农业科学与技术:英文版
農業科學與技術:英文版
농업과학여기술:영문판
Agricultural Science & Technology
2012年
5期
1097-1100,1126
,共5页
王琦%李玮妮%王荣
王琦%李瑋妮%王榮
왕기%리위니%왕영
蜜蜂%电子克隆%磷酸甘油醛异构酶%生物信息学
蜜蜂%電子剋隆%燐痠甘油醛異構酶%生物信息學
밀봉%전자극륭%린산감유철이구매%생물신식학
Apis mellifera%In silico cloning%Triosephosphate isomerase (TPI)%Bioinformatics
[目的]克隆蜜蜂(Apis mellifera)TPI基因,并进行生物信息学预测。[方法]利用电子克隆方法获得蜜蜂磷酸甘油醛异构酶(Triosephos—phateisomerase,TPI)基因,并采用生物信息学方法对该基因编码蛋白的等电点、疏水性/亲水性、二级结构等进行了预测。[结果]蜜蜂TPI基因全长为1768bp,具有完整的开放阅读框架(oRv),所编码蛋白的等电点为8.515。二级结构预测表明TPI蛋白属于α/β蛋白。[结论]利用蜜蜂表达序列标签数据库(EST)电子克隆蜜蜂新基因的研究工作有一定的现实意义,为进一步在分子水平研究蜜蜂提供更多的参考。
[目的]剋隆蜜蜂(Apis mellifera)TPI基因,併進行生物信息學預測。[方法]利用電子剋隆方法穫得蜜蜂燐痠甘油醛異構酶(Triosephos—phateisomerase,TPI)基因,併採用生物信息學方法對該基因編碼蛋白的等電點、疏水性/親水性、二級結構等進行瞭預測。[結果]蜜蜂TPI基因全長為1768bp,具有完整的開放閱讀框架(oRv),所編碼蛋白的等電點為8.515。二級結構預測錶明TPI蛋白屬于α/β蛋白。[結論]利用蜜蜂錶達序列標籤數據庫(EST)電子剋隆蜜蜂新基因的研究工作有一定的現實意義,為進一步在分子水平研究蜜蜂提供更多的參攷。
[목적]극륭밀봉(Apis mellifera)TPI기인,병진행생물신식학예측。[방법]이용전자극륭방법획득밀봉린산감유철이구매(Triosephos—phateisomerase,TPI)기인,병채용생물신식학방법대해기인편마단백적등전점、소수성/친수성、이급결구등진행료예측。[결과]밀봉TPI기인전장위1768bp,구유완정적개방열독광가(oRv),소편마단백적등전점위8.515。이급결구예측표명TPI단백속우α/β단백。[결론]이용밀봉표체서렬표첨수거고(EST)전자극륭밀봉신기인적연구공작유일정적현실의의,위진일보재분자수평연구밀봉제공경다적삼고。
[Objective] The aim was to clone triosephosphate isomerase (TPI) gene from Apis mellifera, and predict the properties of TPI protein with bioinformatic meth- ods. [Method] The TPI gene was firstly cloned by in silico cloning based on the ex- pressed sequence tags (ESTs) from Unigene of NCBI. Some characters of the TPI protein including hydrophobicity or hydrophilicity, isoelectric point (pl) and secondary structure were analyzed and predicted by the tools of bioinformatics. [Result] The TPI gene from A. mellifera was 1 768 bp in full length and it contained a complete ORF which encoded 247 amino acids; the pl of TPI protein was 8.515; the TPI protein was a member of ~13-fold family. [Conclusion] The in silico cloning based on the expressed sequence tags is a efficient method in practice, and this study will provide more references for further study on A. mellifera at molecular level.