Increasing the pore sizes of bone-mimetic electrospun scaffolds comprised of polycaprolactone, collagen I and hydroxyapatite to enhance cell infiltration.
about
Histological and micro-computed tomographic observations after maxillary sinus augmentation with porous hydroxyapatite alloplasts: a clinical case series.Microporous dermal-mimetic electrospun scaffolds pre-seeded with fibroblasts promote tissue regeneration in full-thickness skin woundsThe effect of scaffold macroporosity on angiogenesis and cell survival in tissue-engineered smooth muscle.Nanofibrous chitosan-polyethylene oxide engineered scaffolds: a comparative study between simulated structural characteristics and cells viability.Reconstruction of radial bone defect using gelatin sponge and a BMP-2 combination graft.Microporous dermal-like electrospun scaffolds promote accelerated skin regeneration.Delivery of platelet-derived growth factor as a chemotactic factor for mesenchymal stem cells by bone-mimetic electrospun scaffolds.Tissue-engineering-based strategies for regenerative endodontics.Enhanced growth of endothelial precursor cells on PCG-matrix facilitates accelerated, fibrosis-free, wound healing: a diabetic mouse modelRapid prototyping amphiphilic polymer/hydroxyapatite composite scaffolds with hydration-induced self-fixation behavior.Osseointegrative properties of electrospun hydroxyapatite-containing nanofibrous chitosan scaffolds.Functionalized scaffolds to enhance tissue regenerationNovel biodegradable star-shaped polylactide scaffolds for bone regeneration fabricated by two-photon polymerization.Biocompatibility of Subcutaneously Implanted Plant-Derived Cellulose Biomaterials.Recent advances in bone tissue engineering scaffolds.The effect of increasing the pore size of nanofibrous scaffolds on the osteogenic cell culture using a combination of sacrificial agent electrospinning and ultrasonication.Fabrication of in situ polymerized poly(butylene succinate-co-ethylene terephthalate)/hydroxyapatite nanocomposite to fibrous scaffolds for enhancement of osteogenesis.3D Printing for Tissue Engineering.Cellularized Bilayer Pullulan-Gelatin Hydrogel for Skin Regeneration.Winner of the Young Investigator Award of the Society for Biomaterials at the 10th World Biomaterials Congress, May 17-22, 2016, Montreal QC, Canada: Microribbon-based hydrogels accelerate stem cell-based bone regeneration in a mouse critical-size cPolymeric scaffolds as stem cell carriers in bone repair.From in vitro to in situ tissue engineering.Polymer-ceramic spiral structured scaffolds for bone tissue engineering: effect of hydroxyapatite composition on human fetal osteoblasts.A review of key challenges of electrospun scaffolds for tissue-engineering applications.Templated Assembly of Collagen Fibers Directs Cell Growth in 2D and 3D.Bicomponent electrospun scaffolds to design extracellular matrix tissue analogs.Four-Dimensional Printing Hierarchy Scaffolds with Highly Biocompatible Smart Polymers for Tissue Engineering Applications.Taking cues from the extracellular matrix to design bone-mimetic regenerative scaffolds.Methodologies in creating skin substitutes.In pursuit of functional electrospun materials for clinical applications in humans.Methods for Implant Acceptance and Wound Healing: Material Selection and Implant Location Modulate Macrophage and Fibroblast Phenotypes.Improved cellular infiltration in electrospun fiber via engineered porosity.Novel xeno-free human heart matrix-derived three-dimensional scaffolds.Effect of thickness of HA-coating on microporous silk scaffolds using alternate soaking technology.Creation of macropores in electrospun silk fibroin scaffolds using sacrificial PEO-microparticles to enhance cellular infiltration.Mesoporous bioactive glass surface modified poly(lactic-co-glycolic acid) electrospun fibrous scaffold for bone regeneration.Bicomponent electrospinning to fabricate three-dimensional hydrogel-hybrid nanofibrous scaffolds with spatial fiber tortuosity.Ultraporous nanofeatured PCL-PEO microfibrous scaffolds enhance cell infiltration, colonization and myofibroblastic differentiation.Engineering bone tissue using human dental pulp stem cells and an osteogenic collagen-hydroxyapatite-poly (L-lactide-co-ε-caprolactone) scaffold.The influence of prefreezing temperature on pore structure in freeze-dried beta-TCP scaffolds.
P2860
Q27318815-68F553C1-E0FD-4C0A-837E-79C7722CF98DQ28544820-BAEE8896-8CE9-4D12-9532-E93FB4EDDEB0Q33601242-EDF42245-E413-41CF-BEE6-3B0453E7725FQ33786880-27000AD5-792D-48D3-B82B-D236F2945005Q34049514-8FF79ED7-274B-42B5-986F-A051E9947E9CQ34165048-F4F1958D-E155-4F17-BBE1-C5CFDF2F2A2AQ34342438-5AA991E5-E399-4727-A965-6AB218A3A091Q34543469-3AE71DC7-3446-4711-BEFB-811434FC90D8Q34905081-0FE0D884-5246-479C-95A2-318974CBEDB2Q35137309-A466E071-51B7-4748-A05C-8CF922BAD496Q35167225-0E31080F-BDA2-4642-938E-3816B9446A8CQ35249170-5A493952-16DF-4DD1-887D-9E18EE8CBB73Q35989853-101DF47A-6C72-4A67-933A-59A631ACD7F0Q36058035-37F06194-9C76-4C0D-A379-BB71BFEEA1D5Q36252678-724F117E-D502-4897-82CE-68B11059EDC0Q36296370-4ED66643-4DD7-42AE-99C8-D4861655D516Q36389785-DAE9CDB8-7ECA-4A87-A650-E348307F9E1CQ36560370-CD5CF719-BABD-4F11-8C23-FBC9E3DFAAA1Q36925759-AE49B5F7-BCC2-4AA7-BF94-7440EBABB206Q37482160-D064AC91-4109-40A6-844A-C2FD66D4E4BBQ38199462-B060BF86-F05C-4502-B7D5-DDA0DD1A38FAQ38210263-45BDA567-CA1F-4960-A71F-F57EDD03AA1DQ38309364-436F6D5A-77B0-403E-939C-60CD306B64DEQ38331750-AB14209C-BA8E-4C72-9DBB-D4881A890277Q38635884-FADDE63D-A39C-403A-88B6-450D1E07B610Q38653260-5C80F43F-8EFC-4926-8430-39121B87A938Q38757715-5140E17C-9239-4927-AC26-853E83E8F6B3Q38759581-D5FFF1BE-8DAC-4143-94D1-5F1D2A7543FDQ38827800-0901D2F1-F5F5-4849-A1BD-E9BA0D81AB02Q38850505-993D83D6-09A2-4FFE-832F-B47C0C9B43DEQ38946134-DE5A190B-808D-40FF-AB1D-A1A7C6A35CECQ40126348-82B7EBE0-BB22-466E-9736-3275F973618FQ41822561-C7059208-2920-4865-8153-22CD55C5BA8AQ41880860-CE1BD1C2-D8C2-41F6-B2DA-D0B5D3DFE73EQ42008748-2079CAA8-EB8C-40F5-8D3B-8C86124B3E7BQ42049720-5501E35A-0E9F-4D9A-9EA2-6953F70619C8Q42800499-579865FD-BB16-4DD5-BCE6-3D469EFAC000Q42823677-16161254-2682-4B89-BDA2-D6E54F90B70EQ44753535-BE3F9C27-9929-4398-A269-CC57B5C96C8AQ45716697-E547BC02-DCB3-4659-A36E-F8741CB71AE2
P2860
Increasing the pore sizes of bone-mimetic electrospun scaffolds comprised of polycaprolactone, collagen I and hydroxyapatite to enhance cell infiltration.
description
2011 nî lūn-bûn
@nan
2011年の論文
@ja
2011年論文
@yue
2011年論文
@zh-hant
2011年論文
@zh-hk
2011年論文
@zh-mo
2011年論文
@zh-tw
2011年论文
@wuu
2011年论文
@zh
2011年论文
@zh-cn
name
Increasing the pore sizes of b ...... to enhance cell infiltration.
@en
Increasing the pore sizes of b ...... to enhance cell infiltration.
@nl
type
label
Increasing the pore sizes of b ...... to enhance cell infiltration.
@en
Increasing the pore sizes of b ...... to enhance cell infiltration.
@nl
prefLabel
Increasing the pore sizes of b ...... to enhance cell infiltration.
@en
Increasing the pore sizes of b ...... to enhance cell infiltration.
@nl
P2093
P2860
P1433
P1476
Increasing the pore sizes of b ...... to enhance cell infiltration.
@en
P2093
Gregory A Clines
Jessica M Grunda
Matthew C Phipps
Susan L Bellis
William C Clem
P2860
P304
P356
10.1016/J.BIOMATERIALS.2011.09.080
P577
2011-10-19T00:00:00Z