New tool traces how jumping genes change genome size
New tool traces how jumping genes change genome size
New tool traces how jumping genes change genome size
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- Researchers at Ohio State University have built a new computer tool, called PrinTE, that simulates how jumping genes, known as transposable elements, copy and paste themselves through a genome over time.
- Starting from an inferred ancestor, the tool follows insertions and deletions forward to the modern genome.
- In a study of fungal genomes, including myrtle rust, whose genome grew to 1 billion base pairs, insertion bursts were later followed by tighter control, suggesting hosts can fight back against the expansion.
- Researchers at Ohio State University have built a new computer tool, called PrinTE, that simulates how jumping genes, known as transposable elements, copy and paste themselves through a genome over time.
- Starting from an inferred ancestor, the tool follows insertions and deletions forward to the modern genome.
- In a study of fungal genomes, including myrtle rust, whose genome grew to 1 billion base pairs, insertion bursts were later followed by tighter control, suggesting hosts can fight back against the expansion.
- Researchers at Ohio State University have built a new computer tool, called PrinTE, that simulates how jumping genes, known as transposable elements, copy and paste themselves through a genome over time.
- Starting from an inferred ancestor, the tool follows insertions and deletions forward to the modern genome.
- In a study of fungal genomes, including myrtle rust, whose genome grew to 1 billion base pairs, insertion bursts were later followed by tighter control, suggesting hosts can fight back against the expansion.
Researchers at Ohio State University have built a new computer tool, called PrinTE, that simulates how jumping genes, known as transposable elements, copy and paste themselves through a genome over time. Starting from an inferred ancestor, the tool follows insertions and deletions forward to the modern genome. In a study of fungal genomes, including myrtle rust, whose genome grew to 1 billion base pairs, insertion bursts were later followed by tighter control, suggesting hosts can fight back against the expansion. The work was published on 2 November in Nature Communications.
Researchers at Ohio State University have built a new computer tool, called PrinTE, that simulates how jumping genes, known as transposable elements, copy and paste themselves through a genome over time. Starting from an inferred ancestor, the tool follows insertions and deletions forward to the modern genome. In a study of fungal genomes, including myrtle rust, whose genome grew to 1 billion base pairs, insertion bursts were later followed by tighter control, suggesting hosts can fight back against the expansion. The work was published on 2 November in Nature Communications.
Researchers at Ohio State University have built a new computer tool, called PrinTE, that simulates how jumping genes, known as transposable elements, copy and paste themselves through a genome over time. Starting from an inferred ancestor, the tool follows insertions and deletions forward to the modern genome. In a study of fungal genomes, including myrtle rust, whose genome grew to 1 billion base pairs, insertion bursts were later followed by tighter control, suggesting hosts can fight back against the expansion. The work was published on 2 November in Nature Communications.
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