353 results on '"Hamerlik, Petra"'
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2. Simultaneous Visualization of R-Loops/RNA:DNA Hybrids and Replication Forks in a DNA Combing Assay.
3. DNA damage response in brain tumors: A Society for Neuro-Oncology consensus review on mechanisms and translational efforts in neuro-oncology.
4. Adult brain tumour research in 2024: Status, challenges and recommendations
5. Data from Preclinical Characterization of AZD9574, a Blood–Brain Barrier Penetrant Inhibitor of PARP1
6. Supplementary Data 1 from Preclinical Characterization of AZD9574, a Blood–Brain Barrier Penetrant Inhibitor of PARP1
7. AMBRA1 regulates cyclin D to guard S-phase entry and genomic integrity
8. Brain tumor vessels—a barrier for drug delivery
9. Optical tissue clearing and machine learning can precisely characterize extravasation and blood vessel architecture in brain tumors
10. Preclinical Characterization of AZD9574, a Blood–Brain Barrier Penetrant Inhibitor of PARP1
11. Supplementary Figure S1 from ATM-Inhibitor AZD1390 Is a Radiosensitizer for Breast Cancer CNS Metastasis
12. Data from ATM-Inhibitor AZD1390 Is a Radiosensitizer for Breast Cancer CNS Metastasis
13. Reciprocal Signaling between Glioblastoma Stem Cells and Differentiated Tumor Cells Promotes Malignant Progression
14. PLASMA PROTEOMICS AND MACHINE LEARNING FOR NOVEL BIOMARKER DISCOVERY IN ADULT MALIGNANT GLIOMA
15. ROLE OF THE TRANSCRIPTIONAL ELONGATION FACTOR SPT6 AS A MODULATOR OF RAD52 IN GLIOBLASTOMA TUMOURS
16. ATM-Inhibitor AZD1390 Is a Radiosensitizer for Breast Cancer CNS Metastasis
17. SPT6-driven error-free DNA repair safeguards genomic stability of glioblastoma cancer stem-like cells
18. Aberrant ATM signaling and homology-directed DNA repair as a vulnerability of p53-mutant GBM to AZD1390-mediated radiosensitization.
19. Enhanced efficacy of combined HDAC and PARP targeting in glioblastoma
20. Immunostaining protocol for infiltrating brain cancer spheroids for light-sheet imaging
21. Non-metabolic functions of phosphofructokinase-1 orchestrate tumor cellular invasion and genome maintenance under bevacizumab therapy
22. Abstract 234: ITCC-P4: Genomic profiling and analyses of pediatric patient tumor and patient-derived xenograft (PDX) models for high throughput in vivo testing
23. Supplementary Data from The RNA m6A Reader YTHDF2 Maintains Oncogene Expression and Is a Targetable Dependency in Glioblastoma Stem Cells
24. Data from The RNA m6A Reader YTHDF2 Maintains Oncogene Expression and Is a Targetable Dependency in Glioblastoma Stem Cells
25. Supplementary Table 2 from The RNA m6A Reader YTHDF2 Maintains Oncogene Expression and Is a Targetable Dependency in Glioblastoma Stem Cells
26. Supplementary Table 1 from The RNA m6A Reader YTHDF2 Maintains Oncogene Expression and Is a Targetable Dependency in Glioblastoma Stem Cells
27. Supplementary Table 3 from The RNA m6A Reader YTHDF2 Maintains Oncogene Expression and Is a Targetable Dependency in Glioblastoma Stem Cells
28. Supplemental Methods from Macropinocytosis of Bevacizumab by Glioblastoma Cells in the Perivascular Niche Affects their Survival
29. SFigure 5 from Macropinocytosis of Bevacizumab by Glioblastoma Cells in the Perivascular Niche Affects their Survival
30. SFigure 6 from Macropinocytosis of Bevacizumab by Glioblastoma Cells in the Perivascular Niche Affects their Survival
31. SFigure 1 from Macropinocytosis of Bevacizumab by Glioblastoma Cells in the Perivascular Niche Affects their Survival
32. SFigure 7 from Macropinocytosis of Bevacizumab by Glioblastoma Cells in the Perivascular Niche Affects their Survival
33. SFigure 4 from Macropinocytosis of Bevacizumab by Glioblastoma Cells in the Perivascular Niche Affects their Survival
34. SFigure 3 from Macropinocytosis of Bevacizumab by Glioblastoma Cells in the Perivascular Niche Affects their Survival
35. SFigure 2 from Macropinocytosis of Bevacizumab by Glioblastoma Cells in the Perivascular Niche Affects their Survival
36. Data from Aptamer Identification of Brain Tumor–Initiating Cells
37. Supplementary Figure 4 from Aptamer Identification of Brain Tumor–Initiating Cells
38. Supplementary Figure Legend from Aptamer Identification of Brain Tumor–Initiating Cells
39. Supplementary Figure 1 from Aptamer Identification of Brain Tumor–Initiating Cells
40. Supplementary Table 1 from Aptamer Identification of Brain Tumor–Initiating Cells
41. Supplementary Figure 5 from Aptamer Identification of Brain Tumor–Initiating Cells
42. Supplementary Figure 2 from Aptamer Identification of Brain Tumor–Initiating Cells
43. Supplementary Figure 3 from Aptamer Identification of Brain Tumor–Initiating Cells
44. Immunostaining protocol for infiltrating brain cancer spheroids for light-sheet imaging
45. Preferential Iron Trafficking Characterizes Glioblastoma Stem-like Cells
46. Inhibition of histone deacetylases sensitizes glioblastoma cells to lomustine
47. Cancer Stem Cells and Glioblastoma
48. Patterns of DNA damage response in intracranial germ cell tumors versus glioblastomas reflect cell of origin rather than brain environment: Implications for the anti-tumor barrier concept and treatment
49. CTNI-03. A PHASE I/IIA, OPEN-LABEL STUDY OF THE BRAIN-PENETRANT PARP1-SELECTIVE INHIBITOR AZD9574 AS MONOTHERAPY AND IN COMBINATION IN PATIENTS WITH ADVANCED SOLID MALIGNANCIES (CERTIS1)
50. DDDR-01. AZD9574 IS A NOVEL, BRAIN PENETRANT PARP-1 SELECTIVE INHIBITOR WITH ACTIVITY IN AN INTRACRANIAL XENOGRAFT MODEL OF TRIPLE NEGATIVE BREAST CARCINOMA WITH HOMOLOGOUS RECOMBINATION REPAIR DEFICIENCY
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