Javascript must be enabled to continue!
Hayai-Annotation v3.0: A functional gene prediction tool that integrates orthologs and gene ontology for network analysis
View through CrossRef
Hayai-Annotation v3, an R-package integrated with the R-Shiny browser interface, utilizes two methods for functional annotation: DIAMOND for sequence alignment using UniProtKB Plants as the database, and OrthoLoger, the official OrthoDB tool for ortholog inferences. The GO enrichment accuracy was assessed by a CAFA-evaluator, demonstrating that Hayai-Annotation v3's accuracy was comparable to that of the benchmark, BLAST2GO. We here propose a method to explore genome evolution and adaptation from a different perspective, by creating networks and heatmaps correlating orthologs with gene ontology (molecular function and biological process) from their co-occurrence tables. This approach enhances the ability to infer functions of uncharacterized genes by associating orthologs with gene ontology terms and the ability to visualize the distribution of gene numbers correlated with co-occurrence patterns across different species. To our knowledge, this is the first attempt to correlate orthologs with GO (MF and BP) to construct a gene network, providing a comprehensive, cross-species view of gene distribution and function. Hayai-Annotation v3 not only retains the convenience of previous versions but also enhances ortholog analysis functionality, allowing for evolutionary insights from gene sequences. Hayai-Annotation v3 is expected to contribute significantly to the future development of plant genome analysis.
Title: Hayai-Annotation v3.0: A functional gene prediction tool that integrates orthologs and gene ontology for network analysis
Description:
Hayai-Annotation v3, an R-package integrated with the R-Shiny browser interface, utilizes two methods for functional annotation: DIAMOND for sequence alignment using UniProtKB Plants as the database, and OrthoLoger, the official OrthoDB tool for ortholog inferences.
The GO enrichment accuracy was assessed by a CAFA-evaluator, demonstrating that Hayai-Annotation v3's accuracy was comparable to that of the benchmark, BLAST2GO.
We here propose a method to explore genome evolution and adaptation from a different perspective, by creating networks and heatmaps correlating orthologs with gene ontology (molecular function and biological process) from their co-occurrence tables.
This approach enhances the ability to infer functions of uncharacterized genes by associating orthologs with gene ontology terms and the ability to visualize the distribution of gene numbers correlated with co-occurrence patterns across different species.
To our knowledge, this is the first attempt to correlate orthologs with GO (MF and BP) to construct a gene network, providing a comprehensive, cross-species view of gene distribution and function.
Hayai-Annotation v3 not only retains the convenience of previous versions but also enhances ortholog analysis functionality, allowing for evolutionary insights from gene sequences.
Hayai-Annotation v3 is expected to contribute significantly to the future development of plant genome analysis.
Related Results
Benchmarking Hayai-Annotation Plants: A Re-evaluation Using Standard Evaluation Metrics
Benchmarking Hayai-Annotation Plants: A Re-evaluation Using Standard Evaluation Metrics
Abstract
The rapid growth of next-generation sequencing (NGS) technology has led to a surge in the determination of whole genome sequences in pla...
Optimising tool wear and workpiece condition monitoring via cyber-physical systems for smart manufacturing
Optimising tool wear and workpiece condition monitoring via cyber-physical systems for smart manufacturing
Smart manufacturing has been developed since the introduction of Industry 4.0. It consists of resource sharing and networking, predictive engineering, and material and data analyti...
Genome-wide assessment of ortholog quality in Ensembl
Genome-wide assessment of ortholog quality in Ensembl
Orthologs prediction can be a difficult exercise, particularly on a large scale. While methods to cluster genes into protein families have improved greatly with the use of HMM prof...
Non-Homology-Based Prediction of Gene Functions
Non-Homology-Based Prediction of Gene Functions
Abstract
Advances in genome sequencing and annotation have eased the difficulty of identifying new gene sequences. Predicting the functions of these newly identifie...
An extensible genome annotation workbench based on the Galaxy Platform
An extensible genome annotation workbench based on the Galaxy Platform
Introduction
Falling costs of genetic sequencing have allowed sequencing and annotation of the genomes of non-model organism. In annotating non-mod...
FAMUS: A Few-Shot Learning Framework for Large-Scale Protein Annotation
FAMUS: A Few-Shot Learning Framework for Large-Scale Protein Annotation
Predicting gene function is a pivotal and challenging step in genomic and metagenomic data analysis. Current automatic annotation tools typically rely on the single most similar se...
High-quality functional genome annotation through an intercampus competition initiative
High-quality functional genome annotation through an intercampus competition initiative
Ensuring high-quality functional annotations in newly sequenced genomes has become a fundamental problem in next-generation sequencing genomics. This problem takes additional relev...
From features to functions : leveraging protein feature architectures in comparative genomics
From features to functions : leveraging protein feature architectures in comparative genomics
When analyzing genomic data, one of the key challenges is the annotation of new genes. The toolkit for incorporating newly discovered proteins into a comprehensive evolutionary and...

