about
Boundary cap neural crest stem cells homotopically implanted to the injured dorsal root transitional zone give rise to different types of neurons and glia in adult rodents.Co-transplantation of human pancreatic islets with post-migratory neural crest stem cells increases β-cell proliferation and vascular and neural regrowth.Regulation of boundary cap neural crest stem cell differentiation after transplantation.Guiding differentiation of stem cells in vivo by tetracycline-controlled expression of key transcription factors.Long-term survival, robust neuronal differentiation, and extensive migration of human forebrain stem/progenitor cells transplanted to the adult rat dorsal root ganglion cavity.A Combinatorial Approach to Induce Sensory Axon Regeneration into the Dorsal Root Avulsed Spinal Cord.In vitro generation of motor neuron precursors from mouse embryonic stem cells using mesoporous nanoparticles.Delivery of differentiation factors by mesoporous silica particles assists advanced differentiation of transplanted murine embryonic stem cells.Modified expression of Mts1/S100A4 protein in C6 glioma cells or surrounding astrocytes affects migration of tumor cells in vitro and in vivo.Boundary Cap Neural Crest Stem Cells Promote Survival of Mutant SOD1 Motor Neurons.Human Embryonic Stem Cell-Derived Progenitors Assist Functional Sensory Axon Regeneration after Dorsal Root Avulsion Injury.Knock-down of ZBED6 in insulin-producing cells promotes N-cadherin junctions between beta-cells and neural crest stem cells in vitro.Neural crest stem cells increase beta cell proliferation and improve islet function in co-transplanted murine pancreatic islets.Murine neural crest stem cells and embryonic stem cell-derived neuron precursors survive and differentiate after transplantation in a model of dorsal root avulsion.Differentiation and migration of astrocytes in the spinal cord following dorsal root injury in the adult rat.Cultured astrocytes derived from corpus callosum or cortical grey matter show distinct glutamate handling properties.Neural crest stem cells from hair follicles and boundary cap have different effects on pancreatic islets in vitro.A model for implanting neuronal tissue into the cochlea.In vitro interactions between insulin-producing beta cells and embryonic dorsal root ganglia.Intracellular calcium-binding protein S100A4 influences injury-induced migration of white matter astrocytes.Differentiation and migration of neural crest stem cells are stimulated by pancreatic islets.Surface coating of pancreatic islets with neural crest stem cells improves engraftment and function after intraportal transplantation.Forced Runx1 expression in human neural stem/progenitor cells transplanted to the rat dorsal root ganglion cavity results in extensive axonal growth specifically from spinal cord-derived neurospheres.Boundary cap neural crest stem cell transplants contribute Mts1/S100A4-expressing cells in the glial scar.Neural crest stem cells protect spinal cord neurons from excitotoxic damage and inhibit glial activation by secretion of brain-derived neurotrophic factor.Advances in stem cell therapy for amyotrophic lateral sclerosisStrategies for repair of the deafferented spinal cordFunctional connections are established in the deafferented rat spinal cord by peripherally transplanted human embryonic sensory neuronsGlial cell proliferation in the spinal cord after dorsal rhizotomy or sciatic nerve transection in the adult ratEffects of dorsal root transection on morphology and chemical composition of degenerating nerve fibers and reactive astrocytes in the dorsal funiculusSensory neurite outgrowth on white matter astrocytes is influenced by intracellular and extracellular S100A4 proteinCoculture of insulin-producing RIN5AH cells with neural crest stem cells protects partially against cytokine-induced cell deathDifferentiating neural crest stem cells induce proliferation of cultured rodent islet beta cellsMicroglia and neuropathic pain
P50
Q33749731-637C5BFB-DA26-4E5C-8ADB-8FDD8A0FE0D1Q35558789-9B21DBBD-2CAE-42A7-881B-8A4839BBFBDCQ37322684-3ED63EC5-4CA0-4B2B-9A2E-B36F6A2BBA6CQ37999164-3A0BE138-2CCD-4715-965A-C746645E5C79Q38608330-295D1748-55A6-4923-A52F-47EC2AB1DFFBQ38754204-B0ACA847-74CD-4547-8CFB-2C03600050C3Q39012502-BA505556-F3C9-4D0C-91C0-6427473766F0Q39088573-EFADDF2F-0BA7-45A9-87F0-1EA5DA77FE88Q40183154-E970B262-DCBD-4FF1-BF95-73683C7B098CQ41009549-91D8304A-F29A-4312-ADA7-A14757522C18Q42593029-F822E6A8-946C-469F-A9DF-9D3B168D7E65Q43096901-31E250BA-A563-4638-873A-93B140212D23Q43262810-72482CB8-807A-4FAD-ACF8-1D2DE9B7E1AFQ43555038-1E3167A3-E707-4B47-9557-221169369F40Q44326182-4D1EDF71-0F63-47AE-9939-3C5D7EBE6858Q46119590-5BF0BB5A-8E82-4522-903D-D0C46D705041Q46200098-BBB344DC-5B62-48D0-97EF-2F03FE266DFCQ46288751-BDB926C3-9F60-41B4-B0F2-D5FD0D2D2974Q46782034-4680425A-FDBF-4ED4-8887-A7C6689C46F8Q46931651-145B88FE-0498-4218-AE0F-8AD889B37911Q47865902-1EBDAACE-E2FA-4343-A897-D22CA2CC1922Q50284130-2A4C93C8-21AA-448C-8914-BB6C97E68658Q50526685-F6B21086-B6B4-448D-BE3C-1C081CF1E467Q50941390-B04EE141-EBC4-4ABA-B8D7-62EB9846403FQ55082031-875AF3BD-A1E5-4746-ADEC-76716794006FQ57172142-F8540605-715B-4EFD-8E39-BA98A9977154Q73009742-3372AA28-D2F6-4A98-BADB-BD57BC56CD24Q73072454-4BFB6E13-42E4-445C-8B20-C9A7C9BEAD27Q73662919-73AF7852-803D-4CAF-A96C-499524265B90Q73947802-4491AB48-AE1C-4952-9749-875B61F6B29DQ82366093-61A70605-0C3A-4899-8547-1AEF609C2EEBQ83640571-1DBA8644-F948-4B4D-8C0C-DD4176AD5489Q84197584-08B86C54-E7DB-4AC6-BF00-4C2EBD7CD80BQ85946581-385DE3FA-9753-4E33-9F78-F1FF258B23CA
P50
description
researcher
@en
wetenschapper
@nl
հետազոտող
@hy
name
Elena Nickolaevna Kozlova
@ast
Elena Nickolaevna Kozlova
@en
Elena Nickolaevna Kozlova
@es
Elena Nickolaevna Kozlova
@nl
type
label
Elena Nickolaevna Kozlova
@ast
Elena Nickolaevna Kozlova
@en
Elena Nickolaevna Kozlova
@es
Elena Nickolaevna Kozlova
@nl
prefLabel
Elena Nickolaevna Kozlova
@ast
Elena Nickolaevna Kozlova
@en
Elena Nickolaevna Kozlova
@es
Elena Nickolaevna Kozlova
@nl
P106
P31
P496
0000-0002-2234-0079