Mulakkal Nitha C, Nagy Peter, Takats Szabolcs, Tusco Radu, Juhász Gábor, Nezis Ioannis P
School of Life Sciences, University of Warwick, Coventry CV4 7AL, UK.
Department of Anatomy, Cell and Developmental Biology, Eötvös Loránd University, Budapest H-1117, Hungary.
Biomed Res Int. 2014;2014:273473. doi: 10.1155/2014/273473. Epub 2014 May 18.
The discovery of evolutionarily conserved Atg genes required for autophagy in yeast truly revolutionized this research field and made it possible to carry out functional studies on model organisms. Insects including Drosophila are classical and still popular models to study autophagy, starting from the 1960s. This review aims to summarize past achievements and our current knowledge about the role and regulation of autophagy in Drosophila, with an outlook to yeast and mammals. The basic mechanisms of autophagy in fruit fly cells appear to be quite similar to other eukaryotes, and the role that this lysosomal self-degradation process plays in Drosophila models of various diseases already made it possible to recognize certain aspects of human pathologies. Future studies in this complete animal hold great promise for the better understanding of such processes and may also help finding new research avenues for the treatment of disorders with misregulated autophagy.
酵母中自噬所需的进化保守Atg基因的发现真正彻底改变了这一研究领域,并使在模式生物上进行功能研究成为可能。从20世纪60年代开始,包括果蝇在内的昆虫就是研究自噬的经典且仍然流行的模式生物。本综述旨在总结过去关于果蝇自噬的作用和调控的研究成果以及我们目前的认识,并展望酵母和哺乳动物的情况。果蝇细胞中自噬的基本机制似乎与其他真核生物非常相似,这种溶酶体自我降解过程在果蝇各种疾病模型中所起的作用已经使人们能够认识到人类病理学的某些方面。对这种完整动物的未来研究有望更好地理解此类过程,也可能有助于找到治疗自噬失调疾病的新研究途径。