Mitochondrial medicine

IF 2.7 2区 生物学 Q2 BIOCHEMISTRY & MOLECULAR BIOLOGY Biochimica et Biophysica Acta-Bioenergetics Pub Date : 2004-12-06 Epub Date: 2004-08-19 DOI:10.1016/j.bbabio.2004.08.003
Salvatore DiMauro
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Abstract

After reviewing the history of mitochondrial diseases, I follow a genetic classification to discuss new developments and old conundrums.
In the field of mitochondrial DNA (mtDNA) mutations, I argue that we are not yet scraping the bottom of the barrel because: (i) new mtDNA mutations are still being discovered, especially in protein-coding genes; (ii) the pathogenicity of homoplasmic mutations is being revisited; (iii) some genetic dogmas are chipped but not broken; (iv) mtDNA haplotypes are gaining interest in human pathology; (v) pathogenesis is still largely enigmatic.
In the field of nuclear DNA (nDNA) mutations, there has been good progress in our understanding of disorders due to faulty intergenomic communication. Of the genes responsible for multiple deletions and depletion of mtDNA, mutations in POLG have been associated with a great variety of clinical phenotypes in humans and to precocious aging in mice. Novel pathogenetic mechanisms include alterations in the lipid milieu of the inner mitochondrial membrane and mutations in genes controlling mitochondrial motility, fission, and fusion.
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线粒体医学
在回顾了线粒体疾病的历史之后,我遵循遗传分类来讨论新的发展和旧的难题。在线粒体DNA (mtDNA)突变领域,我认为我们还没有触及底部,因为:(1)新的mtDNA突变仍在被发现,特别是在蛋白质编码基因中;(ii)正在重新审视同质突变的致病性;(iii)一些基因教条被削弱,但没有被打破;(iv) mtDNA单倍型在人类病理学中越来越受到关注;(五)发病机制仍是一个谜。在核DNA (nDNA)突变领域,我们对基因组间通讯错误导致的疾病的理解取得了良好的进展。在导致mtDNA多次缺失和耗竭的基因中,POLG突变与人类多种临床表型和小鼠早衰有关。新的发病机制包括线粒体内膜脂质环境的改变和控制线粒体运动、裂变和融合的基因突变。
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来源期刊
Biochimica et Biophysica Acta-Bioenergetics
Biochimica et Biophysica Acta-Bioenergetics 生物-生化与分子生物学
CiteScore
9.50
自引率
7.00%
发文量
363
审稿时长
92 days
期刊介绍: BBA Bioenergetics covers the area of biological membranes involved in energy transfer and conversion. In particular, it focuses on the structures obtained by X-ray crystallography and other approaches, and molecular mechanisms of the components of photosynthesis, mitochondrial and bacterial respiration, oxidative phosphorylation, motility and transport. It spans applications of structural biology, molecular modeling, spectroscopy and biophysics in these systems, through bioenergetic aspects of mitochondrial biology including biomedicine aspects of energy metabolism in mitochondrial disorders, neurodegenerative diseases like Parkinson''s and Alzheimer''s, aging, diabetes and even cancer.
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