Correction to: Calmodulin Mediates Ca2+-Dependent Inhibition of Tie2 Signaling and Acts as a Developmental Brake During Embryonic Angiogenesis.

ChansikYang, JiyeonOhk, Ji YeunLee, Eun JinKim, JiyoonKim, SangyeulHan, DongeunPark, HosungJung, ChunghoKim
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Abstract

Objective—Angiogenesis, the process of building complex vascular structures, begins with sprout formation on preexisting blood vessels, followed by extension of the vessels through proliferation and migration of endothelial cells. Based on the potential therapeutic benefits of preventing angiogenesis in pathological conditions, many studies have focused on the mechanisms of its initiation as well as control. However, how the extension of vessels is terminated remains obscure. Thus, we investigated the negative regulation mechanism. Approach and Results—We report that increased intracellular calcium can induce dephosphorylation of the endothelial receptor tyrosine kinase Tie2. The calcium-mediated dephosphorylation was found to be dependent on Tie2–calmodulin interaction. The Tyr1113 residue in the C-terminal end loop of the Tie2 kinase domain was mapped and found to be required for this interaction. Moreover, mutation of this residue into Phe impaired both the Tie2-calmodulin interaction and calcium-media...
修正:钙调素介导Ca2+依赖性的Tie2信号抑制,并在胚胎血管生成过程中作为发育制动器。
目的:血管生成,即复杂血管结构的形成过程,始于原有血管上的萌芽形成,然后通过内皮细胞的增殖和迁移使血管延伸。基于在病理条件下预防血管生成的潜在治疗益处,许多研究都集中在其启动和控制的机制上。然而,血管的延伸是如何终止的尚不清楚。因此,我们对其负调控机制进行了研究。方法和结果-我们报道细胞内钙的增加可以诱导内皮受体酪氨酸激酶Tie2的去磷酸化。发现钙介导的去磷酸化依赖于铁-钙调蛋白相互作用。在Tie2激酶结构域的c末端环上的Tyr1113残基被定位并发现是这种相互作用所必需的。此外,该残基突变为Phe破坏了铁与钙调蛋白的相互作用和钙与介质的相互作用。
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