News & events
News
An impressive body of evidence published this week reveals the answer to a mystery that has puzzled plant scientists for more than 30 years: the role of the molecule suberin in the leaves of some of our most productive crops.
A team of scientists have measured the relative importance of the different obstacles that carbon dioxide (CO2) encounters in its voyage from the atmosphere to the interior of plant cells. This research leading method provides much needed information that will help to increase the yield of important food crops.
Threatened Australian animal and plant species have been given a major lifeline, thanks to new funding for a new database that contains 100-years of flora and fauna DNA.
Research into the self-destruction of cells in humans and plants could lead to treatments for brain diseases and the development of disease-resistant plants.
Professor Owen Atkin is a Group Leader at RSB Plant Sciences, the Vice Chancellor's Entrepreneurial Professor at ANU, and the Director of the Centre for Entrepreneurial Agri-Technology (CEAT) - a collaboration between ANU and CSIRO, with investment from the ACT Government.
Research led by scientists at The Australian National University (ANU) could lead to major improvements in crop production.
Events
Many photosynthetic organisms employ a CO2 concentrating mechanism (CCM) to increase the rate of CO2 fixation via the Calvin cycle. CCMs catalyze ≈50% of global photosynthesis, yet it remains unclear which genes and proteins are necessary for a CCM to function.
C-TERMINALLY ENCODED PEPTIDES (CEPs) interact with the CEPR1 receptor to control nitrate uptake and primary root growth, however the role of CEP-CEPR1 signalling in controlling overall root system architecture is unknown.
Disease resistance is mediated by recognition of pathogen avriulence effectors (AVR) through host nucleotide-binding leucine-rich repeat receptors (NLR).
The interaction of C-TERMINALLY ENCODED PEPTIDES (CEPs) with CEP RECEPTOR1 (CEPR1) controls root growth and development, as well as nitrate uptake, but has no known role in determining yield.
This seminar will discuss the terabytes of unused satellite data that observe the natural world, yet have not been widely used for field biology, in the context of agriculture.
Silencing of transposable elements (TEs) is essential for maintaining genome stability. Plants use small RNAs (sRNAs) to direct DNA methylation to TEs (RNA-directed DNA methylation; RdDM). Similar mechanisms of epigenetic silencing in the fungal kingdom have remained elusive.