Ebola and Marburg (EBOV and MARV) filoviral infections lead to fatal hemorrhagic fevers and have caused over 30 outbreaks in the last 50 years. Currently, there are no FDA-approved small molecule therapeutics for effectively treating filoviral diseases. To address this unmet medical need, we have conducted a systematic structural optimization of an early lead compound, N-(4-(4-methylpiperidin-1-yl)-3-(trifluoromethyl)phenyl)-4-(morpholinomethyl)benzamide (1), borne from our previously reported hit-to-lead effort. This secondary round of structure-activity relationship (SAR) involved the design and synthesis of several deconstructed and reconstructed analogs of compound 1, which were then tested against pseudotyped EBOV and MARV. The antiviral activities of the most promising leads were further validated in infectious assays. The optimized analogs exhibited desirable antiviral activity against different ebolaviruses and reduced off-target activity. Additionally, they also possessed druglike properties, that make them ideal candidates for in vivo efficacy studies as part of our ongoing drug discovery campaign against EBOV and MARV.
Guardians at the Gate: Optimization of Small Molecule Entry Inhibitors of Ebola and Marburg Viruses.
守门人:埃博拉病毒和马尔堡病毒小分子进入抑制剂的优化
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作者:Argade Malaika D, Achi Jazmin Galván, Bott Ryan, Morsheimer Kimberly M, Owen Callum D, Zielinski Christian A, Gaisin Arsen M, Alvarez Mario, Moore Terry W, Bu Fan, Li Fang, Cameron Michael, Anantpadma Manu, Davey Robert A, Peet Norton P, Rong Lijun, Gaisina Irina N
| 期刊: | Journal of Medicinal Chemistry | 影响因子: | 6.800 |
| 时间: | 2025 | 起止号: | 2025 Jan 9; 68(1):135-155 |
| doi: | 10.1021/acs.jmedchem.4c01646 | 研究方向: | 其它 |
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