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
C4 photosynthesis, a carbon concentrating mechanism, evolved as an adaptation to improve photosynthetic CO2 assimilation in terrestrial plants under conditions of low CO2, increased temperatures and varying rainfall patterns.
Cell-to-cell communication is essential for the co-ordination of responses in all multicellular organisms. One mechanism plants employ as defence against pathogens is restriction of cell-to-cell communication by plasmodesmata closure during infection.
In plants, microRNAs (miRNAs) are short non-coding RNAs of approximately 20-24 nt in length which are involved in post-transcriptional regulation of genes controlling many fundamental biological pathways.
Specialised metabolites are one of the major means of how microbes and sessile organisms express extended phenotype for the selective advantage of the organisms —or, more fundamentally, their genes.
Natural capital describes the stocks of renewable and non-renewable resources (e.g. plants, animals, air, water, soils and minerals) that produce flows of benefits to people.
Source-to-sink allocation of, and sink-to-sink competition for, photoassimilates, mainly in the form of sucrose, play a key role in determining energy and resource distribution in plants for growth and reproduction.