page]

Pawelec et al., 2014 - Google Patents

Understanding anisotropy and architecture in ice-templated biopolymer scaffolds

Pawelec et al., 2014

View PDF
Document ID
7595830270415168880
Author
Pawelec K
Husmann A
Best S
Cameron R
Publication year
Publication venue
Materials Science and Engineering: C

External Links

Snippet

Biopolymer scaffolds have great therapeutic potential within tissue engineering due to their large interconnected porosity and biocompatibility. Using an ice-templated technique, where collagen is concentrated into a porous network by ice nucleation and growth, scaffolds with …
Continue reading at www.repository.cam.ac.uk (PDF) (other versions)

Similar Documents

Publication Publication Date Title
Pawelec et al. Understanding anisotropy and architecture in ice-templated biopolymer scaffolds
Pawelec et al. A design protocol for tailoring ice-templated scaffold structure
Pawelec et al. Ice-templated structures for biomedical tissue repair: From physics to final scaffolds
Joukhdar et al. Ice templating soft matter: fundamental principles and fabrication approaches to tailor pore structure and morphology and their biomedical applications
Offeddu et al. Multi-scale mechanical response of freeze-dried collagen scaffolds for tissue engineering applications
Pawelec et al. Altering crystal growth and annealing in ice-templated scaffolds
Divakar et al. Anisotropic freeze-cast collagen scaffolds for tissue regeneration: How processing conditions affect structure and properties in the dry and fully hydrated states
Gun’ko et al. Properties of water bound in hydrogels
Zhou et al. Combination of fused deposition modeling and gas foaming technique to fabricated hierarchical macro/microporous polymer scaffolds
Baldino et al. FEM modeling of the reinforcement mechanism of hydroxyapatite in PLLA scaffolds produced by supercritical drying, for tissue engineering applications
Yuan et al. Effects of the cooling mode on the structure and strength of porous scaffolds made of chitosan, alginate, and carboxymethyl cellulose by the freeze-gelation method
Wang et al. 3D printing of Pickering emulsion inks to construct poly (D, L-lactide-co-trimethylene carbonate)-based porous bioactive scaffolds with shape memory effect
Xia et al. In-vitro cytotoxicity and in-vivo biocompatibility of as-extruded Mg–4.0 Zn–0.2 Ca alloy
Suchý et al. Dry versus hydrated collagen scaffolds: are dry states representative of hydrated states?
Haugen et al. Characterization of morphology—3D and porous structure
Ivan'kova et al. In-situ cryo-SEM investigation of porous structure formation of chitosan sponges
Rouhollahi et al. Effect of mold geometry on pore size in freeze-cast chitosan-alginate scaffolds for tissue engineering
Ukpai et al. A three-dimensional model for analysis and control of phase change phenomena during 3D printing of biological tissue
Du et al. Hierarchical macro/micro-porous silk fibroin scaffolds for tissue engineering
Warburton et al. Freezing-modulated-crosslinking: A crosslinking approach for 3D cryoprinting
Yin et al. Structure-property-processing correlations of longitudinal freeze-cast chitosan scaffolds for biomedical applications
Ghaleh et al. Mimicking the quasi-random assembly of protein fibers in the dermis by freeze-drying method
Pramanik et al. Transversely isotropic freeze-dried PVA hydrogels: Theoretical modelling and experimental characterization
Yin et al. Preparation and characterization of cross-linked PCL porous membranes
Doyle et al. Evaluation of a multiscale modelling methodology to predict the mechanical properties of PCL/β-TCP sintered scaffold materials