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1. T-cell stimulating vaccines empower CD3 bispecific antibody therapy in solid tumors

2. Tumor-derived GDF-15 blocks LFA-1 dependent T cell recruitment and suppresses responses to anti-PD-1 treatment

3. The MHC-E peptide ligands for checkpoint CD94/NKG2A are governed by inflammatory signals, whereas LILRB1/2 receptors are peptide indifferent

4. Characterization of the early cellular immune response induced by HPV vaccines

5. Tumor-Infiltrating T Cells Can Be Expanded Successfully from Primary Uveal Melanoma after Separation from Their Tumor Environment

7. Neoantigen-specific immunity in low mutation burden colorectal cancers of the consensus molecular subtype 4

8. Monalizumab: inhibiting the novel immune checkpoint NKG2A

9. High numbers of activated helper T cells are associated with better clinical outcome in early stage vulvar cancer, irrespective of HPV or p53 status

10. Metabolic stress in cancer cells induces immune escape through a PI3K-dependent blockade of IFNγ receptor signaling

11. Tumor microenvironment modulation enhances immunologic benefit of chemoradiotherapy

12. Demarcated thresholds of tumor-specific CD8 T cells elicited by MCMV-based vaccine vectors provide robust correlates of protection

13. Regulatory T Cell Depletion Using a CRISPR Fc-Optimized CD25 Antibody

14. Photochemical Internalization Enhanced Vaccination Is Safe, and Gives Promising Cellular Immune Responses to an HPV Peptide-Based Vaccine in a Phase I Clinical Study in Healthy Volunteers

15. The Tumor Microenvironment and Immunotherapy of Oropharyngeal Squamous Cell Carcinoma

16. TEIPP peptides: exploration of unTAPped cancer antigens

17. T cells specific for a TAP-independent self-peptide remain naïve in tumor-bearing mice and are fully exploitable for therapy

18. Features of Effective T Cell-Inducing Vaccines against Chronic Viral Infections

19. T Cells Engaging the Conserved MHC Class Ib Molecule Qa-1b with TAP-Independent Peptides Are Semi-Invariant Lymphocytes

20. Managing Multi-center Flow Cytometry Data for Immune Monitoring

21. High-Risk Human Papillomavirus Targets Crossroads in Immune Signaling

22. The Potential and Challenges of Exploiting the Vast But Dynamic Neoepitope Landscape for Immunotherapy

23. Managing Multi-center Flow Cytometry Data for Immune Monitoring

24. Monitoring of the Immune Dysfunction in Cancer Patients

26. PD-L1 checkpoint blockade promotes regulatory T cell activity that underlies therapy resistance

30. Data from Differential Expression of CD49a and CD49b Determines Localization and Function of Tumor-Infiltrating CD8+ T Cells

31. Data from Intertumoral Differences Dictate the Outcome of TGF-β Blockade on the Efficacy of Viro-Immunotherapy

33. Supplementary Methods SM1 from Intertumoral Differences Dictate the Outcome of TGF-β Blockade on the Efficacy of Viro-Immunotherapy

34. Supplemental Figure S3 from Therapeutic Peptide Vaccine-Induced CD8 T Cells Strongly Modulate Intratumoral Macrophages Required for Tumor Regression

37. Supplementary Figures 1 through 5 and supplementary Tables 1 through 3 from Long-term Survival and Clinical Benefit from Adoptive T-cell Transfer in Stage IV Melanoma Patients Is Determined by a Four-Parameter Tumor Immune Signature

38. Data from Long-term Survival and Clinical Benefit from Adoptive T-cell Transfer in Stage IV Melanoma Patients Is Determined by a Four-Parameter Tumor Immune Signature

39. Data from Digital PCR-Based T-cell Quantification–Assisted Deconvolution of the Microenvironment Reveals that Activated Macrophages Drive Tumor Inflammation in Uveal Melanoma

43. Data from Therapeutic Peptide Vaccine-Induced CD8 T Cells Strongly Modulate Intratumoral Macrophages Required for Tumor Regression

44. Data from CD4+ T Cell and NK Cell Interplay Key to Regression of MHC Class Ilow Tumors upon TLR7/8 Agonist Therapy

45. Supplemental figure 3 from Vaccine-Induced Tumor Necrosis Factor–Producing T Cells Synergize with Cisplatin to Promote Tumor Cell Death

47. Supplemental Video 2 from Vaccine-Induced Tumor Necrosis Factor–Producing T Cells Synergize with Cisplatin to Promote Tumor Cell Death

48. Supplemental figure 2 from Vaccine-Induced Tumor Necrosis Factor–Producing T Cells Synergize with Cisplatin to Promote Tumor Cell Death

49. Supplemental figure 1 from Vaccine-Induced Tumor Necrosis Factor–Producing T Cells Synergize with Cisplatin to Promote Tumor Cell Death

50. Supplemental Video 4 from Vaccine-Induced Tumor Necrosis Factor–Producing T Cells Synergize with Cisplatin to Promote Tumor Cell Death

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