Tissue Engineering

Scaffolds

8/22/2008

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“Cells are often implanted or 'seeded' into an artificial structure capable of supporting three-dimensional tissue formation. These structures, typically called scaffolds, are often critical, both ex vivo as well as in vivo, to recapitulating the in vivo milieu and allowing cells to influence their own microenvironments. Scaffolds usually serve at least one of the following purposes:

Allow cell attachment and migration
Deliver and retain cells and biochemical factors
Enable diffusion of vital cell nutrients and expressed products
Exert certain mechanical and biological influences to modify the behaviour of the cell phase”
Wikipedia: http://en.wikipedia.org/wiki/Tissue_engineering (11/22/2008)

Notes

Review Articles

US Patents

Journal Articles

 

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Alginates

Blood Vessels

Bone Generation

Bone Repair

Cartilage Formation

Cell Differentiation

Cell Growth

Chitosan Scaffolds

Coatings for Scaffolds

Collagen Scaffolds

Control

Dextran Scaffolds
Fibrin Scaffolds

Fibrous Scaffolds

Film Scaffolds

Foam Scaffolds

Gelatin Scaffolds

Hyaluronic Acid Scaffolds

Hydrogel Scaffolds

Hydroxyapatite Scaffolds

Imaging Tissue Growth
Microfluidic Scaffolds

Muscle Growth

Nanofiber Scaffolds

Nerve Cells

Phosphate Scaffolds

Polyacrylamide Scaffolds

Polyester Scaffolds

Polyethylene Scaffolds

Polylactic Acid Scaffolds

Poly(lactic-co-glycolic)acid  (PLGA) Scaffolds

Polylactone Scaffolds

Polymethylmethacrylate (PMMA) Scaffolds

Polypyrrole Scaffolds

Polyurethane Scaffolds

Skin Generation

Stem Cells

Titanium Scaffolds

Warning:  Sometimes the older links no longer work.  Go to the US Patent number search page, copy the Patent number into the search box and search.  For the articles, use your browser to go the Journal site. 

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Notes 

“To achieve the goal of tissue reconstruction, scaffolds must meet some specific requirements. A high porosity and an adequate pore size are necessary to facilitate cell seeding and diffusion throughout the whole structure of both cells and nutrients. Biodegradability is often an essential factor since scaffolds should preferably be absorbed by the surrounding tissues without the necessity of a surgical removal. The rate at which degradation occurs has to coincide as much as possible with the rate of tissue formation: this means that while cells are fabricating their own natural matrix structure around themselves, the scaffold is able to provide structural integrity within the body and eventually it will break down leaving the neotissue, newly formed tissue which will take over the mechanical load. Injectability is also important for clinical uses.”
Wikipedia: http://en.wikipedia.org/wiki/Tissue_engineering (11/22/2008)

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Review Articles

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US Patents

11/18/2008

7,452,720
Apparatus for preparing a biocompatible matrix

7,452,491
Method for forming scaffolds

11/11/2008

7,449,180
Macroscopic scaffold containing amphiphilic peptides encapsulating cells

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Journal Articles

2/6/2009

Synthesis of Unprecedented Scaffold Diversity 
(p 1194-1196)
Angewandte Chemie International Edition 48 #7 (2009)
Abstract

1/23/2009

Cell Distribution in a Scaffold with Random Architectures under the Influence of Fluid Dynamics  
(229-245) Journal of Biomaterials Applications 23, #3 (2009)
[Abstract]

Tuning of cell proliferation on tough gels by critical charge effect 
(p 74-83)
Journal of Biomedical Materials Research 88A #1 (2009)
Abstract

Boronate-containing polymer brushes: Characterization, interaction with saccharides and mammalian cancer cells 
(p 213-225)
Journal of Biomedical Materials Research 88A #1 (2009)
Abstract

Effect of 3D-microstructure of bioabsorbable PGA:TMC scaffolds on the growth of chondrogenic cells 
(p 92-102)
Journal of Biomedical Materials Research 88B #1 (2009)
Abstract

Multinozzle low-temperature deposition system for construction of gradient tissue engineering scaffolds 
(p 254-263)
Journal of Biomedical Materials Research 88B #1 (2009)
Abstract

1/9/2009

Reversible Immobilization onto PEG-based Emulsion-templated Porous Polymers by Co-assembly of Stimuli Responsive Polymers 
(p 55-59)
Advanced Materials 21 #1 (2008)
Abstract

Sulfated glyco-block copolymers with specific receptor and growth factor binding to support cell adhesion and proliferation
(1026-1035) Biomaterials 30  #6 (2009)

11/21/2008

The development of peptide-based interfacial biomaterials for generating biological functionality on the surface of bioinert materials
(277-286) Biomaterials 30  #3 (2009) 

The correlation between the adsorption of adhesive proteins and cell behaviour on hydroxyl-methyl mixed self-assembled monolayers
(307-316) Biomaterials 30  #3 (2009)

Light harvesting antenna on an amyloid scaffold
(6522 - 6524) Chemical Communications #48 (2008)

Nanostructured Biomaterials for Regeneration 
(p 3568-3582) V
Advanced Functional Materials 18  #22 (2008)
Abstract

From material to tissue: Biomaterial development, scaffold fabrication, and tissue engineering 
(p 3048-3067)  
AIChE Journal 54 #12 (2008)
Abstract

11/7/2008

Cells anchored upon a thin organic film with different nano-mechanical properties
(301-303) Applied Surface Science 255  #2 (2008)

Scaffolds based on hyaluronan crosslinked with a polyaminoacid: Novel candidates for tissue engineering application 
(p 770-779)
Journal of Biomedical Materials Research 87A #3 (2008)
Abstract  

Bacterial and Candida albicans adhesion on rapid prototyping-produced 3D-scaffolds manufactured as bone replacement materials 
(p 933-943)
Journal of Biomedical Materials Research 87A #4 (2008)
Abstract

Endothelial cells derived from circulating progenitors as an effective source to functional endothelialization of NaOH-treated poly(epsiv-caprolactone) films 
(p 964-971)
Journal of Biomedical Materials Research 87A #4 (2008)
Abstract

Granulocyte colony-stimulating factor administration alters femoral biomechanical properties in C57BL/6 mice 
(p 972-979)
Journal of Biomedical Materials Research 87A #4 (2008)
Abstract

Electrospinning of photocrosslinked and degradable fibrous scaffolds 
(p 1034-1043)
Journal of Biomedical Materials Research 87A #4 (2008)
Abstract

Acellular matrices derived from differentiating embryonic stem cells 
(p 1075-1085)
Journal of Biomedical Materials Research 87A #4 (2008)
Abstract  

10/31/1008

Towards area-based in vitro metabolic engineering: Assembly of Pfs enzyme onto patterned microfabricated chips 
(p 1042-1051)
 Biotechnology  Progress 24  #5 (2008)
Abstract

10/31/1008

Three-dimensional culture for monoclonal antibody production by hybridoma cells immobilized in macroporous gel particles 
(p 1122-1131)
 Biotechnology  Progress 24  #5 (2008)
Abstract

10/24/2008

Hierarchical Self-Organization of Nanomaterials into Two-Dimensional Arrays Using Functional Polymer Scaffold 
(p 3213-3218)
Advanced Functional Materials 18  #20 (2008)
Abstract

Micro-stamped surfaces for the patterned growth of neural stem cells
(4766-4774) Biomaterials 29  #36 (2008)

Biocompatibility markers for the study of interactions between osteoblasts and composite biomaterials
(45-5) Biomaterials 30  #1 (2009)

Polymer model of cancer cell adhesion to glycosaminoglycan substrates using the radius of gyration 
(p 70-77)
Journal of Applied Polymer  Science 111 #1 (2009)
Abstract

9/26/2008

Distribution of lipid nanocapsules in different cochlear cell populations after round window membrane permeation 
(p 10-18)
Journal of Biomedical Materials Research 87B #1 (2008)
Abstract  

Fabrication of porous, drug-releasing, biodegradable, polymer scaffolds for sustained drug release 
(p 121-131)
Journal of Biomedical Materials Research 87B #1 (2008)
Abstract

9/19/2008

High yields of monomeric recombinant beta-interferon from macroporous microcarrier cultures under hypothermic conditions 
(p 832-838)
Biotechnology  Progress 24  #4 (2008)
Abstract

8/15/2008

Membrane allocation profiling: A method to characterize three-dimensional cell shape and attachment based on surface reconstruction
(3927-3935) Biomaterials 29  #29 (2008)

New strategies for in vivo tissue engineering by mimicry of homing factors for self-endothelialisation of blood contacting materials
(3936-3945) Biomaterials 29  #29 (2008)

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Notes

Review Articles

US Patents

Journal Articles

 

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Roger D. Corneliussen
Editor
Telephone: 610 883 0055
rcorneliussen@4spe.org

www.maropolymeronline.com

Copyright 2008 by Roger D. Corneliussen