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Annotation of Plant Gene Function via Combined Genomics, Metabolomics and Informatics
Published on: June 17, 2012
Functional annotation and comparative analysis of four Botrytis cinerea mitogenomes reported from Punjab, Pakistan
Tehsin Fatma1, Haris Ahmed Khan1, Aqeel Ahmed1
1Atta-ur-Rahman School of Applied Biosciences (ASAB), National University of Sciences and Technology (NUST), 44000 Islamabad, Pakistan.
Abstract:
Botrytis cinerea is one of the top phytopathogenic fungus which ubiquitously cause grey mold on a variety of horticultural plants. The mechanism of respiration in the fungus occurs within the mitochondria. Mitogenomes serve as a key molecular marker for the investigation of fungal evolutionary patterns. This study aimed at the complete assembly, characterization, and comparative relationship of four mitogenomes of Botrytis cinerea strains including Kst5C, Kst14A, Kst32B, Kst33A, respectively. High throughput sequencing of four mitogenomes allowed the full assembly and annotation of these sequences. The total genome length of these 4 isolates Kst5C Kst14A, Kst32B, Kst33A was 69,986 bp, 77,303 bp, 76,204 bp and 55, 226 bp respectively. The distribution of features represented 2 ribosomal RNA genes,14 respiration encoding proteins, 1 mitochondrial ribosomal protein-encoding gene, along with varying numbers of transfer RNA genes, protein-coding genes, mobile intronic regions and homing endonuclease genes including LAGLIDADG and GIY-YIG domains were found in all four mitogenomes. The comparative analyses performed also decipher significant results for four mitogenomes among fungal isolates included in the study. This is the first report on the detailed annotation of mitogenomes as a proof for investigation of variation patterns present with in the B. cinerea causing grey mold on strawberries in Pakistan. This study will also contribute to the rapid evolutionary analysis and population patterns present among Botrytis cinerea.
Insights
This study details the complete assembly and characterization of four Botrytis cinerea mitogenomes, revealing insights into fungal evolution and grey mold variations in Pakistan.
Area of Science:
- Fungal genomics
- Mitochondrial DNA analysis
- Plant pathology
Background:
- Botrytis cinerea causes grey mold, a significant disease in horticultural plants.
- Mitochondrial genomes (mitogenomes) are crucial for understanding fungal evolution.
- Investigating mitogenome variation aids in understanding pathogen populations.
Purpose of the Study:
- To assemble, characterize, and compare four Botrytis cinerea mitogenomes.
- To provide a detailed annotation of these mitogenomes.
- To investigate variation patterns within B. cinerea strains from Pakistan.
Main Methods:
- High-throughput sequencing of four B. cinerea isolates (Kst5C, Kst14A, Kst32B, Kst33A).
- Complete genome assembly and annotation.
- Comparative analysis of mitogenomic features.
Main Results:
- Successfully assembled and annotated four B. cinerea mitogenomes with lengths ranging from 55,226 bp to 77,303 bp.
- Identified conserved genes (rRNA, respiration proteins) and variable elements (tRNA, introns, homing endonucleases).
- Comparative analyses revealed significant differences among the four mitogenomes.
Conclusions:
- This is the first detailed annotation of B. cinerea mitogenomes from Pakistan, focusing on strawberry grey mold.
- The findings provide a foundation for rapid evolutionary and population pattern analysis of B. cinerea.
- Mitogenome data is essential for understanding the genetic diversity and evolution of this important plant pathogen.
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