Pioneering new technology is set to accelerate the global quest for crop improvement in a development which echoes the Green Revolution of the post war period.
Tighter controls on timber and plant movements into Europe are necessary to prevent further disastrous effects of plant diseases, a new study of the ash dieback pathogen advises.
New research is set to change the textbook understanding of how plants breathe.
In research published in Plant Journal, a team led by Professor Richard Morris from the John Innes Centre, Norwich, Professor Silke Robatzek of The Sainsbury Laboratory, Norwich, and collaborators from the University of Madrid, developed the first ever full 3D model of a guard cell.
Traffic jams are the curse of the commute, the scourge of the school run and the bane of Bank Holidays. But gridlocked motorists and students of traffic flow may soon be relieved and enlightened thanks to new research into plants.
It has emerged that plants have it sorted when it comes to going with the flow and avoiding frustrating congestion. These fascinating results come from a joint study by the John Innes Centre, Norwich, and the University of Tokyo, Japan.
A sophisticated mechanism that allows plant roots to quickly respond to changes in soil conditions has been identified by an international research team.
Scientists from the John Innes Centre and Sapienza University, Rome, combined mathematical and computer modelling with molecular genetics to show how roots can regulate their growth via the interactions of two antagonistic hormones, auxin and cytokinin.
Scientists at the John Innes Centre have discovered how plants send internal warning signals in response to attack by aphids.
They found that when the insect feeds on a leaf it triggers the plant to admit calcium into the damaged cells. This small flux of calcium prompts the plant to signal that an attack is underway, and a larger amount of calcium is then mobilised from within the cell.