Researchers have a new understanding of the genetic makeup of a fungus that causes the disease Wheat Stripe Rust, one of the most destructive wheat diseases globally costing $1 billion annually.
Research that could transform global rice production by increasing yields from the world’s number one food crop has been boosted by five more years of funding.
Some clever detective work by an international team of scientists has uncovered how a deadly fungus - a stem rust called Ug99 - came about through some unusual breeding habits. The discovery will help protect wheat crops around the world from devastating fungal diseases.
Researchers at The Australian National University (ANU) have shown how Australian wheat crops would cope if a destructive disease that’s yet to hit our shores ever made it into the country.
The tiny, self-contained genetic system of the chloroplast (or plastid) in the green alga Chlamydomonas reinhardtii is well suited for genetic engineering and has recently seen a surge in the deployment of synthetic biology approaches.
In my talk, I’d like to introduce two of my postdoctoral studies where I explored the independent expression of two genes in tobacco: Rubisco activase (RCA) and a spider silk gene, Major ampullate spidroin 1 (MaSp1).
In chloroplasts of embryophytes, superwobbling between codons and anticodons has been demonstrated to facilitate translation of the standard genetic code by a minimized set of only 30 tRNAs (Rogalski et al., 2008).
The timing of flowering needs to be tightly controlled to maximize reproductive success. Plants perceive seasonal cues (e.g., day length and temperature) to adjust the timing of flowering.
Nocturnal stomatal conductance (gsn) represents a significant, enigmatic source of water-loss, with implications for whole plant metabolism, thermal regulation and water-use efficiency.