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Epipangi-Dx: A Cell-Free Dna Methylation Fingerprint For The Early Detection Ofgastrointestinal Cancers
A novel method for detecting, diagnosing, monitoring, and treating gastrointestinal cancers by analyzing DNA methylation levels in patient samples.
Cell Type-Selective, Potent Signaling Pathway Modulation Using A Guide-Effector Bispecific Design
Brief description not available
Manipulation Of Internalization Property Of Cell Surface Molecules Using A Guide-Effector Bispecific Design
Immune Impact Of Cyclic STAT3 Decoy Therapy
Covalent Chemical Inhibitors Of The Oncoprotein K-Ras (G12R)
Discovery Of Kras G12c Inhibitor-Specific Antibodies For Oncogene-Specific Chemically-Directed Immune Targeting
Collimated Compton Camera
Induced Synthetic Intracellular Cytokine And Growth Factor Circuits For Cell Autonomous Control Of Cell Signaling, Proliferation, Survival And Cell State
A Predictive ML Model For Cancer Early Relapse
Methods Of Treating Stat1 Dependent Cancer
Inhibitors Of P90 Rsk
Autologous Irradiated Whole Cell Tumor Vaccines Lentivirally Engineered To Express Cd-80, Il-15 And Il-15 Receptor Alpha
Identification Of Selective Regulators Of Oncogene Translation
CAPTaINs: Capped And Protected Targeted Immunoproteasome N-End Degrons
CAPTaINs provide a novel, selective, and stable method for selective degradation of protein targets.
The Isolated Heparin-binding Domain (HBD) of VEGF165 and the Isolated D1 Domain of VEGFR2 (KDR)
Researchers at the University of California, Davis have developed recombinant fusion protein compositions that inhibit pathological angiogenesis by targeting VEGF165-KDR interactions to treat cancers and related diseases.
Methods of Improving Cancer Immunotherapy
Researchers at the University of California, Davis have developed methods that combine immunotherapeutic agents with dual inhibitors to enhance cancer treatment efficacy and prolong patient survival.
Programmable Peptide Nucleic Acid-Based Nanoplatform for Customizable Drug Delivery
Researchers at the University of California, Davis have developed a peptide nucleic acid-based system enabling precise and customizable delivery of antigens, adjuvants, and targeting molecules for improved cancer immunotherapy.
Optimization Of Lead Small Molecule Inhibitors Of Taspase1 For Cancer Therapeutics
Genomic Destructive CRISPR Guide RNAs
AAV-Based Gene Therapy for Glioblastoma Treatment Using Interferon Cytokines
Enhancing Cancer Immunotherapy with Modified Adaptor Protein and CAR-NK Cell Technology
Next-Generation Monoclonal Antibody Therapy Targeting High-Risk Tumors
Affinity-Matured Anti-Cd72 Nanobodies For Next-Generation CAR-T Immunotherapies
An off-the-shelf dendritic cell-based cancer vaccine
Cherenkov-Based Radiation Beam Monitor
Researchers at the University of California, Davis have developed an innovative Cherenkov-based system for calibrating radiotherapy beams, enabling precise, real-time calibration of radiation dose delivery, including for high-intensity FLASH radiotherapy, improving treatment accuracy and reliability.