
doi: 10.1038/nrg1160 , 10.7939/r3w37kx55
pmid: 12951575
To find unknown protein-coding genes, annotation pipelines use a combination of ab initio gene prediction and similarity to experimentally confirmed genes or proteins. Here, we show that although the ab initio predictions have an intrinsically high false-positive rate, they also have a consistently low false-negative rate. The incorporation of similarity information is meant to reduce the false-positive rate, but in doing so it increases the false-negative rate. The crucial variable is gene size (including introns)--genes of the most extreme sizes, especially very large genes, are most likely to be incorrectly predicted.
Genome, Models, Genetic, Dna-sequences, Genome, Human, Annotation, Human Genome, Gene Expression, Exons, Introns, Resources, Transcriptomes, Experimental-verification, Genetic, Genetic Techniques, Models, Organ Specificity, Predictive Value of Tests, Vertebrates, Animals, Humans, Mouse Genome, Human
Genome, Models, Genetic, Dna-sequences, Genome, Human, Annotation, Human Genome, Gene Expression, Exons, Introns, Resources, Transcriptomes, Experimental-verification, Genetic, Genetic Techniques, Models, Organ Specificity, Predictive Value of Tests, Vertebrates, Animals, Humans, Mouse Genome, Human
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