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Prof. Zvi Livneh
DNA damage tolerance by error-prone DNA polymerasesDNA damage tolerance by error-prone DNA polymerases in embryonic stem cellsDNA damage tolerance by error-prone DNA polymerases under hypoxiaBiomarkers for risk assessment, prevention and early detection of cancerDNA repair biomarkers for risk assessment, prevention and early detection of lung cancerDNA repair biomarkers for risk assessment, prevention and early detection of colorectal cancerDNA repair biomarkers for risk assessment, prevention and early detection of pancreatic cancer
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Prof. Shimon Levit
Full vector path integrals for light propagation in dielectrics.Resonant scattaring off photonic slabsVariational Approach to Tunneling Dynamics.Application to Hot Superfluid Fermi Systems.Application to spontaneous and induced fissionTunneling of hot bosonic systems
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Prof. Sima Lev
Signaling networks in cancer development and metastasisCollaboration with: Thomas Karn, Eytan Ruppin, Gordon Mills, Flavio Maina, Frank Westermann, Yosef YardenTumorigenic signaling networks in triple negative breast cancer (TNBC) subtypesCombination therapy, drug resistance, and cancer stem cellsFerroptosis and TNBC therapyReceptor Tyrosine Kinases (RTKs) (AXL, cMet, EGFR) and non-RTKs (PYK2, FAK) signaling in TNBCEpithelial-Mesenchymal Transition (EMT) & TNBC metastasis
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Dr. Michal Leskes
Our research is focused on correlating structure and function in energy storage and conversion materials by advanced magnetic resonance methods. We aim to understand how the composition of materials affects their functionality and how we can control their functionality through deviation from ideal stoichiometry. In particular we are interested in materials for energy storage, such as Li and Na ion batteries, and in the role interfacial chemistry plays in the functionality of electrode and electrolyte materials. We use a wide range of magnetic resonance techniques: solid state NMR, Electron Paramagnetic Resonance (EPR) and Dynamic Nuclear Polarization (DNP). Additionally we investigate the process of polarization transfer from electron spins to nuclear spins in solids DNP utilizing external and internal polarization agents. For more detailed information, please click below and see our home page.
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