We use powerful biological resources provided by C. elegans to study aspects of nematode biochemistry, molecular biology and behaviour, and control methods.
The Brock lab loves membrane proteins; looking at them in atomic detail, discovering new drug molecules, and engineering them to create new biosensors. Join us!
We study membrane transport processes in the Plasmodium parasites that cause malaria.
The Maier Group focusses on the identification of molecules involved in malaria pathogenesis and transmission.
We are interested in the molecular mechanisms controlling nodule development in legumes, and how this is linked to other aspects of root architecture.
Our research actually spans may study systems and research questions. But the evolution of honey bee parasites and diseases and is a major focus.
The Saliba Group is investigating vitamin utilisation pathways in the red blood cell stage of the human malaria parasite Plasmodium falciparum.
We study the basic biology of parasites, with the hope that such knowledge can be used in developing new treatment options against these formidable foes.
Identification and characterisation of membrane transport proteins
The aim of this project is to develop an integrated model for ion and cell volume homeostasis in the malaria parasite and its host red blood cell.
Plant pathogens grow in the extracellular spaces of plant issues. Many fungal and oomycete pathogens, including stripe rust, form specialized feeding structures known as haustoria that penetrate host cell walls. Project: Characterising the genomes of wheat stripe rust. Project: Protein function in plant immunity
Membrane transport proteins of the malaria parasite and their roles in conferring drug resistance
Advances in malaria research are hindered by the limited inventory of available molecular tools. Culturing and genetic manipulation are quite demanding and cumbersome in comparison to other organisms. Major discoveries very often go hand in hand with the application and development of new techniques. We strive to make a contribution to the repertoire of available techniques.
Functional genomics of C. elegans to identify and validate new antinematode drug targets.
The Research School of Biology (RSB) welcomes the election of Professor Kiaran Kirk as a Fellow to the Australian Academy of Health and Medical Sciences.
Although significant advances in malaria control have been made in the past few decades, resistance to our current antimalarial drug repertoire threatens control efforts.
One of the malaria parasite's best weapons against drug treatments turns out to be an Achilles' heel, which could be exploited to cure the deadly disease.
Groups of scientists across ANU are teaming up to fight one of the world's most deadly diseases.