grant

TNFR2 sex differences and EAE

Organization GEORGE WASHINGTON UNIVERSITYLocation WASHINGTON, UNITED STATESPosted 1 Dec 2021Deadline 30 Nov 2026
NIHUS FederalResearch GrantFY2026ATF6ATF6 geneActivating Transcription Factor 6AgonistCD 120b AntigenCD120b AntigensCNS Nervous SystemCell BodyCell Communication and SignalingCell DeathCell SignalingCellsCentral Nervous SystemClosure by LigationCoupledDataDifferences between sexesDiffers between sexesDiseaseDisease ProgressionDisorderDisseminated SclerosisEAEExperimental Allergic EncephalitisExperimental Allergic EncephalomyelitisExperimental Autoimmune EncephalitisExperimental Autoimmune EncephalomyelitisFemaleGender BiasGenesGeneticGoalsGonadal Steroid HormonesGonosomesImmune responseIn VitroInflammationInflammatory ResponseIntracellular Communication and SignalingKO miceKnock-out MiceKnockout MiceLigationLinkMediatingMediatorMiceMice MammalsMotorMultiple SclerosisMurineMusMyelinNatural regenerationNerve CellsNerve DegenerationNerve UnitNeural CellNeuraxisNeurocyteNeuroimmuneNeuroimmune systemNeurologicNeurologicalNeuron DegenerationNeuronsNull MouseOligodendrocytesOligodendrocytusOligodendrogliaOligodendroglia CellPathologyPathway interactionsPhysiologicPhysiologicalPredispositionProcessProtein BiosynthesisProteinsPublishingQuality ControlRNA SeqRNA sequencingRNAseqReceptors, Tumor Necrosis Factor, Type IIRecovery of FunctionRegenerationRegenerative responseRibosomal Peptide BiosynthesisRibosomal Protein BiosynthesisRibosomal Protein SynthesisRoleSeriesSex BiasSex ChromosomesSex DifferencesSex HormonesSex Steroid HormonesSexual differencesSignal InductionSignal TransductionSignal Transduction SystemsSignalingStressSusceptibilityTNF-R2TNF-RIITNFBRTNFR p75TNFR2TNFR80TNFRSF1BTNFRSF1B ReceptorTNFRSF1B geneTestingTherapeuticTherapeutic EffectTumor Necrosis Factor Beta ReceptorTumor Necrosis Factor Receptor 2Tumor Necrosis Factor Receptor 75Tumor Necrosis Factor Receptor Type 2WorkXBP1XBP1 geneautoimmune encephalomyelitisbiological signal transductionburden of diseaseburden of illnessdisease burdenfunctional recoverygonadal steroidshormonal signalshormone signalshost responseimmune system responseimmunoresponseimprovedimproved motor functionin vivoinsular sclerosismalemotor diseasemotor disordermotor dysfunctionmotor function improvementmotor impairmentmotor recoverymovement impairmentmovement limitationnecrocytosisneural degenerationneural inflammationneurodegenerationneurodegenerativeneuroinflammationneuroinflammatoryneurological degenerationneuronalneuronal degenerationneuropathic painneuropathologicneuropathologicalneuropathologynovelpainful neuropathypathwaypharmacologicprogramsprotein synthesisre-myelinatere-myelinationregenerateregeneration responseremyelinateremyelinationrepairrepairedresponsesexsex based differencessex steroidsex-dependent differencessex-related differencessex-specific differencessocial roletranscriptome sequencingtranscriptomic sequencingtumor necrosis factor receptor superfamily, member 1B
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Full Description

Abstract
The susceptibility to Multiple Sclerosis (MS) is believed to be due in part to neuroinflammation

and disease burden linked to neurodegeneration. It is well established that females have a more robust

immune response than males however, neurodegeneration and disease progression are more sever in

males. Thus, in the context of MS, this raises an intriguing question. Do females, by virtue of having a

more robust inflammatory responses, have endogenous protection/repair mechanisms to protect the

central nervous system (CNS) from inflammation induced pathology, that males do not have or that are

not as effective in males? This proposal is based upon extensive preliminary and published data

demonstrating that tmTNF/TNFR2 signaling in females, but not males, significantly improves motor

function and reduces neuropathology in EAE by activating endogenous repair programs in neurons and

oligodendrocytes. Based upon these and other results, our first experimental goal is to interrogate sex

differences in tmTNF/TNFR2 induced improvements in motor function and neuropathology. Further, we

have very novel pharmacological and genetic data that ligation of TNFR2 on both neurons and

oligodendrocytes induce regenerative responses, through IRE1-dependent mechanisms. Based upon

these and additional data our second experimental goal is to investigate the intersection between

TNFR2/IRE1 signaling and to determine if the therapeutic effects of TNFR2 activation are dependent

upon IRE1 activation. These goals will be tested in the following aims:

Specific Aim 1: Investigate the sex-specific effects of tmTNF/TNFR2 signaling in the improvement of

motor function and neuropathology.

A) We will investigate the role of sex hormones in tmTNF/TNFR2 signaling in the improvement of motor

function and neuropathology in male and female mice.

B) We will investigate the role of sex chromosomes in tmTNF/TNFR2 signaling in the improvement of motor

function and neuropathology in male and female mice.

Specific Aim 2: Investigate TNFR2 induced endogenous repair mechanisms in male and female mice.

A) We will interrogate TNFR2 induced endogenous repair mechanisms oligodendrocytes and determine if

they are required for motor recovery in females.

B) We will interrogate TNFR2 induced endogenous repair mechanisms neurons and determine if they are

required for motor recovery in females, in vivo and in vitro.

Grant Number: 5R01NS124123-05
NIH Institute/Center: NIH

Principal Investigator: John Bethea

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