The widening gap between known proteins and their functions has encouraged the development of methods to automatically infer annotations. Automatic functional annotation of proteins is expected to meet the conflicting requirements of maximizing annotation coverage, while minimizing erroneous functional assignments. This trade-off imposes a great challenge in designing intelligent systems to tackle the problem of automatic protein annotation. In this work, we present a system that utilizes rule mining techniques to predict metabolic pathways in prokaryotes. The resulting knowledge represents predictive models that assign pathway involvement to UniProtKB entries. We carried out an evaluation study of our system performance using cross-validat...
Abstract. Protein function prediction is one of the fundamental tasks in the post genomic era. The v...
The volume and diversity of biological data are increasing at very high rates. Vast amounts of prote...
<p><b>(a)</b> represents entries we could cover which lack pathway annotation, <b>(b)</b> represents...
Pathway Prediction tool for UniProtKB data along with comparison results to Rule_Base, HAMAP_Rule an...
Understanding metabolic pathways is one of the most important fields in bioscience in the post-genom...
Despite the structure and objectivity provided by the Gene Ontology (GO), the annotation of proteins...
Abstract Background Functional annotation of proteins remains a challenging task. Currently the scie...
Despite the structure and objectivity provided by the Gene Ontology (GO), the annotation of proteins...
Improving the overall annotation level of genomes and completeness of biological pathways with high ...
Accurate determination of protein function, interactions, and biological pathways has extensive ap-p...
Background: Cellular activities are governed by the physical and the functional interactions among s...
Resources. Protein – annotation associations were extracted from text with or without species identi...
New synthetic biology capabilities hold the promise of dramatically improving our ability to enginee...
The pathway extraction tool predicts metabolic pathways from sets of functionally related enzyme-cod...
New synthetic biology capabilities hold the promise of dramatically improving our ability to enginee...
Abstract. Protein function prediction is one of the fundamental tasks in the post genomic era. The v...
The volume and diversity of biological data are increasing at very high rates. Vast amounts of prote...
<p><b>(a)</b> represents entries we could cover which lack pathway annotation, <b>(b)</b> represents...
Pathway Prediction tool for UniProtKB data along with comparison results to Rule_Base, HAMAP_Rule an...
Understanding metabolic pathways is one of the most important fields in bioscience in the post-genom...
Despite the structure and objectivity provided by the Gene Ontology (GO), the annotation of proteins...
Abstract Background Functional annotation of proteins remains a challenging task. Currently the scie...
Despite the structure and objectivity provided by the Gene Ontology (GO), the annotation of proteins...
Improving the overall annotation level of genomes and completeness of biological pathways with high ...
Accurate determination of protein function, interactions, and biological pathways has extensive ap-p...
Background: Cellular activities are governed by the physical and the functional interactions among s...
Resources. Protein – annotation associations were extracted from text with or without species identi...
New synthetic biology capabilities hold the promise of dramatically improving our ability to enginee...
The pathway extraction tool predicts metabolic pathways from sets of functionally related enzyme-cod...
New synthetic biology capabilities hold the promise of dramatically improving our ability to enginee...
Abstract. Protein function prediction is one of the fundamental tasks in the post genomic era. The v...
The volume and diversity of biological data are increasing at very high rates. Vast amounts of prote...
<p><b>(a)</b> represents entries we could cover which lack pathway annotation, <b>(b)</b> represents...