KAUST researchers develop new method for more precise plant engineering
Peer-Reviewed Publication
Updates every hour. Last Updated: 24-Oct-2026 19:16 ET (24-Oct-2026 23:16 GMT/UTC)
Researchers at King Abdullah University of Science and Technology (KAUST) have developed a genome engineering method that enables the precise insertion of large genetic sequences into plant genomes. Published in Nature Biotechnology, the approach was successfully demonstrated in tobacco and rice and allows scientists to introduce complex genetic instructions without relying on DNA breaks. The technology could support future advances in crop resilience, sustainable agriculture, synthetic biology, and the use of plants as scalable platforms for producing therapeutics and biologics.
A team of scientists led by researchers with the Smithsonian’s National Museum of Natural History and Texas A&M University recently uncovered genetic traces of ancient migration in DNA from avocados growing in Nicaragua. They found evidence that, around 5,000 years ago, people migrating north from South America carried the oversized seeds of one of their favorite fruits—avocados. As these seeds were dispersed throughout the humid lowlands of Central America, they hybridized with native varieties, producing a diversity of avocado varieties that produce the large, smooth-skinned berries that are now enjoyed around Central America. Despite resembling the avocados found in humid regions like Florida and the Caribbean, these local varieties are genetically distinct from the commercially grown fruits found in guacamole.
Just as humans exhibit right- or left-handedness, moths also have a preferred side on which they place their proboscis when inspecting a flower for nectar. This observation was made by Konstanz-based biologists in their latest study. The researchers see this as an example of nature efficiently coping with the limited computational capacity of the insect brain.