241 results on '"Emdad, Luni"'
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2. Applications of tissue-specific and cancer-selective gene promoters for cancer diagnosis and therapy
3. Targeting epigenetic regulation for cancer therapy using small molecule inhibitors
4. Chemoresistance in pancreatic ductal adenocarcinoma: Overcoming resistance to therapy
5. Preface
6. Noninvasive therapy of brain cancer using a unique systemic delivery methodology with a cancer terminator virus.
7. SARI inhibits growth and reduces survival of oral squamous cell carcinomas (OSCC) by inducing endoplasmic reticulum stress
8. Cytoplasmic-delivery of polyinosine-polycytidylic acid inhibits pancreatic cancer progression increasing survival by activating Stat1-CCL2-mediated immunity
9. Supplementary Fig. S6 from Dual Targeting of the PDZ1 and PDZ2 Domains of MDA-9/Syntenin Inhibits Melanoma Metastasis
10. Data from Dual Targeting of the PDZ1 and PDZ2 Domains of MDA-9/Syntenin Inhibits Melanoma Metastasis
11. Supplementary Data from Dual Targeting of the PDZ1 and PDZ2 Domains of MDA-9/Syntenin Inhibits Melanoma Metastasis
12. Dual Targeting of the PDZ1 and PDZ2 Domains of MDA-9/Syntenin Inhibits Melanoma Metastasis
13. MDA-9/Syntenin in the tumor and microenvironment defines prostate cancer bone metastasis.
14. Abstract 3394: Simultaneous targeting of the PDZ1 and PDZ2 domains of MDA-9 inhibits melanoma metastasis
15. Supplemental Data from Astrocyte Elevated Gene-1 Regulates β-Catenin Signaling to Maintain Glioma Stem-like Stemness and Self-Renewal
16. Data from Recombinant MDA-7/IL24 Suppresses Prostate Cancer Bone Metastasis through Downregulation of the Akt/Mcl-1 Pathway
17. Supplementary Figures 1-9 from Recombinant MDA-7/IL24 Suppresses Prostate Cancer Bone Metastasis through Downregulation of the Akt/Mcl-1 Pathway
18. Supplementary Figure S1 from Suppression of Prostate Cancer Pathogenesis Using an MDA-9/Syntenin (SDCBP) PDZ1 Small-Molecule Inhibitor
19. Supplemental figures 1-3, Table 1 from Astrocyte Elevated Gene-1 Regulates β-Catenin Signaling to Maintain Glioma Stem-like Stemness and Self-Renewal
20. Supplementary Data from Suppression of Prostate Cancer Pathogenesis Using an MDA-9/Syntenin (SDCBP) PDZ1 Small-Molecule Inhibitor
21. Supplementary Figure S3 from The MDA-9/Syntenin/IGF1R/STAT3 Axis Directs Prostate Cancer Invasion
22. Supplementary Figure 3 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
23. Supplementary Table 3 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
24. Supplementary Figures 1 through 8 from mda-7/IL-24 Mediates Cancer Cell–Specific Death via Regulation of miR-221 and the Beclin-1 Axis
25. Data from mda-7/IL-24 Mediates Cancer Cell–Specific Death via Regulation of miR-221 and the Beclin-1 Axis
26. Supplementary Figure 6 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
27. Supplementary Figure Legends from mda-7/IL-24 Mediates Cancer Cell–Specific Death via Regulation of miR-221 and the Beclin-1 Axis
28. Supplementary Figure 8 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
29. Data from MDA-7/IL-24–induced cell killing in malignant renal carcinoma cells occurs by a ceramide/CD95/PERK–dependent mechanism
30. Supplementary Table 2 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
31. Supplementary Figure 1 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
32. Supplementary Fig. from MDA-7/IL-24–induced cell killing in malignant renal carcinoma cells occurs by a ceramide/CD95/PERK–dependent mechanism
33. Supplementary Figure 4 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
34. Supplementary Figure S7 and S8 from The MDA-9/Syntenin/IGF1R/STAT3 Axis Directs Prostate Cancer Invasion
35. Data from The MDA-9/Syntenin/IGF1R/STAT3 Axis Directs Prostate Cancer Invasion
36. Supplementary Table 1 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
37. Supplementary Figure 7 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
38. Supplementary Figure 2 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
39. Supplementary Figure 5 from Novel Role of MDA-9/Syntenin in Regulating Urothelial Cell Proliferation by Modulating EGFR Signaling
40. Supplemental Materials from Pancreatic Cancer–Specific Cell Death Induced In Vivo by Cytoplasmic-Delivered Polyinosine–Polycytidylic Acid
41. Supplemental Fig. 5 from Pancreatic Cancer–Specific Cell Death Induced In Vivo by Cytoplasmic-Delivered Polyinosine–Polycytidylic Acid
42. Supplementary Table 1 from BiP/GRP78 Is an Intracellular Target for MDA-7/IL-24 Induction of Cancer-Specific Apoptosis
43. Supplemental Fig. 6 from Pancreatic Cancer–Specific Cell Death Induced In Vivo by Cytoplasmic-Delivered Polyinosine–Polycytidylic Acid
44. Supplemental Fig. 8 from Pancreatic Cancer–Specific Cell Death Induced In Vivo by Cytoplasmic-Delivered Polyinosine–Polycytidylic Acid
45. Supplementary Figure 1 from Novel Mechanism of MDA-7/IL-24 Cancer-Specific Apoptosis through SARI Induction
46. Data from Novel Mechanism of MDA-7/IL-24 Cancer-Specific Apoptosis through SARI Induction
47. Data from Pancreatic Cancer Combination Therapy Using a BH3 Mimetic and a Synthetic Tetracycline
48. Supplementary Table S6 from Genetic Deletion of AEG-1 Prevents Hepatocarcinogenesis
49. Data from MDA-9/Syntenin and IGFBP-2 Promote Angiogenesis in Human Melanoma
50. Supplementary Figure 1 from Oncogene AEG-1 Promotes Glioma-Induced Neurodegeneration by Increasing Glutamate Excitotoxicity
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