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Volumn 457, Issue , 2015, Pages 180-187
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3D multi-layered fibrous cellulose structure using an electrohydrodynamic process for tissue engineering
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Author keywords
Cellulose; Nanofibers; Scaffold; Tissue engineering
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Indexed keywords
BIOCOMPATIBILITY;
BIOMATERIALS;
CELL ADHESION;
CELL CULTURE;
CELL ENGINEERING;
CELLULOSE;
ELECTRIC FIELDS;
ELECTROHYDRODYNAMICS;
NANOFIBERS;
SCAFFOLDS;
SPINNING (FIBERS);
TISSUE;
TISSUE ENGINEERING;
ELECTRIC FIELD STRENGTH;
EXTRACELLULAR MATRICES;
HUMAN DERMAL FIBROBLASTS;
PROCESSING CONDITION;
REGENERATIVE MATERIALS;
THREEDIMENSIONAL (3-D);
TISSUE ENGINEERING APPLICATIONS;
TOPOLOGICAL STRUCTURE;
SCAFFOLDS (BIOLOGY);
CELLULOSE;
NANOFIBER;
ARTICLE;
BIOCOMPATIBILITY;
CELL ADHESION;
CHEMICAL STRUCTURE;
CONTROLLED STUDY;
ELECTRIC FIELD;
GEOMETRY;
HUMAN;
HUMAN CELL;
HYDRODYNAMICS;
IN VITRO STUDY;
METABOLIC ACTIVATION;
MORPHOLOGY;
NANOFABRICATION;
PHYSICAL PARAMETERS;
PRINTING;
PRIORITY JOURNAL;
SKIN FIBROBLAST;
TISSUE ENGINEERING;
CELL CULTURE;
CHEMISTRY;
CYTOLOGY;
ELECTROPLATING INDUSTRY;
FIBROBLAST;
PARTICLE SIZE;
POROSITY;
SKIN;
SURFACE PROPERTY;
CELLS, CULTURED;
CELLULOSE;
ELECTROPLATING;
FIBROBLASTS;
HUMANS;
HYDRODYNAMICS;
MOLECULAR STRUCTURE;
PARTICLE SIZE;
POROSITY;
SKIN;
SURFACE PROPERTIES;
TISSUE ENGINEERING;
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EID: 84936856301
PISSN: 00219797
EISSN: 10957103
Source Type: Journal
DOI: 10.1016/j.jcis.2015.07.007 Document Type: Article |
Times cited : (39)
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References (29)
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