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1. Menin inhibitor MI-3454 induces remission in MLL1-rearranged and NPM1-mutated models of leukemia

2. Selective Inhibition of Phosphoinositide 3-Kinase p110? Preserves Lymphocyte Function*

3. Efficacy of the investigational mTOR kinase inhibitor MLN0128 / INK128 in models of B-cell acute lymphoblastic leukemia

4. Targeting KRAS Mutant Cancers with a Covalent G12C-Specific Inhibitor

7. Supplementary Methods, Tables S1 - S3 and S5 - S6, Figures S1 - S12 from Selective Inhibition of Oncogenic KRAS Output with Small Molecules Targeting the Inactive State

8. Supplementary Table S4 from Selective Inhibition of Oncogenic KRAS Output with Small Molecules Targeting the Inactive State

9. Data from Selective Inhibition of Oncogenic KRAS Output with Small Molecules Targeting the Inactive State

10. Figure S2 from KRAS G12C NSCLC Models Are Sensitive to Direct Targeting of KRAS in Combination with PI3K Inhibition

11. Data S1 from KRAS G12C NSCLC Models Are Sensitive to Direct Targeting of KRAS in Combination with PI3K Inhibition

15. Hindered Biaryl Bond Construction and Subsequent Diastereomeric Crystallization to Produce an Atropisomeric Covalent KRASG12C Inhibitor ARS-2102

17. PI3K-δ and PI3K-γ Inhibition by IPI-145 Abrogates Immune Responses and Suppresses Activity in Autoimmune and Inflammatory Disease Models

25. Hindered Biaryl Bond Construction and Subsequent Diastereomeric Crystallization to Produce an Atropisomeric Covalent KRASG12CInhibitor ARS-2102

27. Development of combination therapies to maximize the impact of KRAS-G12C inhibitors in lung cancer

29. KRAS G12C NSCLC Models Are Sensitive to Direct Targeting of KRAS in Combination with PI3K Inhibition

34. Selective Inhibition of Oncogenic KRAS Output with Small Molecules Targeting the Inactive State

36. Discovery of tricyclic 5,6-dihydro-1 H-pyridin-2-ones as novel, potent, and orally bioavailable inhibitors of HCV NS5B polymerase

37. 5,5′- and 6,6′-Dialkyl-5,6-dihydro-1 H-pyridin-2-ones as potent inhibitors of HCV NS5B polymerase

38. 5,6-Dihydro-1 H-pyridin-2-ones as potent inhibitors of HCV NS5B polymerase

42. Novel HCV NS5B polymerase inhibitors derived from 4-(1′,1′-dioxo-1′,4′-dihydro-1′λ 6-benzo[1′,2′,4′]thiadiazin-3′-yl)-5-hydroxy-2 H-pyridazin-3-ones. Part 5: Exploration of pyridazinones containing 6-amino-substituents

43. 4-(1,1-Dioxo-1,4-dihydro-1λ 6-benzo[1,4]thiazin-3-yl)-5-hydroxy-2 H-pyridazin-3-ones as potent inhibitors of HCV NS5B polymerase

44. Pyrrolo[1,2- b]pyridazin-2-ones as potent inhibitors of HCV NS5B polymerase

45. Novel HCV NS5B polymerase inhibitors derived from 4-(1′,1′-dioxo-1′,4′-dihydro-1′λ 6-benzo[1′,2′,4′]thiadiazin-3′-yl)-5-hydroxy-2 H-pyridazin-3-ones: Part 4. Optimization of DMPK properties

46. Novel HCV NS5B polymerase inhibitors derived from 4-(1′,1′-dioxo-1′,4′-dihydro-1′λ 6-benzo[1′,2′,4′]thiadiazin-3′-yl)-5-hydroxy-2 H-pyridazin-3-ones. Part 3: Further optimization of the 2-, 6-, and 7′-substituents and initial pharmacokinetic assessments

47. Novel HCV NS5B polymerase inhibitors derived from 4-(1′,1′-dioxo-1′,4′-dihydro-1′λ 6-benzo[1′,2′,4′]thiadiazin-3′-yl)-5-hydroxy-2 H-pyridazin-3-ones. Part 1: Exploration of 7′-substitution of benzothiadiazine

48. Novel HCV NS5B polymerase inhibitors derived from 4-(1′,1′-dioxo-1′,4′-dihydro-1′ λ6-benzo[1′,2′,4′]thiadiazin-3′-yl)-5-hydroxy-2 H-pyridazin-3-ones. Part 2: Variation of the 2- and 6-pyridazinone substituents

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