果蝇GRAIL:果蝇DNA序列基因识别的智能系统

Ying Xu, G. Helt, J. Einstein, G. Rubin, E. Uberbacher
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引用次数: 6

摘要

设计并实现了基于人工智能的果蝇DNA序列基因识别系统。该系统由编码外显子识别和单基因模型构建两个主要模块组成。外显子识别模块通过识别其剪接(或翻译起始点)和编码电位来发现编码外显子。该模块的核心是一组神经网络,这些神经网络使用“识别”的剪接连接(或翻译开始)和编码信号来评估候选外显子成为真正编码外显子的可能性。识别过程包括四个步骤:生成候选外显子库,使用启发式规则消除不可能的候选外显子,通过训练的神经网络评估候选外显子,以及候选聚类解析和最终的外显子预测。基因模型构建模块以聚集的候选外显子为输入,使用高效的动态规划算法构建“最佳”可能的单基因模型。从GenBank中提取129条果蝇序列,包括441个编码外显子,216358个编码碱基,用于构建统计矩阵和训练神经网络。在这个训练集上,系统识别了97%的编码信息,只预测了5%的错误信息。在“正确”预测的外显子中,68%的外显子与实际外显子完全匹配,96%的外显子至少有一个边缘预测正确。在一个由30个果蝇序列组成的独立测试集上,该系统识别了96%的编码信息,并预测了7%的错误信息。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Drosophila GRAIL: an intelligent system for gene recognition in Drosophila DNA sequences
An AI-based system for gene recognition in Drosophila DNA sequences was designed and implemented. The system consists of two main modules, one for coding exon recognition and one for single gene model construction. The exon recognition module finds a coding exon by recognition of its splice junctions (or translation start) and coding potential. The core of this module is a set of neural networks which evaluate an exon candidate for the possibility of being a true coding exon using the "recognized" splice junction (or translation start) and coding signals. The recognition process consists of four steps: generation of an exon candidate pool, elimination of improbable candidates using heuristic rules, candidate evaluation by trained neural networks, and candidate cluster resolution and final exon prediction. The gene model construction module takes as input the clustered exon candidates and builds a "best" possible single gene model using an efficient dynamic programming algorithm. 129 Drosophila sequences consisting of 441 coding exons including 216358 coding bases were extracted from GenBank and used to build statistical matrices and to train the neural networks. On this training set the system recognized 97% of the coding messages and predicted only 5% false messages. Among the "correctly" predicted exons, 68% match the actual exon exactly and 96% have at least one edge predicted correctly. On an independent test set consisting of 30 Drosophila sequences, the system recognized 96% of the coding messages and predicted 7% false messages.<>
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