Mutations in TOMM70 lead to multi-OXPHOS deficiencies and cause severe anemia, lactic acidosis, and developmental delay

TOM70 is a member of the TOM complex that transports cytosolic proteins into mitochondria. Here, we identified two compound heterozygous variants in TOMM70 [c.794C>T (p.T265M) and c.1745C>T (p.A582V)] from a patient with severe anemia, lactic acidosis, and developmental delay. Patient-derived...

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Veröffentlicht in:Journal of human genetics 2020-03, Vol.65 (3), p.231-240
Hauptverfasser: Wei, Xiujuan, Du, Miaomiao, Xie, Jie, Luo, Ting, Zhou, Yan, Zhang, Kun, Li, Jin, Chen, Deyu, Xu, Pu, Jia, Manli, Zhou, Huaibin, Fang, Hezhi, Lyu, Jianxin, Yang, Yanling
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container_issue 3
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container_title Journal of human genetics
container_volume 65
creator Wei, Xiujuan
Du, Miaomiao
Xie, Jie
Luo, Ting
Zhou, Yan
Zhang, Kun
Li, Jin
Chen, Deyu
Xu, Pu
Jia, Manli
Zhou, Huaibin
Fang, Hezhi
Lyu, Jianxin
Yang, Yanling
description TOM70 is a member of the TOM complex that transports cytosolic proteins into mitochondria. Here, we identified two compound heterozygous variants in TOMM70 [c.794C>T (p.T265M) and c.1745C>T (p.A582V)] from a patient with severe anemia, lactic acidosis, and developmental delay. Patient-derived immortalized lymphocytes showed decreased TOM70 expression, oligomerized TOM70 complex, and TOM 20/22/40 complex compared with expression in control lymphocytes. Functional analysis revealed that patient-derived cells exhibited multi-oxidative phosphorylation system (OXPHOS) complex defects, with complex IV being primarily affected. As a result, patient-derived cells grew slower in galactose medium and generated less ATP and more extracellular lactic acid than did control cells. In vitro cell model compensatory experiments confirmed the pathogenicity of TOMM70 variants since only wild-type TOM70, but not mutant TOM70, could restore the complex IV defect and TOM70 expression in TOM70 knockdown U2OS cells. Altogether, we report the first case of mitochondrial disease-causing mutations in TOMM70 and demonstrate that TOM70 is essential for multi-OXPHOS assembly. Mutational screening of TOMM70 should be employed to identify mitochondrial disease-causing gene mutations in the future.
doi_str_mv 10.1038/s10038-019-0714-1
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Here, we identified two compound heterozygous variants in TOMM70 [c.794C&gt;T (p.T265M) and c.1745C&gt;T (p.A582V)] from a patient with severe anemia, lactic acidosis, and developmental delay. Patient-derived immortalized lymphocytes showed decreased TOM70 expression, oligomerized TOM70 complex, and TOM 20/22/40 complex compared with expression in control lymphocytes. Functional analysis revealed that patient-derived cells exhibited multi-oxidative phosphorylation system (OXPHOS) complex defects, with complex IV being primarily affected. As a result, patient-derived cells grew slower in galactose medium and generated less ATP and more extracellular lactic acid than did control cells. In vitro cell model compensatory experiments confirmed the pathogenicity of TOMM70 variants since only wild-type TOM70, but not mutant TOM70, could restore the complex IV defect and TOM70 expression in TOM70 knockdown U2OS cells. Altogether, we report the first case of mitochondrial disease-causing mutations in TOMM70 and demonstrate that TOM70 is essential for multi-OXPHOS assembly. 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Here, we identified two compound heterozygous variants in TOMM70 [c.794C&gt;T (p.T265M) and c.1745C&gt;T (p.A582V)] from a patient with severe anemia, lactic acidosis, and developmental delay. Patient-derived immortalized lymphocytes showed decreased TOM70 expression, oligomerized TOM70 complex, and TOM 20/22/40 complex compared with expression in control lymphocytes. Functional analysis revealed that patient-derived cells exhibited multi-oxidative phosphorylation system (OXPHOS) complex defects, with complex IV being primarily affected. As a result, patient-derived cells grew slower in galactose medium and generated less ATP and more extracellular lactic acid than did control cells. In vitro cell model compensatory experiments confirmed the pathogenicity of TOMM70 variants since only wild-type TOM70, but not mutant TOM70, could restore the complex IV defect and TOM70 expression in TOM70 knockdown U2OS cells. Altogether, we report the first case of mitochondrial disease-causing mutations in TOMM70 and demonstrate that TOM70 is essential for multi-OXPHOS assembly. Mutational screening of TOMM70 should be employed to identify mitochondrial disease-causing gene mutations in the future.</abstract><cop>England</cop><pub>Nature Publishing Group</pub><pmid>31907385</pmid><doi>10.1038/s10038-019-0714-1</doi><tpages>10</tpages></addata></record>
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subjects Acidosis
Acidosis, Lactic - genetics
Acidosis, Lactic - pathology
Anemia
Anemia - genetics
Anemia - pathology
Child
Developmental Disabilities - genetics
Developmental Disabilities - pathology
Disease
Galactose
Genes
Genomes
Hospitals
Humans
Laboratories
Lactic acid
Lactic acidosis
Lymphocytes
Male
Mitochondria
Mitochondria - genetics
Mitochondrial Diseases - genetics
Mitochondrial Diseases - pathology
Mitochondrial Membrane Transport Proteins - genetics
Mitochondrial Precursor Protein Import Complex Proteins
Mutation
Mutation - genetics
Oxidative Phosphorylation
Pathogenicity
Phosphorylation
Protein transport
Proteins
Whole Exome Sequencing
title Mutations in TOMM70 lead to multi-OXPHOS deficiencies and cause severe anemia, lactic acidosis, and developmental delay
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