Enhancing wheat plants’ sugar signalling ability could deliver increased yields of up to 12%, according to a study from Rothamsted, Oxford University and the Rosalind Franklin Institute and published today in the journal Nature Biotechnology. That is an order of magnitude greater than annual yield increases currently being achieved through breeding.
The effect was achieved by applying a synthetic ‘pre-signalling molecule’ that releases trehalose-6-phosphate (T6P) in the plants. T6P is a signalling molecule that controls the plant equivalent of “blood sugar”. It is a major regulator of metabolism, growth and development including activating the pathway for the synthesis of starch, the world’s most significant food carbohydrate.
The link was discovered during research started at Rothamsted in 2006. Now a four year-long field study using plots at CIMMYT, Mexico and INTA, Argentina has confirmed that the new technology could deliver major yield improvements.
Rothamsted and Oxford have created SugaROx, a spinout company, to deliver this research to farmers. Dr Cara Griffiths, lead author of the research paper and CEO of SugaROx, said, “It’s exciting to be able to take cutting edge technology from the bench to the field. Getting this kind of impact is often difficult to translate to the field, and this work demonstrated that novel crop inputs have huge promise to enhance yield and resilience in our cropping systems, something that is particularly important in a rapidly changing climate”.
“The path from discovery to translation has taken 25 years” says Rothamsted’s Dr Matthew Paul who led the research along with Professor Ben Davis at The Rosalind Franklin Institute and Oxford University. “Such timeframes are not untypical in blue-skies plant research, but we do hope new technologies, such as AI and faster analytical techniques, can accelerate this process. We will need many more innovations like this to create sustainable and resilient agriculture in the coming decades. I am so grateful to my excellent people, co-workers and teams and for grants from UKRI-BBSRC which made this work possible. Getting this far has been hard work but extremely rewarding”.
“This work provides an excellent example of a case where direct selective manipulation of key molecular structures, rather than genetics or gene editing, inside a living system is a game changer,” said Professor Davis. “It has been really very inspiring to design and discover this new class of ‘drug for plants’ together.”
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