529 results on '"Francis, David M."'
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2. Diploid Potatoes as a Catalyst for Change in the Potato Industry
3. Interstitial Brachytherapy for Lip Cancer: Technical Aspects to Individualize Treatment Approach and Optimize Outcomes
4. Targeting the GTV in medically inoperable endometrial cancer using brachytherapy
5. Thermosensitive hydrogel releasing nitric oxide donor and anti-CTLA-4 micelles for anti-tumor immunotherapy
6. Drug-eluting immune checkpoint blockade antibody-nanoparticle conjugate enhances locoregional and systemic combination cancer immunotherapy through T lymphocyte targeting
7. Low cardiac and left anterior descending coronary artery dose achieved with left-sided multicatheter interstitial-accelerated partial breast irradiation
8. Contributors
9. The MET receptor as a therapeutic target in head and neck squamous cell carcinomas
10. Fibroblast growth factor receptors as therapeutic targets in head and neck squamous cell carcinomas
11. Novel use of ViewRay MRI guidance for high-dose-rate brachytherapy in the treatment of cervical cancer
12. Impact of adjuvant fractionated stereotactic radiotherapy dose on local control of brain metastases
13. Material design for lymph node drug delivery
14. Ty-6, a major begomovirus resistance gene on chromosome 10, is effective against Tomato yellow leaf curl virus and Tomato mottle virus
15. Online patient information from radiation oncology departments is too complex for the general population
16. Transcriptomics and Metabolomics Reveal Tomato Consumption Alters Hepatic Xenobiotic Metabolism and Induces Steroidal Alkaloid Metabolite Accumulation in Mice.
17. Detection of trait donors and QTL boundaries for early blight resistance using local ancestry inference in a library of genomic sequences for tomato.
18. Marker-assisted Selection to Combine Alleles for Four Disease Resistance Genes of Tomato Collocated on Chromosome 11
19. Transcriptomics and Metabolomics Reveal Tomato Consumption Alters Hepatic Xenobiotic Metabolism and Induces Steroidal Alkaloid Metabolite Accumulation in Mice
20. Supplementary Fig. 3 from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
21. Supplemental figure 4 from Antitumor Effects of MEHD7945A, a Dual-Specific Antibody against EGFR and HER3, in Combination with Radiation in Lung and Head and Neck Cancers
22. Supplemental figure legends from Antitumor Effects of MEHD7945A, a Dual-Specific Antibody against EGFR and HER3, in Combination with Radiation in Lung and Head and Neck Cancers
23. Supplemental figure 2 from Antitumor Effects of MEHD7945A, a Dual-Specific Antibody against EGFR and HER3, in Combination with Radiation in Lung and Head and Neck Cancers
24. Supplementary Fig. 6 from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
25. Supplementary Figure Legends from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
26. Supplemental figure 1 from Antitumor Effects of MEHD7945A, a Dual-Specific Antibody against EGFR and HER3, in Combination with Radiation in Lung and Head and Neck Cancers
27. Supplementary Fig. 7 from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
28. Supplemental figure 3 from Antitumor Effects of MEHD7945A, a Dual-Specific Antibody against EGFR and HER3, in Combination with Radiation in Lung and Head and Neck Cancers
29. Supplementary Fig. 5 from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
30. Supplementary Fig. 4 from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
31. Supplemental figure 5 from Antitumor Effects of MEHD7945A, a Dual-Specific Antibody against EGFR and HER3, in Combination with Radiation in Lung and Head and Neck Cancers
32. Data from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
33. Supplementary Fig. 1 from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
34. Supplementary Fig. 2 from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
35. Supplementary Materials and Methods from Small Molecule Inhibition of MDM2–p53 Interaction Augments Radiation Response in Human Tumors
36. Supplementary Figure 4 from Pan-HER Inhibitor Augments Radiation Response in Human Lung and Head and Neck Cancer Models
37. Supplementary Table 1 from Differential Expression of 2′,3′-Cyclic-Nucleotide 3′-Phosphodiesterase and Neural Lineage Markers Correlate with Glioblastoma Xenograft Infiltration and Patient Survival
38. Supplementary Figure 2 from Differential Expression of 2′,3′-Cyclic-Nucleotide 3′-Phosphodiesterase and Neural Lineage Markers Correlate with Glioblastoma Xenograft Infiltration and Patient Survival
39. Supplementary Figure Legend from Differential Expression of 2′,3′-Cyclic-Nucleotide 3′-Phosphodiesterase and Neural Lineage Markers Correlate with Glioblastoma Xenograft Infiltration and Patient Survival
40. Supplementary Figure Legends from Pan-HER Inhibitor Augments Radiation Response in Human Lung and Head and Neck Cancer Models
41. Supplementary Table 2 from Differential Expression of 2′,3′-Cyclic-Nucleotide 3′-Phosphodiesterase and Neural Lineage Markers Correlate with Glioblastoma Xenograft Infiltration and Patient Survival
42. Data from Pan-HER Inhibitor Augments Radiation Response in Human Lung and Head and Neck Cancer Models
43. Supplementary Figure 2 from Pan-HER Inhibitor Augments Radiation Response in Human Lung and Head and Neck Cancer Models
44. Supplementary Figure 3 from Pan-HER Inhibitor Augments Radiation Response in Human Lung and Head and Neck Cancer Models
45. CCR Translation for This Article from Differential Expression of 2′,3′-Cyclic-Nucleotide 3′-Phosphodiesterase and Neural Lineage Markers Correlate with Glioblastoma Xenograft Infiltration and Patient Survival
46. Supplementary Figure 1 from Differential Expression of 2′,3′-Cyclic-Nucleotide 3′-Phosphodiesterase and Neural Lineage Markers Correlate with Glioblastoma Xenograft Infiltration and Patient Survival
47. Supplementary Table 3 from Differential Expression of 2′,3′-Cyclic-Nucleotide 3′-Phosphodiesterase and Neural Lineage Markers Correlate with Glioblastoma Xenograft Infiltration and Patient Survival
48. Supplementary Figure 1 from Pan-HER Inhibitor Augments Radiation Response in Human Lung and Head and Neck Cancer Models
49. Supplemental Figure 6 from In Situ Tumor Vaccination by Combining Local Radiation and Tumor-Specific Antibody or Immunocytokine Treatments
50. Supplemental Figure 5 from In Situ Tumor Vaccination by Combining Local Radiation and Tumor-Specific Antibody or Immunocytokine Treatments
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