葡萄糖激酶与其变构激活剂相互作用的比较对接评估。

Vandana Kumari, Chenglong Li
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引用次数: 19

摘要

葡萄糖激酶(Glucokinase, GK)在多个器官中表达,在肝脏糖代谢和胰腺胰岛素分泌中起关键作用。GK确实可以作为糖酵解的起搏器,可能是2型糖尿病(T2D)的一个有吸引力的靶点。最近,首个GK激活剂RO-28-1675的临床前数据为GK激活作为T2D治疗的有力工具开辟了一个新的领域。GK变构位点位于葡萄糖结合位点~20A处。葡萄糖激酶激活剂(GKA)的化学结构包括三个化学臂;在这项研究中,使用Autodock4进行比较对接评估发现,这三个臂在变构位点与三个芳香/疏水亚袋结合。我们的对接在对接模式和模拟结合自由能方面与实验数据总体一致,并为理解GK/GKA相互作用和进一步设计GKA提供了见解。具体来说,对于第一个口袋,Arg63作为关键残基与所有变构活化剂形成两个特定的氢键,定义了结合特征;对于第二个口袋,它具有最多样化的结合相互作用,主要是芳香,疏水和多个氢键。利用芳香族杂环和氢键形成连接物构建GKA 2(nd)臂,该位点具有进一步优化GKA的潜力。
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Comparative docking assessment of glucokinase interactions with its allosteric activators.

Glucokinase (GK) is expressed in multiple organs and plays a key role in hepatic glucose metabolism and pancreatic insulin secretion. GK could indeed serve as pacemaker of glycolysis and could be an attractive target for type 2 diabetes (T2D). The recent preclinical data of first GK activator RO-28-1675 has opened up a new field of GK activation as a powerful tool in T2D therapies. The GK allosteric site is located ~20A away from glucose binding site. Chemical structure of Glucokinase activators (GKA) includes three chemical arms; all consisting of cyclic moiety and joined in a shape resembling the letter Y. In this study, comparative docking assessment using Autodock4 revealed that the three arms bind to three aromatic/hydrophobic subpockets at the allosteric site. Our dockings have overall consistency with experimental data in both docking modes and simulated binding free energies, and offer insights on understanding GK/GKA interactions and further GKA design. Specifically, for the first pocket, involvement of Arg63 as key residue in two specific hydrogen-bond formations with all allosteric activators defines the binding feature; for the second pocket, it has the most diverse binding interactions, mostly aromatic, hydrophobic and multiple hydrogen bonds. The site has the best potential for further GKA optimization by utilizing aromatic heterocycles and hydrogen bond forming linkers to build the GKA 2(nd) arm.

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