116 results on '"Thomas Wiesner"'
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2. Supplementary Table S5 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
3. Supplementary Table S12 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
4. Supplementary Table S8 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
5. Supplementary Table S4 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
6. Supplementary Table S1 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
7. Supplementary Table S2 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
8. Supplementary Table S13 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
9. Supplementary Table S11 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
10. Supplementary Table S3 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
11. Supplementary Table S10 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
12. Data from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
13. Supplementary Table S14 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
14. Supplementary Table S9 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
15. Supplementary Table S6 from Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell–like Program Conserved in HPV-Positive Cancers
16. Parallel mechanochemical optimization – Buchwald–Hartwig C–N coupling as a test case
17. Supplementary Figure 1 from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
18. Supplementary Figure Legend from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
19. Supplementary Figure 2 from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
20. Supplementary Figure 6 from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
21. Supplementary Figure 4 from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
22. Supplementary Figure 10 from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
23. Data from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
24. Supplementary Figure 9 from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
25. Supplementary Figure 5 from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
26. Supplementary Figure 7 from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
27. Supplementary Figure 3 from Conjunctival Melanomas Harbor BRAF and NRAS Mutations and Copy Number Changes Similar to Cutaneous and Mucosal Melanomas
28. Nested Sampling aided determination of tantalum optical constants in the EUV spectral range
29. N‐Acenoacenes: Synthesis and Solid‐State Properties
30. Acquired resistance to anti-MAPK targeted therapy confers an immune-evasive tumor microenvironment and cross-resistance to immunotherapy in melanoma
31. Diazapentacenes from Quinacridones
32. The Radical Anion, Dianion and Electron Transport Properties of Tetraiodotetraazapentacene
33. Human Papillomavirus 42 Drives Digital Papillary Adenocarcinoma and Elicits a Germ Cell-like Program Conserved in HPV-Positive Cancers
34. An updated cost-utility model for onasemnogene abeparvovec (Zolgensma®) in spinal muscular atrophy type 1 patients and comparison with evaluation by the Institute for Clinical and Effectiveness Review (ICER)
35. Adressen
36. Schwerhörigkeit
37. Stable N,N'-Diarylated Dihydrodiazaacene Radical Cations
38. Molecular Pathology and Genomics of Melanoma
39. BODIPY-Pyrene and Perylene Dyads as Heavy-Atom-Free Singlet Oxygen Sensitizers
40. Control of triplet state generation in heavy atom-free BODIPY–anthracene dyads by media polarity and structural factors
41. SF3B1 and BAP1 mutations in blue nevus-like melanoma
42. Reduced H3K27me3 expression in Merkel cell polyoma virus-positive tumors
43. Double-Strand DNA Breaks Induced by Paracyclophane Gold(I) Complexes
44. Diagnosis and Differential Diagnosis of Disorders of Hearing Development
45. Rehabilitation and Prognosis of Disorders of Hearing Development
46. Adressen
47. Molecular Techniques
48. Contributors
49. Hörgeräteversorgung bei Kindern
50. Anwendung des Reziprozitätsverfahrens zur Kalibrierung von Elektretmikrofonen
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