Skip to content

Creating the first synthetic plastid genome in plants.

Oct 2026 · Trends in Plant Science · 0 citations · 12 references
Medicine

TL;DR

This work has shown that the compact and biotechnologically attractive plastid genome represents an ideal target to launch plant genome writing at scale.

Abstract

Over the last decade, there has been a shift in biotechnology from genome reading (sequencing) to genome writing (engineering). While significant progress has been made in prokaryotes and yeast, genome writing remains in its infancy in plants. Unlike their complex nuclear genomes, the compact and biotechnologically attractive plastid genome represents an ideal target to launch plant genome writing at scale.

View source

Similar papers

Review Open access Oct 2026

Genome Editing as a Tool of Modern Biotechnology

Genome editing is one of the most important advances in modern biotechnology. Unlike classical genetic modification, which introduces foreign DNA into the genome, genome editing enables precise changes to an organism's own DNA, including targeted deletions, insertions, and substitutions. This review summarizes the deve...

Simona Peroutková, Tereza Mokoš · 0 citations
Review Oct 2026

From genome editing to chromosome engineering in plants.

Engineering large genomic segments is rapidly expanding the scope of plant genome manipulation from individual genes to chromosome-scale redesign. Recent advances in double-strand break-, prime-editing-, recombinase-, and transposase-based technologies now enable programmable deletion, insertion, replacement, duplicati...

Yuan Lei, Jie Wu, Cai-Xia Gao · 0 citations
#gene editing Open access Sep 2026

T2T genome assembly and CRISPR/Cas9 editing of Medicago lupulina.

A complete, gap-free genome of Medicago lupulina, a tough, high-protein forage legume, and a gene-editing tool for this species, which was used to alter its leaf shape, provide key resources for improving alfalfa and breeding better forage crops for high-altitude environments.

Qing Yuan, Cheng Li, Guang-Yan Wang et al. · 0 citations
Open access Sep 2026

A telomere-to-telomere genome assembly of the Arachis batizocoi.

A gap-free, 1.29 Gb telomere-to-telomere genome of the wild peanut Arachis batizocoi achieved 98.50% BUSCO completeness and 38,919 annotated genes. Comparative analyses resolved ten centromeres, rust-resistance transcriptomes were analyzed, and the triploid hybrid W2557 was generated for breeding.

Guo-Quan Chen, Qian Wang, Bo-Yang Zhang et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.