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Ultra-high-dose-rate proton therapy for malignant glioma

Ultra-high-dose-rate proton therapy for malignant glioma
恶性胶质瘤的超高剂量率质子治疗
批准号:
9913488
负责人:
John G. Eley
金额:
$18.12万
依托单位国家:
美国
项目类别:
财政年份:
2019
资助国家:
美国
项目状态:
已结题
起止时间:
2019-04-11 至 2022-03-31
关键词:
AffectAnatomyBehavioralBiologicalBioluminescenceBiophysicsBlood VesselsBrainBrain NeoplasmsBrain regionCellsChemotherapy and/or radiationChildhood Malignant Brain TumorClinicalClinical TrialsCognitiveCranial IrradiationDataDemyelinationsDevelopmentDiagnosisDiseaseDoseDose-RateDrug Delivery SystemsElectron BeamElementsExcisionFaceFranceGeneticGliomaHippocampus (Brain)HumanImageImmunohistochemistryImpaired cognitionInflammatory ResponseKnowledgeLeadLifeLungMagnetic Resonance ImagingMalignant GliomaMalignant NeoplasmsMalignant neoplasm of brainMeasuresMetabolicMetastatic malignant neoplasm to brainMethodsMicroscopicMissionMonitorMorphologyMusNecrosisNeoplasm MetastasisNervous System TraumaNeurobiologyNeurologicNeurosciencesNormal tissue morphologyOperative Surgical ProceduresOutcomePathologicPatientsPhysicsPhysiologicalPlayPrimary NeoplasmProtonsQuality of lifeRadiationRadiation Dose UnitRadiation OncologyRadiation induced damageRadiation therapyRadiosurgeryRattusRecurrenceResearchRiskRodent ModelRoleScanningSterilizationSurvivorsSwitzerlandSystemTestingToxic effectTreatment EfficacyUnited States National Institutes of HealthWorkXenograft procedurebehavior testcancer cellcancer imagingclinical implementationcognitive changecognitive functioncombatconventional therapydisorder controleffective therapyefficacy testingelectron radiationexpectationimaging studyimprovedirradiationneoplastic cellneurogenesisneuroinflammationoutcome forecastparticle therapypre-clinicalpreventproton beamproton therapyresponseside effecttooltranslation to humanstumortumor growth

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英文摘要
PROJECT SUMMARY The ability of malignant gliomas to infiltrate remote regions of the brain, far from their primary tumor mass, has continually challenged the development of an effective therapy, and prognosis for patients with these tumors remains poor, with median survival measured in weeks rather than years. Although radiotherapy plays a critical role in extending life for these patients, radiation side effects in CNS can still be devastating and greatly affect quality of life, which prevents the use of higher, cancer-sterilizing doses of radiation to treat the invasive aspects of this disease. This application seeks to demonstrate a new radiobiologic element of particle therapy delivered at ultra-high dose rates, which may reduce normal tissue toxicity in CNS and allow the safe use of higher radiation doses to greater volumes of potentially involved brain, compared to conventional radiotherapies. Recent studies by our group demonstrate the new method is experimentally feasible. We propose to test our new ideas using rodent models of glioma. Furthermore, we will investigate the resulting morphologic, cognitive, and pathologic changes after irradiation to quantify the toxicity of the new method, which we expect to be lower than toxicities of conventional therapies. Collectively, these aims will provide the preclinical data and new biologic knowledge needed to advance therapy towards human clinical trials to improve treatment of malignant glioma and other brain tumors.
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