2018
Functional Genome-wide Screen Identifies Pathways Restricting Central Nervous System Axonal Regeneration
Sekine Y, Lin-Moore A, Chenette DM, Wang X, Jiang Z, Cafferty WB, Hammarlund M, Strittmatter SM. Functional Genome-wide Screen Identifies Pathways Restricting Central Nervous System Axonal Regeneration. Cell Reports 2018, 23: 415-428. PMID: 29642001, PMCID: PMC5937716, DOI: 10.1016/j.celrep.2018.03.058.Peer-Reviewed Original ResearchMeSH KeywordsAnimalsAxonsCaenorhabditis elegansCaenorhabditis elegans ProteinsCentral Nervous SystemFemaleGene Regulatory NetworksGenomeMiceMice, Inbred C57BLMice, KnockoutNerve RegenerationOptic NerveRab GTP-Binding ProteinsRecovery of FunctionRetinal Ganglion CellsRNA InterferenceRNA, Small InterferingSpinal Cord InjuriesSuppressor of Cytokine Signaling ProteinsConceptsAxonal regenerationCentral nervous system axonal regenerationRetinal ganglion cell axon regenerationGreater motor functionOptic nerve crushCerebral cortical neuronsSpinal cord traumaNeurological recoveryCord traumaNerve crushCNS injuryAxonal regrowthCortical neuronsMotor functionAxon regenerationReceptor bindingComprehensive functional screenAdult mammalsInjuryMultiple pathwaysExpression profilesIdentifies pathwaysSignificant overlapPathwayFunction screen
2017
Identification of Intrinsic Axon Growth Modulators for Intact CNS Neurons after Injury
Fink KL, López-Giráldez F, Kim IJ, Strittmatter SM, Cafferty WB. Identification of Intrinsic Axon Growth Modulators for Intact CNS Neurons after Injury. Cell Reports 2017, 18: 2687-2701. PMID: 28297672, PMCID: PMC5389739, DOI: 10.1016/j.celrep.2017.02.058.Peer-Reviewed Original ResearchConceptsSpinal cord injuryCentral nervous systemFunctional recoveryIntact neuronsAdult mammalian central nervous systemPartial spinal cord injuryInjury-induced sproutingUnilateral brainstem lesionsGreater functional recoverySpontaneous functional recoveryCorticospinal motor neuronsCorticospinal tract axonsMammalian central nervous systemWild-type miceNew synapse formationGrowth modulatorsAdjacent injuryBrainstem lesionsCord injuryFunctional deficitsIntact circuitryCNS neuronsMotor neuronsCircuit plasticityNervous system
2009
Axon Regeneration in the Peripheral and Central Nervous Systems
Huebner EA, Strittmatter SM. Axon Regeneration in the Peripheral and Central Nervous Systems. Results And Problems In Cell Differentiation 2009, 48: 305-360. PMID: 19582408, PMCID: PMC2846285, DOI: 10.1007/400_2009_19.Peer-Reviewed Original ResearchConceptsCentral nervous systemPeripheral nervous systemSpinal cord injuryNervous systemAxon regenerationLong-distance axon regenerationMature mammalian central nervous systemMammalian peripheral nervous systemSubstantial functional recoveryMammalian central nervous systemTraumatic brain injuryIntrinsic growth capacityFunctional recoveryCord injuryAxonal disconnectionFunctional deficitsBrain injuryRelated conditionsInjuryRegenerative successExtracellular moleculesGrowth capacityStroke
2007
Toll-Like Receptor 3 Is a Potent Negative Regulator of Axonal Growth in Mammals
Cameron JS, Alexopoulou L, Sloane JA, DiBernardo AB, Ma Y, Kosaras B, Flavell R, Strittmatter SM, Volpe J, Sidman R, Vartanian T. Toll-Like Receptor 3 Is a Potent Negative Regulator of Axonal Growth in Mammals. Journal Of Neuroscience 2007, 27: 13033-13041. PMID: 18032677, PMCID: PMC4313565, DOI: 10.1523/jneurosci.4290-06.2007.Peer-Reviewed Original ResearchMeSH KeywordsAnimalsAxonsCentral Nervous SystemChick EmbryoDown-RegulationGrowth InhibitorsMiceMice, Inbred C57BLNeural InhibitionNeuronsToll-Like Receptor 3ConceptsToll-like receptor 3Functional toll-like receptor 3Poly IActivation of TLR3Nervous systemInnate immunityReceptor 3Pattern recognition receptor functionAxonal growthDorsal root gangliaFunction of TLRsToll-like receptorsPeripheral nervous systemMammalian Toll-like receptorsPattern recognition receptorsViral double-stranded RNAClasses of receptorsNuclear factor kappaB.Sensorimotor deficitsRoot gangliaNeonatal miceNeurodegenerative effectsGrowth cone collapseCNS regenerationRecognition receptorsROCK and Rho: Biochemistry and Neuronal Functions of Rho-Associated Protein Kinases
Schmandke A, Schmandke A, Strittmatter SM. ROCK and Rho: Biochemistry and Neuronal Functions of Rho-Associated Protein Kinases. The Neuroscientist 2007, 13: 454-469. PMID: 17901255, PMCID: PMC2849133, DOI: 10.1177/1073858407303611.Peer-Reviewed Original ResearchMeSH KeywordsAnimalsCell Adhesion MoleculesCentral Nervous SystemCytoskeletonHumansLipoproteinsMyelin ProteinsNerve Tissue ProteinsNeuronsNogo ProteinsProtein Processing, Post-TranslationalReceptor Protein-Tyrosine KinasesReceptors, G-Protein-CoupledReceptors, ImmunologicRho GTP-Binding ProteinsRho-Associated KinasesSignal TransductionConceptsProtein kinaseRho-Associated Protein KinaseSignal transduction mechanismsNeuronal functionDiverse neuronal functionsActin cytoskeletonRho familyExtracellular signalsROCK functionSignaling pathwaysBiochemical knowledgeCell survivalTransduction mechanismsCell migrationAxonal guidanceDendritic spine morphologyKinaseROCK pathwayPathwayNeuronal regenerationSpine morphologyRhoBrain developmentKey rolePotential sites
2006
Characterization of Myelin Ligand Complexes with Neuronal Nogo-66 Receptor Family Members*
Lauré;n J, Hu F, Chin J, Liao J, Airaksinen MS, Strittmatter SM. Characterization of Myelin Ligand Complexes with Neuronal Nogo-66 Receptor Family Members*. Journal Of Biological Chemistry 2006, 282: 5715-5725. PMID: 17189258, PMCID: PMC2852886, DOI: 10.1074/jbc.m609797200.Peer-Reviewed Original ResearchMeSH KeywordsAmino Acid SubstitutionAnimalsAxonsCentral Nervous SystemChlorocebus aethiopsCOS CellsGPI-Linked ProteinsHumansLectinsLigandsModels, MolecularMyelin ProteinsMyelin-Associated GlycoproteinNeoplasm ProteinsNerve Tissue ProteinsNogo Receptor 1Protein BindingProtein Structure, TertiaryReceptors, Cell SurfaceRegenerationThe Nogo–Nogo Receptor Pathway Limits a Spectrum of Adult CNS Axonal Growth
Cafferty WB, Strittmatter SM. The Nogo–Nogo Receptor Pathway Limits a Spectrum of Adult CNS Axonal Growth. Journal Of Neuroscience 2006, 26: 12242-12250. PMID: 17122049, PMCID: PMC2848954, DOI: 10.1523/jneurosci.3827-06.2006.Peer-Reviewed Original ResearchMeSH KeywordsAnalysis of VarianceAnimalsAxonsBehavior, AnimalCalcitonin Gene-Related PeptideCentral Nervous SystemFunctional LateralityGlial Fibrillary Acidic ProteinMiceMice, Inbred C57BLMice, KnockoutMyelin Basic ProteinMyelin ProteinsNogo ProteinsProtein Kinase CPsychomotor PerformancePyramidal TractsReceptors, PeptideSignal TransductionConceptsAxonal growthCST regenerationSpinal cord dorsal hemisectionCervical gray matterRole of NogoCorticospinal tract axonsNogo-66 receptorVivo pharmacological studiesFine motor skillsDorsal hemisectionAffected forelimbCST axonsLesion modelUnilateral pyramidotomyGray matterPharmacological studiesReceptor pathwayNogoConflicting resultsMiceMotor skillsAxonsDifferent tractsGenetic assessmentPyramidotomyExtracellular regulators of axonal growth in the adult central nervous system
Liu BP, Cafferty WB, Budel SO, Strittmatter SM. Extracellular regulators of axonal growth in the adult central nervous system. Philosophical Transactions Of The Royal Society B Biological Sciences 2006, 361: 1593-1610. PMID: 16939977, PMCID: PMC1664666, DOI: 10.1098/rstb.2006.1891.Peer-Reviewed Original ResearchConceptsAxonal growth inhibitorsAxonal sproutingCNS injuryAdult CNSAxonal growthAdult central nervous systemAdult CNS injuryCentral nervous system functionRecovery of functionRobust axonal growthAstroglial scar formationAdult CNS axonsCentral nervous systemOligodendrocyte myelin glycoproteinNervous system functionNeurological functionPathological damageAxonal stabilityNervous systemScar formationAxonal receptorsNeuronal connectivityCNS axonsEphrin-B3Such interventions
2004
Regulating axon growth within the postnatal central nervous system
Hu F, Strittmatter SM. Regulating axon growth within the postnatal central nervous system. Seminars In Perinatology 2004, 28: 371-378. PMID: 15693393, DOI: 10.1053/j.semperi.2004.10.001.Peer-Reviewed Original ResearchMeSH KeywordsAnimalsAxonsCentral Nervous SystemGPI-Linked ProteinsGrowth InhibitorsHumansHypoxiaIntracellular Signaling Peptides and ProteinsMembrane ProteinsMiceMyelin ProteinsMyelin-Associated GlycoproteinMyelin-Oligodendrocyte GlycoproteinNerve RegenerationNerve Tissue ProteinsNogo ProteinsNogo Receptor 1Receptor, Nerve Growth FactorReceptors, Cell SurfaceConceptsCentral nervous systemAxonal growthNervous systemNeuronal developmentAdult central nervous systemMature central nervous systemAxon growth inhibitorsPostnatal central nervous systemPotential therapeutic interventionsNew neuronal connectionsMyelin-derived proteinsAxonal sproutingDirect blockadeNgR proteinPostnatal brainNeuronal connectionsTherapeutic interventionsAxon growthDevelopmental hypoxiaReduced expressionMyelin proteinsHypoxic conditionsInhibitor pathwayImportant investigationCritical roleNeonatal hypoxia suppresses oligodendrocyte Nogo-A and increases axonal sprouting in a rodent model for human prematurity
Weiss J, Takizawa B, McGee A, Stewart WB, Zhang H, Ment L, Schwartz M, Strittmatter S. Neonatal hypoxia suppresses oligodendrocyte Nogo-A and increases axonal sprouting in a rodent model for human prematurity. Experimental Neurology 2004, 189: 141-149. PMID: 15296844, DOI: 10.1016/j.expneurol.2004.05.018.Peer-Reviewed Original ResearchMeSH KeywordsAge FactorsAnimalsAnimals, NewbornAxonsBehavior, AnimalBiotinCentral Nervous SystemDextransDisease Models, AnimalExploratory BehaviorHumansHypoxia, BrainImmunoblottingImmunohistochemistryInfant, NewbornInfant, PrematureMiceMice, Inbred C57BLMyelin Basic ProteinMyelin ProteinsMyelin-Associated GlycoproteinNogo ProteinsOligodendrogliaReceptors, Cell SurfaceTime FactorsConceptsChronic sublethal hypoxiaPeriventricular leukomalaciaMyelin associated glycoproteinCorticospinal tractWhite matterLow birth weight infantsCerebral white matter volumeBirth weight infantsLow birth weightAnterograde axonal tracingPeriventricular white matterPremature human infantsCNS white matterWhite matter volumeHypoxia-induced reductionWeight infantsAxonal sproutingCerebral ventriculomegalyCorticofugal fibersLocomotor hyperactivityNeonatal hypoxiaPersistent abnormalitiesMotor cortexBirth weightHuman prematurity
2002
Nogo-66 receptor antagonist peptide promotes axonal regeneration
GrandPré T, Li S, Strittmatter SM. Nogo-66 receptor antagonist peptide promotes axonal regeneration. Nature 2002, 417: 547-551. PMID: 12037567, DOI: 10.1038/417547a.Peer-Reviewed Original ResearchMeSH KeywordsAmino Acid SequenceAnimalsAxonsBinding, CompetitiveCentral Nervous SystemCulture Media, ConditionedFemaleGPI-Linked ProteinsGrowth ConesMolecular Sequence DataMotor ActivityMyelin ProteinsMyelin SheathNerve RegenerationNeuritesNogo Receptor 1Peptide FragmentsProtein Structure, TertiaryRatsRats, Sprague-DawleyReceptors, Cell SurfaceSpinal Cord InjuriesConceptsCentral nervous systemAxonal regenerationNogo-66NEP1-40Antagonist peptideAxonal outgrowthNogo-66 receptorPotential therapeutic agentCorticospinal tract regenerationAxonal outgrowth inhibitionCNS myelin inhibitionSignificant axon growthIntrathecal administrationFunctional recoveryCNS injuryCorticospinal tractOutgrowth inhibitorCompetitive antagonistNervous systemMyelin inhibitionTherapeutic agentsAxon growthMonoclonal antibodiesAdult mammalsNogo
2001
Repulsive factors and axon regeneration in the CNS
Fournier A, Strittmatter S. Repulsive factors and axon regeneration in the CNS. Current Opinion In Neurobiology 2001, 11: 89-94. PMID: 11179877, DOI: 10.1016/s0959-4388(00)00178-1.Peer-Reviewed Original ResearchMeSH KeywordsAxonsCentral Nervous SystemHumansMyelin ProteinsMyelin SheathNerve Growth FactorsNerve RegenerationNogo Proteins
2000
Identification of the Nogo inhibitor of axon regeneration as a Reticulon protein
GrandPré T, Nakamura F, Vartanian T, Strittmatter S. Identification of the Nogo inhibitor of axon regeneration as a Reticulon protein. Nature 2000, 403: 439-444. PMID: 10667797, DOI: 10.1038/35000226.Peer-Reviewed Original ResearchMeSH KeywordsAmino Acid SequenceAnimalsAxonsCattleCell DivisionCell LineCentral Nervous SystemChick EmbryoCloning, MolecularConsensus SequenceEscherichia coliGrowth InhibitorsHumansMembrane ProteinsMolecular Sequence DataMyelin ProteinsNerve RegenerationNogo ProteinsOligodendrogliaPC12 CellsRatsRecombinant ProteinsSequence Homology, Amino AcidConceptsCentral nervous systemPeripheral nervous systemCNS white matterAxonal regenerationAxon regenerationNervous systemWhite matterAdult central nervous systemMammalian axon regenerationIN-1 antibodiesReticulon 1Dorsal root ganglion growth conesFunctional recoverySpinal cordSchwann cellsCNS axonsExtracellular domainAxonal extensionNogoAxon extensionGrowth conesOligodendrocytesInhibitory activityReticulon 4Moderate degree
1997
Neuronal and Non-Neuronal Collapsin-1 Binding Sites in Developing Chick Are Distinct from Other Semaphorin Binding Sites
Takahashi T, Nakamura F, Strittmatter S. Neuronal and Non-Neuronal Collapsin-1 Binding Sites in Developing Chick Are Distinct from Other Semaphorin Binding Sites. Journal Of Neuroscience 1997, 17: 9183-9193. PMID: 9364065, PMCID: PMC6573609, DOI: 10.1523/jneurosci.17-23-09183.1997.Peer-Reviewed Original ResearchMeSH KeywordsAnimalsAvian ProteinsAxonsBinding SitesCells, CulturedCentral Nervous SystemChick EmbryoDNA, ComplementaryFetal ProteinsGanglia, SpinalGlycoproteinsLungMembrane ProteinsMesodermMiceMotor NeuronsMultigene FamilyNerve Growth FactorsNerve Tissue ProteinsNeuronsNeurotrophin 3Organ SpecificityRatsRats, Sprague-DawleyReceptors, Cell SurfaceRecombinant Fusion ProteinsSemaphorin-3AConceptsFusion proteinBinding sitesGrowth conesDRG neuronsNon-neuronal tissuesExtracellular proteinsF fusion proteinSemaphorin familyDRG growth conesProteinLow nanomolar affinityMajor blood vesselsLigand familyBrainstem neuronsSympathetic neuronsNanomolar affinityNervous systemAxonal pathsBiological activityBlood vesselsNeuronsFamilySitesMesenchymeSemaphorins