137 results on '"Dubois, Fatéméh"'
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2. VEGFR2 and CD34 expression associated with longer survival in patients with pleural mesothelioma in the IFCT-GFPC-0701 MAPS phase 3 trial
3. Molecular Alterations in Malignant Pleural Mesothelioma: A Hope for Effective Treatment by Targeting YAP
4. Combining sophisticated fast FLIM, confocal microscopy, and STED nanoscopy for live-cell imaging of tunneling nanotubes.
5. Cancer and RASSF1A/RASSF1C, the Two Faces of Janus
6. RASSF1A, puppeteer of cellular homeostasis, fights tumorigenesis, and metastasis—an updated review
7. Supplementary Table 1 from High TUBB3 Expression, an Independent Prognostic Marker in Patients with Early Non–Small Cell Lung Cancer Treated by Preoperative Chemotherapy, Is Regulated by K-Ras Signaling Pathway
8. Supplementary Figure 2 from High TUBB3 Expression, an Independent Prognostic Marker in Patients with Early Non–Small Cell Lung Cancer Treated by Preoperative Chemotherapy, Is Regulated by K-Ras Signaling Pathway
9. Supplementary Figure 5 from High TUBB3 Expression, an Independent Prognostic Marker in Patients with Early Non–Small Cell Lung Cancer Treated by Preoperative Chemotherapy, Is Regulated by K-Ras Signaling Pathway
10. Supplementary Figure 3 from High TUBB3 Expression, an Independent Prognostic Marker in Patients with Early Non–Small Cell Lung Cancer Treated by Preoperative Chemotherapy, Is Regulated by K-Ras Signaling Pathway
11. Supplementary Figure Legends 1-5 from High TUBB3 Expression, an Independent Prognostic Marker in Patients with Early Non–Small Cell Lung Cancer Treated by Preoperative Chemotherapy, Is Regulated by K-Ras Signaling Pathway
12. Supplementary Figure 4 from High TUBB3 Expression, an Independent Prognostic Marker in Patients with Early Non–Small Cell Lung Cancer Treated by Preoperative Chemotherapy, Is Regulated by K-Ras Signaling Pathway
13. Supplementary Figure 1 from High TUBB3 Expression, an Independent Prognostic Marker in Patients with Early Non–Small Cell Lung Cancer Treated by Preoperative Chemotherapy, Is Regulated by K-Ras Signaling Pathway
14. Figure S6. sh-mediated RASSF1A depletion in HBEC-3 cells. from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
15. HBEC-3 2D-migration induced by RASS1A-knockdown from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
16. Figure S1: Scheme of RASSF1 splicing isoforms and localization annealing regions of siRNAs and shRNAs used. from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
17. Figure S3: Expression of siRNA-resistant RASSF1A rescues EMT phenotype induced by RASSF1A depletion. from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
18. Data from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
19. Table S4 from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
20. Figure S8: RhoA activity is not influenced by RASSF1A depletion whereas constitutive activation of a Rho activity by Narciclasine still impairs RASSF1A-induced invasion. from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
21. Figure S4: trans-endothelial invasion, enhanced-migration and growth in soft agar upon RASSF1A depletion in 4 transformed and untransformed epithelial bronchial cell lines. from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
22. Figure S7: Time-course YAP cytoplasmic-nuclear shuttling upon RASSF1A depletion. from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
23. Figure S2: Depletion of RASSF1A alone or with RASSF1C results in disappearance of tight junctions and decrease of adherens junction, replaced by diffuse adherent junctions. from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
24. Figure S5. RASSF1A depletion reduces focal adhesion proteins and adhesion capacities in vitro. from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
25. legends of supplemental figures from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
26. Figure S9: Loss of RhoB activity increases YAP nuclear localization. from RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
27. NDR2 kinase contributes to cell invasion and cytokinesis defects induced by the inactivation of RASSF1A tumor-suppressor gene in lung cancer cells
28. A role for RASSF1A in tunneling nanotube formation between cells through GEFH1/Rab11 pathway control
29. A defect of amphiregulin release predicted longer survival independently of YAP expression in patients with pleural mesothelioma in the IFCT ‐0701 MAPS phase 3 trial
30. The Use of Pro-Angiogenic and/or Pro-Hypoxic miRNAs as Tools to Monitor Patients with Diffuse Gliomas
31. Deciphering Promoter Hypermethylation of Genes Encoding for RASSF/Hippo Pathway Reveals the Poor Prognostic Factor of RASSF2 Gene Silencing in Colon Cancers
32. Optimization of Advanced Live-Cell Imaging through Red/Near-Infrared Dye Labeling and Fluorescence Lifetime-Based Strategies
33. Centrosome, the Newly Identified Passenger through Tunneling Nanotubes, Increases Binucleation and Proliferation Marker in Receiving Cells
34. La kinase Hippo, NDR2, contribue au phénotype migratoire/métastatique des cellules de cancer bronchique non à petites cellules
35. Le Réseau Normand d’étude des TNTs : appel à collaboration !
36. Investigating Tunneling Nanotubes in Cancer Cells: Guidelines for Structural and Functional Studies through Cell Imaging
37. Targeting the Hippo pathway to prevent radioresistance brain metastases from the lung (Review).
38. Cytosolic amphiregulin accumulation in malignant pleural mesothelioma cells predicts better survival of patient from the IFCT-GFPC-0701 MAPS Phase 3 trial
39. L’expression cytosolique tumorale d’amphireguline prédit la meilleure survie des patients atteints de mésothéliome pleural malin : analyses chez 288 patients de la cohorte Bio-MAPS
40. Role of the YAP-1 Transcriptional Target cIAP2 in the Differential Susceptibility to Chemotherapy of Non-Small-Cell Lung Cancer (NSCLC) Patients with Tumor RASSF1A Gene Methylation from the Phase 3 IFCT-0002 Trial
41. L’expression cytosolique tumorale d’amphiréguline prédit la meilleure survie des patients atteints de mésothéliome pleural malin : analyses chez 288 patients de la cohorte Bio-MAPS
42. La formation des tunneling nanotubes compense l’altération de l’autophagie des cellules épithéliales bronchiques humaines dépourvues de RASSF1A permettant ainsi leur adaptation aux stress cellulaires
43. Les cellules de la lignée bronchique humaine (HBEC-3) n’exprimant plus le gène suppresseur de tumeur RASSF1A acquièrent la capacité d’établir des jonctions communicantes « longue distance »
44. La gemcitabine induit la transcription de l’inhibiteur d’apoptose cIAP-2 dans les cellules de lignées bronchique humaine (HBEC) n’exprimant plus le gène suppresseur de tumeur RASSF1A
45. MSH2/BRCA1 expression as a DNA-repair signature predicting survival in early-stage lung cancer patients from the IFCT-0002 Phase 3 Trial
46. RASSF1A et nanotubes, quel lien dans les cellules de lignées épithéliales bronchiques humaines
47. Cancer and RASSF1A/RASSF1C, the Two Faces of Janus
48. Étude de la formation de jonctions communicantes longue distance (nanotubes) entre cellules de lignées épithéliales bronchiques humaines
49. RASSF1A Suppresses the Invasion and Metastatic Potential of Human Non–Small Cell Lung Cancer Cells by Inhibiting YAP Activation through the GEF-H1/RhoB Pathway
50. Les kinases pro-apoptotiques NDR1/2 sont nécessaires à la motilité des cellules de lignées épithéliales bronchiques humaines dépourvues de RASSF1A
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