Department of Chemistry , Duke University , French Family Science Center, 124 Science Drive , Durham , North Carolina 27708 , United States.
Inorg Chem. 2019 Oct 21;58(20):13528-13545. doi: 10.1021/acs.inorgchem.9b01029. Epub 2019 Jun 19.
The indispensable requirement for metals in life processes has led to the evolution of sophisticated mechanisms that allow organisms to maintain dynamic equilibria of these ions. This dynamic control of the level, speciation, and availability of a variety of metal ions allows organisms to sustain biological processes while avoiding toxicity. When functioning properly, these mechanisms allow cells to return to their metal homeostatic set points following shifts in the metal availability or other stressors. These periods of transition, when cells are in a state of flux in which they work to regain homeostasis, present windows of opportunity to pharmacologically manipulate targets associated with metal-trafficking pathways in ways that could either facilitate a return to homeostasis and the recovery of cellular function or further push cells outside of homeostasis and into cellular distress. The purpose of this Viewpoint is to highlight emerging opportunities for chemists and chemical biologists to develop compounds to manipulate metal-trafficking processes for therapeutic benefit.
金属在生命过程中不可或缺,这促使生物进化出了复杂的机制,使生物体能够维持这些离子的动态平衡。这种对各种金属离子的水平、形态和可用性的动态控制,使生物体能够维持生物过程,同时避免毒性。当这些机制正常运作时,它们允许细胞在金属供应或其他胁迫因素发生变化后,回到其金属稳态设定点。在这些过渡时期,细胞处于一种流动状态,它们努力恢复稳态,这为药理学干预与金属转运途径相关的靶点提供了机会,这些靶点的干预既可以促进细胞恢复稳态和恢复细胞功能,也可以进一步推动细胞脱离稳态并进入细胞应激状态。本观点的目的是强调化学家与化学生物学家的新机遇,他们可以开发化合物来操纵金属转运过程,以获得治疗益处。