To participate in the rapidly expanding fields of genome research and protein structure-function analysis, it is necessary to have an understanding of the techniques used in these areas.

This subject provides training in the use of molecular biology technologies, protein analyses and cell biology techniques. Students will learn how experiments are designed, performed and the resulting data analysed.

Experiments in the subject will explore (a) the use of recombinant DNA analyses, (b) bacterial expression systems to produce and characterise recombinant protein, (c) identification of proteins by mass spectrometry; and (d) mammalian cell culture.

Students will learn practical skills of how to record data and maintain experimental observations in laboratory notebooks, to search bioinformatic databases, and to construct and concisely write a scientific research paper based on their findings. Students will also further develop their skills in performing biochemical calculations and solving problems by applying knowledge attained from practicals.

In this subject, students will learn about the current advances in molecular science fields encompassed by the disciplines of biochemistry and molecular biology. Students will critique cutting edge research in depth, delving into the experimental evidence underpinning our understanding of the molecular world. The topics to be examined include regulation of gene expression, gene function and genomic manipulation protein behaviour in cellular applications, the dynamics of the living cell, and metabolic adaptation.

Through written and oral tasks, students will become proficient in interpreting and synthesizing scientific knowledge and presenting conclusions, as well as writing critiques and recommendations for a range of audiences including, public organisations, industry and the general public.

This subject will describe the wide range of structures, functions and interactions of proteins and their importance in biological processes, biomedicine and biotechnology. Emphasis will be on the three-dimensional structure of proteins and their interactions with biological molecules. We will describe experimental and computational techniques and how they help in determining and predicting protein structure and function and aid in the development of new drugs. The subject matter addresses the general properties of protein structure; the major classes and topologies of proteins; evolution of sequence, structure and function; protein synthesis, folding, misfolding, targeting and trafficking; bioinformatics analysis of protein sequence and structure; binding of small molecules to proteins and drug design; protein-protein interactions; effects of mutations on tertiary structure, protein stability and biological functions; enzyme reaction kinetics and mechanisms; motor proteins; transporters.

Knowledge of genome structures from various organisms and the rapid development of technologies that exploit such information are having a big impact in biology, medicine and biotechnology. This subject describes the structure and expression of genomes in higher organisms and provides an understanding of the technologies used to analyse and manipulate genes. Students will learn how the modification of genes in cells and whole organisms can be used to discover gene function or to modify phenotype. The structure of eukaryotic chromosomes is presented to demonstrate how genetic material is replicated and how transcription of RNA is controlled. We illustrate how pathways that regulate RNA and protein are integrated to control cell metabolism and cell fate. The content will cover the bioinformatic techniques used to interpret and extend genomic information. The approaches of functional genomics to the study of specific human diseases will be discussed to illustrate the application of molecular biology to the study of human biology and health.

This subject describes the molecular mechanisms underpinning eukaryotic cell organisation, morphology and behaviour and their importance in biomedicine. We will explore the relationships between cellular organisation and the biological functions of normal and stressed cells, as well experimental strategies for investigating the molecular basis of these relationships. The subject matter includes the compartmentalisation of eukaryotic cells; intracellular trafficking of biomolecules; the structure, function and biogenesis of subcellular organelles; protein folding and maturation; vesicle-mediated transport; structure and function of the extracellular matrix and cell adhesion molecules and their role in diseased states such as malignancies; cellular stress responses and linked signal transduction events; cytoskeletal structures and the signal transduction processes regulating the assembly and disassembly of actin-cytoskeleton; molecular processes determining cell movement and shape changes; imaging of processes within live cells.

Aberrations in the structure and expression of hormones, growth factors, neurotransmitters and their receptors can give rise to diseases such as cancer and neurodegenerative diseases. To understand the molecular basis of these diseases, it is essential to know how hormones, growth factors and neurotransmitters are synthesised, and how their signals are recognised, amplified and transmitted by intracellular signalling pathways in the target cells.

Topics covered, to illustrate the importance of signalling in health and disease, include the structures of the major classes of signalling receptors, the mechanisms of intercellular and intracellular signal transduction, second messengers, examples of post-translational modifications such as protein phosphorylation-dephosphorylation, ubiquitination and S-nitrosylation and their impact on signalling, mechanisms of cell death and autophagy, and innate immune signalling.

The interpretation of nutritional information relies on an understanding of how nutrients are metabolised and what can go wrong in disease states. The subject material covers the regulation of blood glucose concentration and the causes of diabetes; the generation of free-radicals and the importance of antioxidants in protecting proteins, lipids and DNA from oxidative damage; metabolic reprogramming in cancer cells, neurons and immune cells; metabolism in the gut: the role of the microbiota; metabolomics and other research methods for the study of metabolism.

In this subject students participate in an individual program of supervised research within the School of Biomedical Sciences, or elsewhere within the faculty, at a research institute or overseas institution in which the student contributes to the design of a research project, in consultation with a supervisor; conducts the research; and presents the findings of the project. The project may be self contained or form a component of a larger research program. Each student will receive feedback on their progress through ongoing consultation with their supervisor.

Where a student is conducting the research external to the School of Biomedical Sciences, a School of Biomedical Sciences academic staff member who has allied research expertise co-supervises the project and coordinates the assessment requirements. Detailed assessment requirements, including due dates of individual assessment items, are determined through consultation between the supervisor, the co-supervisor and the Biomedical Science Research Project Coordinator(s) in the relevant department.

The subject may incur additional costs such as travel and accommodation. Students may be eligible for University funding. Where the host institution is located in the IndoPacific, Australian citizens for whom this subject is part of a full time semester of study may consider applications through the New Colombo Plan scholarship funding.