Gene therapies and gene product-based drug candidates for normalizing and preserving tissue functions in animal models of ocular hypertension and glaucoma

IF 8.7 2区 医学 Q1 BIOCHEMISTRY & MOLECULAR BIOLOGY
Najam A. Sharif PhD, DSc
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引用次数: 0

Abstract

More than 76 million people worldwide are afflicted with the neurodegenerative eye diseases described and grouped together as glaucoma. A common feature amongst the many forms of glaucoma is chronically elevated intraocular pressure (IOP) within the anterior chamber of the eye that physically damages the retina, optic nerve and parts of the brain connected with visual perception. The mediators of the contusing raised IOP responsible for such damage and loss of vision include locally released inflammatory agents, tissue remodeling enzymes and infiltrating immune cells which damage the retinal ganglion cell (RGC) axons and eventually kill a significant number of the RGCs. Additional culprits include genetic defects of the patient that involve aberrations in receptors, enzymes and/or endogenous ligands and possible over- or under-production of the latter. Other genetic abnormalities may include issues with signal transduction machinery within key cells of critical tissues in the front (e.g. trabecular meshwork [TM] and Schlemm's canal [SC]) and back of the eye (e.g. retinal ganglion cells and their axons). Genome-wide associated studies (GWAS) coupled with next generation sequencing have provided powerful linkage of certain gene defects and polymorphic variants to the onset and progression of diseases of the tissues involved in fluid dynamics in the TM and SC, and many retinal elements (lamina cribosa, optic nerve head) at the back of the eye which cause ocular hypertension (OHT) and glaucomatous optic neuropathy (GON), respectively. Despite the availability of some drugs, fluid drainage microshunts and full surgical techniques to lower and control intraocular pressure, the major modifiable biomarker of open-angle and other forms of glaucoma, their side-effect profiles, less than optimum effectiveness and short duration of action present opportunities to clinically manage the glaucomas with next generation of treatments with high therapeutic indices, including gene therapies. Thus, identification, characterization and deployment of genetic data coupled with traditional drug discovery and novel gene replacement, gene editing and genetic engineering technologies may provide some solutions to the aforementioned problems. These aspects will be discussed in this article.

在高眼压和青光眼动物模型中,基因疗法和基于基因产品的候选药物使组织功能正常化和保持
全世界有超过7600万人患有被称为青光眼的神经退行性眼病。青光眼的一个共同特征是眼球前房内的眼压(IOP)长期升高,这会对视网膜、视神经和大脑中与视觉相关的部分造成物理损害。造成这种损伤和视力丧失的挫伤性IOP升高的介质包括局部释放的炎性因子、组织重塑酶和浸润性免疫细胞,它们损害视网膜神经节细胞(RGC)轴突并最终杀死大量RGC。其他的罪魁祸首包括患者的遗传缺陷,包括受体、酶和/或内源性配体的畸变,以及后者可能过量或不足的产生。其他遗传异常可能包括眼前部(如小梁网[TM]和施莱姆管[SC])和眼后部(如视网膜神经节细胞及其轴突)关键组织关键细胞内信号转导机制的问题。全基因组相关研究(GWAS)与下一代测序相结合,提供了某些基因缺陷和多态性变异与TM和SC中涉及流体动力学的组织疾病的发生和进展的强大联系,以及眼后部的许多视网膜元件(cribosa,视神经头),分别导致眼高压(OHT)和青光眼视神经病变(GON)。尽管有一些药物、液体引流微分流术和全手术技术可以降低和控制眼压,但眼压是开角型和其他形式青光眼的主要可改变生物标志物,它们的副作用、不理想的疗效和持续时间短,为临床治疗青光眼提供了机会,下一代治疗方法具有高治疗指标,包括基因治疗。因此,基因数据的识别、表征和部署,结合传统药物发现和新型基因替代、基因编辑和基因工程技术,可能为上述问题提供一些解决方案。本文将讨论这些方面。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Molecular Aspects of Medicine
Molecular Aspects of Medicine 医学-生化与分子生物学
CiteScore
18.20
自引率
0.00%
发文量
85
审稿时长
55 days
期刊介绍: Molecular Aspects of Medicine is a review journal that serves as an official publication of the International Union of Biochemistry and Molecular Biology. It caters to physicians and biomedical scientists and aims to bridge the gap between these two fields. The journal encourages practicing clinical scientists to contribute by providing extended reviews on the molecular aspects of a specific medical field. These articles are written in a way that appeals to both doctors who may struggle with basic science and basic scientists who may have limited awareness of clinical practice issues. The journal covers a wide range of medical topics to showcase the molecular insights gained from basic science and highlight the challenging problems that medicine presents to the scientific community.
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