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On the origin and evolution of new genes——a genomic and experimental perspective 被引量:6

On the origin and evolution of new genes——a genomic and experimental perspective
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摘要 The inherent interest on the origin of genetic novelties can be traced back to Darwin. But it was not until recently that we were allowed to investigate the fundamental process of origin of new genes by the studies on newly evolved young genes. Two indispensible steps are involved in this process: origin of new gene copies through various mutational mechanisms and evolution of novel functions, which fur- ther more leads to fixation of the new copies within populations. The theoretical framework for the former step formed in 1970s. Ohno proposed gene duplication as the most important mechanism producing new gene copies. He also believed that the most common fate for new gene copies is to become pseudogenes. This classical view was validated and was also challenged by the characterization of the first functional young gene jingwei in Drosophila. Recent genome-wide comparison on young genes of Drosophila has elucidated a compre- hensive picture addressing remarkable roles of various mechanisms besides gene duplication during origin of new genes. Case surveys revealed it is not rare that new genes would evolve novel structures and functions to contribute to the adaptive evolution of organisms. Here, we review recent advances in understanding how new genes originated and evolved on the basis of genome-wide results and ex- perimental efforts on cases. We would finally discuss the future directions of this fast-growing research field in the context of functional genomics era. The inherent interest on the origin of genetic novelties can be traced back to Darwin. But it was not until recently that we were allowed to investigate the fundamental process of origin of new genes by the studies on newly evolved young genes. Two indispensible steps are involved in this process: origin of new gene copies through various mutational mechanisms and evolution of novel functions, which fur- ther more leads to fixation of the new copies within populations. The theoretical framework for the former step formed in 1970s. Ohno proposed gene duplication as the most important mechanism producing new gene copies. He also believed that the most common fate for new gene copies is to become pseudogenes. This classical view was validated and was also challenged by the characterization of the first functional young gene jingwei in Drosophila. Recent genome-wide comparison on young genes of Drosophila has elucidated a compre- hensive picture addressing remarkable roles of various mechanisms besides gene duplication during origin of new genes. Case surveys revealed it is not rare that new genes would evolve novel structures and functions to contribute to the adaptive evolution of organisms. Here, we review recent advances in understanding how new genes originated and evolved on the basis of genome-wide results and ex- perimental efforts on cases. We would finally discuss the future directions of this fast-growing research field in the context of functional genomics era.
出处 《Journal of Genetics and Genomics》 SCIE CAS CSCD 北大核心 2008年第11期639-648,共10页 遗传学报(英文版)
基金 a CAS-Max Planck Society Fellowship, an award (No. 30325016);the National Science Foundation of China (NSFC),two NSFC key grants (No. 30430400 and 30623007) the National Basic Research Program of China (973 Program)(No. 2007CB815703-5) W.W., and a NSFC grant(No.30500283)for junior researchers to S.Y.
关键词 origin of new genes gene duplication de novo origination chimeric genes origin of new genes gene duplication de novo origination chimeric genes
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同被引文献46

  • 1李昕,杨爽,彭立新,陈宏,王文.新基因的起源与进化[J].科学通报,2004,49(13):1219-1225. 被引量:11
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