Disruption of morphogenic and growth pathways in lysosomal storage diseases.

IF 4.6 3区 医学 Q2 MEDICINE, RESEARCH & EXPERIMENTAL WIREs Mechanisms of Disease Pub Date : 2021-09-01 Epub Date: 2021-02-25 DOI:10.1002/wsbm.1521
Thiago Corrêa, Bruno C Feltes, Roberto Giugliani, Ursula Matte
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引用次数: 2

Abstract

The lysosome achieved a new protagonism that highlights its multiple cellular functions, such as in the catabolism of complex substrates, nutrient sensing, and signaling pathways implicated in cell metabolism and growth. Lysosomal storage diseases (LSDs) cause lysosomal accumulation of substrates and deficiency in trafficking of macromolecules. The substrate accumulation can impact one or several pathways which contribute to cell damage. Autophagy impairment and immune response are widely studied, but less attention is paid to morphogenic and growth pathways and its impact on the pathophysiology of LSDs. Hedgehog pathway is affected with abnormal expression and changes in distribution of protein levels, and a reduced number and length of primary cilia. Moreover, growth pathways are identified with delay in reactivation of mTOR that deregulate termination of autophagy and reformation of lysosomes. Insulin resistance caused by changes in lipids rafts has been described in different LSDs. While the genetic and biochemical bases of deficient proteins in LSDs are well understood, the secondary molecular mechanisms that disrupt wider biological processes associated with LSDs are only now becoming clearer. Therefore, we explored how specific signaling pathways can be related to specific LSDs, showing that a system medicine approach could be a valuable tool for the better understanding of LSD pathogenesis. This article is categorized under: Metabolic Diseases > Molecular and Cellular Physiology.

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溶酶体贮积病中形态发生和生长途径的破坏。
溶酶体获得了一个新的主角,突出了它的多种细胞功能,如复杂底物的分解代谢、营养传感和与细胞代谢和生长有关的信号通路。溶酶体贮积病(lsd)引起溶酶体底物积累和大分子运输不足。底物积累可以影响一个或几个途径,有助于细胞损伤。自噬损伤和免疫应答研究广泛,但对lsd的形态发生和生长途径及其对病理生理的影响研究较少。Hedgehog通路受蛋白质表达异常和分布水平改变、初级纤毛数量和长度减少的影响。此外,生长途径被确定为mTOR再激活的延迟,从而解除对自噬终止和溶酶体重组的调节。脂筏变化引起的胰岛素抵抗在不同的lsd中都有描述。虽然lsd中缺陷蛋白的遗传和生化基础已经得到了很好的理解,但破坏与lsd相关的更广泛的生物过程的次级分子机制现在才变得更加清楚。因此,我们探索了特定的信号通路如何与特定的LSD相关,表明系统医学方法可能是更好地了解LSD发病机制的有价值的工具。本文分类为:代谢疾病>分子与细胞生理学。
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来源期刊
WIREs Mechanisms of Disease
WIREs Mechanisms of Disease MEDICINE, RESEARCH & EXPERIMENTAL-
CiteScore
11.40
自引率
0.00%
发文量
45
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