Directed evolution can rapidly generate genetic variants with new and enhanced properties, yet efficient platforms for performing such evolution directly in plant cells have been lacking. We developed...

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The success of plants on land has been enabled by mutualistic intracellular associations with microbes for 450 million years ([Delaux and Schornack 2021][1]). Because of their intracellular nature, th...

We consolidate information on Acylamino acid-releasing enzyme, a serine protease affecting plant development and aging, and emphasize its conserved feature

Nature Plants - This study reveals that plant proteins MAIL1, MAIN and MAIL2 function as anti-silencing factors that maintain active gene expression. They bind specific DNA motifs to prevent...

Human centromeres contain a small chromatin region with low levels of DNA cytosine methylation that resides with CENP-A. Salinas-Luypaert et al. find a role of DNA methylation in maintaining the size and function of centromeres by controlling the binding affinity of key centromere components.

Viruses maximize their limited coding space through strategies that increase transcript and protein diversity. In mammalian viruses, splicing is a well-established mechanism for proteome expansion, ye...

Directed evolution can rapidly generate genetic variants with new and enhanced properties, yet efficient platforms for performing such evolution directly in plant cells have been lacking. We developed...

Abstract. The paradox of evolutionary stasis and dynamism—how morphologically static lineages persist through deep geological periods despite environmental

Controlled environment agriculture (CEA) provides unprecedented opportunities to accelerate the translation of plant science breakthroughs into agricultural impact. By precisely controlling growth conditions, CEA enables the reliable and tightly regulated deployment of beneficial optimized traits by integrating emerging breeding, genomic, and synthetic biology tools. In this review we highlight both the progress and the remaining challenges enabled by CEA to reimagine crop design, including enhanced photosynthesis that operates independently of seasonal and circadian limitations, improvements in resource and metabolic efficiency, customized plant architecture, and the reliable, controllable production of high-value compounds. These capabilities position CEA as both a versatile research platform and an efficient, high-yielding production system, bridging fundamental discoveries with real-world crop outcomes to support sustainable, climate-resilient agriculture into the future.