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Ciliopathy-associated proteins are involved in vesicle distribution in sensory cilia
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作者 Ming Li Wanzhong He +1 位作者 Wei Li Guangshuo Ou 《Journal of Genetics and Genomics》 SCIE CAS CSCD 2019年第5期269-271,共3页
Cilia play a wide range of critical roles in regulating cell motility,sensory signaling and metazoan development(Goetz and Anderson,2010;Reiter and Leroux,2017).Both motile cilia and pri-mary cilia consist of a basal ... Cilia play a wide range of critical roles in regulating cell motility,sensory signaling and metazoan development(Goetz and Anderson,2010;Reiter and Leroux,2017).Both motile cilia and pri-mary cilia consist of a basal body and a microtubule-based axoneme that is encompassed within the ciliary membrane.The formationand maintenance of ciliary structure depends on bidirectional intraflagellar transport(IFT):the kinesin-2 family motor proteins deliver ciliary precursors bound to the IFT particle protein complex from the ciliary base to the tip and the cytoplasmic dynein-2 recy-cles the anterograde IFT-protein machinery and ciliary turnover products back to the base(Scholey,2013;Reiter and Leroux,2017).Defects of ciliary structure and function lead to more than 35 types of systemic disorders in most human organ systems.which are collectively called ciliopathies(Reiter and Leroux,2017).187 established and 241 candidate ciliopathy-associated genes have been identified from the human genome(Reiter and Leroux,2017). 展开更多
关键词 VESICLE DISTRIBUTION SENSORY CILIA
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Spine maturation and pruning during development: Cadherin/Catenin complexes come to help
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作者 QIAN Cheng LI YuLong 《Science China(Life Sciences)》 SCIE CAS CSCD 2015年第9期929-930,共2页
Structural and functional alterations of synaptic connections underlay experience-dependent neuronal plasticity and are crucial for many brain functions, including learning and memory. Their defects, on the other hand... Structural and functional alterations of synaptic connections underlay experience-dependent neuronal plasticity and are crucial for many brain functions, including learning and memory. Their defects, on the other hand, have been asso- ciated with neurological disorders such as autism. Although the molecular mechanism underlying long-term functional alterations of synaptic connections, including LTP and LTD, are becoming increasingly clear, the molecular mechanism for structural plasticity, such as spine pruning, remains largely unknown, especially in vivo. 展开更多
关键词 蛋白复合物 钙粘蛋白 开发过程 修剪 神经可塑性 成熟 脊柱 神经系统疾病
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