Abstract
BackgroundMiniature inverted-repeat transposable element (MITE) is a type of class II non-autonomous transposable element playing a crucial role in the process of evolution in biology. There is an urgent need to develop bioinformatics tools to effectively identify MITEs on a whole genome-wide scale. However, most of currently existing tools suffer from low ability to deal with large eukaryotic genomes.MethodsIn this paper, we proposed a novel tool MiteFinderII, which was adapted from our previous algorithm MiteFinder, to efficiently detect MITEs from genomics sequences. It has six major steps: (1) build K-mer Index and search for inverted repeats; (2) filtration of inverted repeats with low complexity; (3) merger of inverted repeats; (4) filtration of candidates with low score; (5) selection of final MITE sequences; (6) selection of representative sequences.ResultsTo test the performance, MiteFinderII and three other existing algorithms were applied to identify MITEs on the whole genome of oryza sativa. Results suggest that MiteFinderII outperforms existing popular tools in terms of both specificity and recall. Additionally, it is much faster and more memory-efficient than other tools in the detection.ConclusionMiteFinderII is an accurate and effective tool to detect MITEs hidden in eukaryotic genomes. The source code is freely accessible at the website: https://github.com/screamer/miteFinder.
Highlights
Miniature inverted-repeat transposable element (MITE) is a type of class II non-autonomous transposable element playing a crucial role in the process of evolution in biology
MITE Digger is running on different system, it is obvious that MiteFinderII is more efficient than other tools
An efficient detection of MITEs from eukaryotic genomes is a crucial step for the understanding of gene mutation and regulation
Summary
Miniature inverted-repeat transposable element (MITE) is a type of class II non-autonomous transposable element playing a crucial role in the process of evolution in biology. Transposable elements (TEs) are present in many plants and animals, which make up of a large proportion of the genome. Transposable elements have contributed to evolution by causing gene variants and altering genomic structures and regulation of individual genes. It suggests that TEs are important in genome function and evolution. There are a large number of MITEs without perfect inverted repeat (inverted repeats with some mismatches).
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