基于人工蜜蜂系统的小基因组重组优化技术

Susobhan Baidya, R. K. De
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引用次数: 0

摘要

片段组装问题(FAP)是一个np完全问题。提出了一种解决基因组序列重组技术的人工蜂群(ABC)学习系统。参考基因组序列与同一生物基因组的相似性为99%,因为来自相似生物的序列通常具有约99.9%的相似性。我们使用了NCBI数据库中的序列2。然后我们克隆了每个序列,并将克隆剪切成数字短读段。这里,我们在合成蜜蜂系统的基因组重组中使用了一种不同的感知,其中花蜜的数量与相似生物内部一些参考基因组序列的组装reads的准确性有关。对于局部启发式信息,我们引入了短读段的局部比对,而不是读段之间的局部重叠。结果表明,我们的方法比现有的蜂群算法更准确。由于哺乳动物类群的基因组序列长度约为109bp,且ABC具有固有的并发性,因此基因组重组方法需要巨大的并发性和巨大的存储空间。我们已经在64位操作系统上运行了LSBCO,在惠普高产的服务器上有16GB RAM, 2四核处理器。我们已经用我们的方法计算出基因组长度达到127429bp。我们模拟了分层测序,最后将每个片段拼接起来,得到实际的基因组序列。
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An optimal genome reassembling technique by Artificial Bees System for small genome sequences
Fragment assembling problem (FAP) is an NP-complete problem. The present article presents an Artificial Bees Colony (ABC) learning system to solve Genome sequence reassembling techniques. Reference Genome sequence which is taken 99% analogous to a Genome from same organism, because of the fact the sequences from the similar organism usually have approximately 99.9% resemblance. We have used the sequences from NCBI database2. Then we have cloned each sequence and shear the clone to a numeral short reads. Here, we have used a different perception in Genome reassembling by Synthetic Bees System where nectar amount is relative to the accuracy of assembled reads with some reference genome sequences inside the similar creature. For local heuristics information, we have introduced local alignment of short reads instead local overlapping among the reads. The outcome depict that our methodology is more accurate than an existing Bee Colony Algorithm. Genome reassembling methodology require a huge concurrency and vast storage because of size of Genome sequences of mammalian group is ~ 109bp, and ABC is inherently concurrent in nature. We have run LSBCO in 64 bit O.S in HP proliant server with 16GB RAM, 2-quad core processor. We have computed our methodology for the Genome length up to 127429bp. We have simulated hierarchical sequencing, and finally stitched the each segments to get back the actual Genome sequence.
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