grant

Cancer Molecular and Functional Imaging

Organization JOHNS HOPKINS UNIVERSITYLocation BALTIMORE, UNITED STATESPosted 7 May 1997Deadline 31 May 2027
NIHUS FederalResearch GrantFY2025AI systemAppointmentArtificial IntelligenceBiological MarkersCancer CachexiaCancer CenterCancersCell-Extracellular MatrixChemistryClinical EvaluationClinical TestingCollaborationsComprehensive Cancer CenterComputer ReasoningDNA Molecular BiologyDataDetectionDevelopmentDiagnosisDiseaseDisorderECMEarly identificationEpigeneticEpigenetic ChangeEpigenetic MechanismEpigenetic ProcessExtracellular MatrixFibroblastsFunctional ImagingFundingGoalsHypoxiaHypoxicImageImage AnalysesImage AnalysisImmuneImmunesIntermediary MetabolismInvadedJournalsMachine IntelligenceMagazineMalignant NeoplasmsMalignant TumorMetabolic ProcessesMetabolismMetastasisMetastasizeMetastatic LesionMetastatic MassMetastatic NeoplasmMetastatic TumorMolecular BiologyMonitorNCI OrganizationNational Cancer InstituteNeoplasm MetastasisOncologyOncology CancerOxygen DeficiencyPeer ReviewPhysiologic ImagingPredicting RiskPrognosisPublicationsResearchRoleSchoolsScientific PublicationSecondary NeoplasmSecondary TumorSelection for TreatmentsStromal CellsSubgroupTherapeuticTherapy Evaluationbio-markersbiologic markerbiomarkerbiomarker evaluationcancer associated cachexiacancer geneticscancer immunologycancer induced cachexiacancer metastasiscancer microenvironmentcancer progressioncancer-associated muscle wastingcancer-induced muscle atrophycancer-induced muscle losscancer-induced muscle wastingcancer-related cachexiaclinical testclinical translationclinically translatabledevelopmentaldrug developmentepigeneticallyforecasting riskhigh dimensional dataimage constructionimage evaluationimage generationimage interpretationimage reconstructionimagingimaging agentimaging probeimaging programimmune microenvironmentimmunosuppressive microenvironmentimmunosuppressive tumor microenvironmentinterestmalignancymarker evaluationmembermolecular imagingmolecule imagingmulti-modalitymultidimensional datamultidimensional datasetsmultimodalityneoplasm immunologyneoplasm progressionneoplasm/cancerneoplastic progressionnovelphysiological imagingprecision medicineprecision-based medicinepredict riskpredict riskspredicted riskpredicted riskspredicting riskspredictive riskpredicts riskprogramsresearch clinical testingresponserisk predictionrisk predictionsselection of treatmentsocial roletheranosticstherapy selectiontranslational applicationstreatment selectiontumortumor cell metastasistumor immune microenvironmenttumor immunologytumor microenvironmenttumor progressiontumor-immune system interactionstumor-induced cachexiatumor-induced muscle wasting
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Full Description

PROJECT SUMMARY/ABSTRACT
The overall goals of the Sidney Kimmel Comprehensive Cancer Center (SKCCC) Cancer Molecular

and Functional Imaging (CMFI) Program are to develop and apply multimodality molecular and functional

imaging in cancer discovery and the tumor microenvironment; to identify novel imaging-based targets and

advance their translational applications in biomarkers, drug development and theranostics; and to develop

artificial intelligence approaches in analyzing images and spectra for diagnosis and prognosis, and for

precision medicine. To achieve these overall goals, the CMFI Program has the following four aims that focus

on Cancer Discovery and the Tumor Microenvironment, Imaging Agent Development for Detection and

Theranostics, Biomarkers and Evaluation of Therapies, and Artificial Intelligence. Aim 1: To use multi-

modality molecular and functional imaging to understand cancer and the tumor microenvironment, including

the immune microenvironment; Aim 2: To integrate chemistry and molecular biology with imaging to develop

novel imaging probes with an emphasis on clinical translation and theranostics; Aim 3: To develop

noninvasive biomarkers to allow early identification of cancer, predict risk, assist in the selection of

treatment, and detect response. Aim 4: To develop artificial intelligence (AI) approaches applied to image

reconstruction and imaging data. We developed Aim 4 as a new aim in the CMFI Program. The four Aims

are inter-related within the CMFI Program and highly interactive with other Programs, such as Cancer

Genetics and Epigenetics, Cancer Immunology, and Cancer Invasion and Metastasis.

The CMFI Program consists of 31 Program full members, 18 of whom have cancer-relevant peer-

reviewed funding, and an additional nine associate members. The Program has members with appointments

in four departments across two schools at Johns Hopkins. The total direct cancer-relevant peer-reviewed

funding is $8.2 million, with $6.9 million from the National Cancer Institute. The total number of publications

by Program members since last review is 400, of which 130 (32.5%) are Intra-Programmatic, 147 (36.8%)

are Inter-Programmatic and 231 (57.8%) have external collaborations. Of these publications, 10.5% are in

journals with impact factors >10 and 2.3% in journals with impact factors >25.

Grant Number: 5P30CA006973-62
NIH Institute/Center: NIH

Principal Investigator: Zaver Bhujwalla

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