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人 KLHL31 抗体对
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人 KLHL31 抗体对

01AB02844

Kelch like family member 31 (KLHL31) is a muscle-specific protein that functions as a substrate-specific adaptor for the ubiquitination and degradation of key sarcomeric proteins, such as Filamin-C (FlnC). By regulating the turnover of these structural components, KLHL31 maintains sarcomere organization and sarcoplasmic reticulum coupling. It is expressed under the control of MEF2 transcription factors and also acts as a transcriptional repressor within the MAPK/JNK signaling pathway, inhibiting the activity of serum response elements. Clinically, the importance of KLHL31 is demonstrated by its link to congenital myopathy. Deficiency of the protein leads to stunted skeletal muscle growth, centronuclear myopathy, and structural defects such as Z-disc streaming and central cores, largely due to the pathological accumulation of FlnC.

Human
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技术参数

靶点基因名
KLHL31
基因别名
BKLHD6; KBTBD1; KLHL
蛋白别名
kelch like family member 31; KLHL31
UniProt
Q9H511
物种
Human

产品详情

靶点名称
KLHL31
蛋白名称
kelch like family member 31
蛋白别名
Kelch-like protein 31; BTB and kelch domain-containing protein 6; Kelch repeat and BTB domain-containing protein 1; Kelch-like protein KLHL
靶点基因名
KLHL31
基因别名
BKLHD6; KBTBD1; KLHL
UniProt
Q9H511
来源物种
Homo sapiens (Human)
物种反应性
Human

背景介绍

Kelch like family member 31 (KLHL31) is a muscle-specific protein that functions as a substrate-specific adaptor for the ubiquitination and degradation of key sarcomeric proteins, such as Filamin-C (FlnC). By regulating the turnover of these structural components, KLHL31 maintains sarcomere organization and sarcoplasmic reticulum coupling. It is expressed under the control of MEF2 transcription factors and also acts as a transcriptional repressor within the MAPK/JNK signaling pathway, inhibiting the activity of serum response elements. Clinically, the importance of KLHL31 is demonstrated by its link to congenital myopathy. Deficiency of the protein leads to stunted skeletal muscle growth, centronuclear myopathy, and structural defects such as Z-disc streaming and central cores, largely due to the pathological accumulation of FlnC.