This subject builds on your knowledge of how biological modelling provides insight into complex biological phenomena. With a focus on mechanistic modelling and viewing biological systems as dynamic in nature, you will learn how to develop and implement “real-world” models, applicable to current open problems in computational biology. Advanced approaches to model-based analysis of data will be introduced, including Bayesian hierarchical modelling. Software languages and packages for modelling and statistical analysis (e.g. SBML and STAN) will be introduced. Motivating problems will be drawn from across the spectrum of biology from genetics to ecology.

AIMS

Technological advances in obtaining high throughput data have stimulated the development of new computational approaches to bioinformatics. This subject will cover core computational challenges in analysing bioinformatics data. We cover important algorithmic approaches and data structures used in solving these problems, and the challenges that arise as these problems increase in scale.

The subject is a core subject in the MSc (Bioinformatics) and is an elective in the Master of Information Technology and the Master of Engineering. It can also be taken by PhD students and by undergraduate students, subject to the approval of the lecturer.

INDICATIVE CONTENT

The subject covers key algorithms used in bioinformatics, with a focus on genomics. Indicative topics are: sequence alignment (dynamic algorithms and seed-and-extend), genome assembly, variant detection, phylogenetic reconstruction, genomic intervals, complexity and correctness of algorithms, clustering and classification of genomics data, data reduction and visualisation.
The subject assumes you have experience in programming and familiarity with the foundations of genomics.

Fitting models to data is a fundamental component of computational biology. In this subject we teach statistical and machine learning approaches, including methods specifically developed for handling spatial data. The subject will give you understanding of, and practice in, a range of modern techniques, and show how these are used in real world problems with typically available data. Topics covered include statistical learning methods for regression and classification, spatio-temporal modelling (point processes, agent-based models, spatio-temporal population simulations), spatial analyses and geographic information systems, and spatial optimisation. Diverse applications from health and ecology will be discussed and use as case studies.

The subject consists of a combination of lectures and practical classes. Lectures may take the format of a discussion session based on preliminary readings. Practical classes will consist of computer laboratory sessions. A visit to a research institution may also be organized

The subject will cover statistical analysis of data arising from modern genomics, and their practical application using R and specialist software. RNA-seq, epigenomics and metagenomics assays will be introduced, together with properties of the resulting data, appropriate pre-analyses and advanced statistical methods and algorithms. Methods for biomarker discovery, including supervised learning and multivariate analysis techniques will also be covered, as will statistical models and techniques for phylogenetics.

AIM

The study of genomics is on the forefront of biology. Current laboratory technologies generate huge amounts of data. Computational analysis is necessary to make sense of these data. This subject covers a broad range of approaches to the computational analysis of genomic data. Students learn the theory behind the different approaches to genomic analysis, preparing them to use existing methods appropriately and positioning them to develop new ways to analyse genomic data.

The subject is a core subject in the MSc (Bioinformatics), and is an elective in the Master of Information Technology and the Master of Engineering. It can also be taken by PhD students and by undergraduate students, subject to the approval of the lecturer.

INDICATIVE CONTENT

This subject covers computational analysis of genomic data, from the perspective of information theory. Topics include information theoretic analysis of genomic sequences; sequence comparison, including heuristic approaches and multiple sequence alignment; and approaches to motif finding and genome annotation, including probabilistic modelling and visualization, computational detection of RNA families, and current challenges in protein structure determination. Practical work includes writing bioinformatics applications programs and preparing a research report that uses existing bioinformatics web resources.

Bioinformatics involves the analysis of biological data and randomness is inherent in both the biological processes themselves and the sampling mechanisms by which they are observed. This subject first introduces stochastic processes and their applications in Bioinformatics, including evolutionary models. It then considers the application of classical statistical methods including estimation, hypothesis testing, model selection, multiple comparisons, and multivariate statistical techniques in Bioinformatics.

This subject describes how technologies enabling the sequencing of complete genomes have transformed biological research in the past decades. Bioinformatics provides the tools to analyse these massive data connecting nucleic acids to the structures and functions of life. The advanced topics will review current knowledge on genomics and transcriptomics and describe the databases used to gather this information.

Computing techniques and data mining methods are indispensable in modern statistical research and data science applications, where “Big Data” problems are often involved. This subject will introduce a number of recently developed methods and applications in computational statistics and data science that are scalable to large datasets and high-performance computing. The data mining methods to be introduced include general model diagnostic and assessment techniques, kernel and local polynomial nonparametric regression, basis expansion and nonparametric spline regression, generalised additive models, classification and regression trees, forward stagewise and gradient boosting models. Important statistical computing algorithms and techniques used in data science will be explained in detail. These include the bootstrap resampling and inference, cross-validation, the EM algorithm and Louis method, and Markov chain Monte Carlo methods including adaptive rejection and squeeze sampling, sequential importance sampling, slice sampling, Gibbs sampler and Metropolis-Hastings algorithm.

Bioinformatics is a diverse discipline that draws on a range of technical areas and is applied to a range of biological problems. In this subject a series of case studies is used to illustrate the application of bioinformatics to biological,agricultural, and medical problems. These case studies will be directly based on current practical research and taught by the researchers.

This subject introduces the fundamental mathematical models used to study infectious diseases at both the epidemiological and within-host scale. The emphasis is on: 1) how models are developed, from conceptualisation through to implementation in software; and 2) how to apply models to questions of epidemiological, public health and biological importance. Statistical techniques for the model-based analysis of relevant data resources will be introduced.

• Epidemiology: epidemic/endemic behaviour and intervention strategies to reduce transmission, the SIR model, including demography, threshold behaviour, phase-plane analysis;
• Viral dynamics: host-pathogen interactions, the mediating influences of immunomodulatory agents and antimicrobials, the TIV model, including the immune response, pharmacokinetic-pharmacodynamic models;
• Model sensitivity and uncertainty analysis, scenario analysis, parameter estimation, model comparison

Modern techniques have revolutionised biology and medicine, but interpretative and predictive tools are needed. Mathematical modelling is such a tool, providing explanations for counter-intuitive results and predictions leading to new experimental directions. The broad flavour of the area and the modelling process will be discussed. Applications will be drawn from many areas including population growth, epidemic modelling, biological invasion, pattern formation, tumour modelling, developmental biology and tissue engineering. A large range of mathematical techniques will be discussed, for example discrete time models, ordinary differential equations, partial differential equations, stochastic models and cellular automata.

AIMS:

This subject introduces mathematical and computational modelling, simulation and analysis of biological systems. The emphasis is on developing models, with examples, using MATLAB.

INDICATIVE CONTENT:

Topics include:

Modelling biochemical reactions. Law of mass action. Enzymes and regulation of enzyme reactions. Thermodynamics of reversible biochemical reactions. Cellular homeostasis. Application of ordinary differential equations to these problems.

Modelling large reaction networks. Flux balance analysis and constraint-based methods. Genome-scale models. Regulation of gene expression. Gene regulatory networks in systems and synthetic biology. Network inference and statistical modelling of –omic data. Knowledge-based modelling in systems biology.

This subject focuses on statistical models of the distribution of species and ecophysiological models of species niches. These two areas of environmental modelling have grown substantially in the last decade or two, and have become core parts of ecology. They are closely related, but they differ philosophically and practically. They are both used for understanding and predicting the distributions of species. The statistical models (also known as habitat suitability models, bioclimatic envelopes or ecological niche models) use observed geographical distributions to characterise relationships between a species and its environment and can be considered ‘top-down’ in approach. Ecophysiological (or mechanistic) models take a ‘bottom-up’ approach by characterising the physiological processes influencing a species’ distribution and integrate models of microclimates, energy balance, heat balance, and water balance.

You will learn about both approaches from lecturers who are world experts in these topics. The subject will help you to understand the merits and drawbacks of the two approaches to species modelling and equip you with important skills that are in high demand in ecology and conservation. The subject includes the following topics: compilation, processing and management of data, fitting models by statistical estimation and empirical measurement, spatial prediction of distributions (mapping), and model evaluation.

Modelling is a fundamental component of Environmental Science, being used for prediction, monitoring, auditing, evaluation, and assessment. This subject introduces students to a wide range of models used by environmental scientists including models of climate change, population dynamics, pollution, hydrology, habitat and species distributions. Both deterministic and stochastic models are used as examples. The subject explains how to develop conceptual models that can then be quantified and analysed using mathematical and statistical methods. Topics covered include development of the basic model structure, estimation of parameters and calibration, methods of analysis, sensitivity analysis, model evaluation and model refinement. The subject teaches students how to simplify apparently complex problems.

This subject provides an in-depth look into the methods, algorithms and techniques behind biomolecular structure determination. In particular, students will be exposed to prominent techniques in the field for example: X-ray Crystallography, Nuclear Magnetic Resonance (NMR) and cryogenic-Electron Microscopy (cryo-EM). As part of a general introduction into measurement techniques students will visit state-of-the-art NMR, cryo-EM and X-ray facilities at the Bio21 Institute and the Australian Synchrotron. Using industry standard software packages, students will learn to input and handle data to reconstruct biomolecular structure and dynamics across the range of techniques. The computer based laboratories will be overseen by practitioners in the field. This multi-disciplinary subject is co-taught by staff in the School of Physics, Chemistry and Biomedical sciences. There is particular emphasis on integration of these disciplines with students receiving both theoretical and practical knowledge of fundamental and frontier research and development in biomolecular structure determination.

This subject provides an advanced introduction to non-equilibrium statistical mechanics. The subject focuses on collective phenomena in complex many-body systems with an emphasis on diffusive processes, stability and the emergence of long-range order, with examples drawn from physics, chemistry, biology and economics. Specific topics include diffusive stochastic processes (Fokker-Planck equations), birth-death processes (master equations), kinetic transport, and spatio-temporal pattern formation in unstable nonlinear systems (bifurcations, chaos, reaction-diffusion equations).

This subject provides the foundation theory and methods needed for biostatisticians to apply and critically interpret statistical inference, the science of drawing conclusions from data that are subject to variability. Major topics include review of the key concepts of estimation including sampling variability and construction of confidence intervals; null hypothesis testing; methods of inference based on likelihood theory (Fisher and observed information, likelihood ratio, Wald and score tests); and an introduction to the Bayesian approach to inference. The approach will emphasise a critical understand¬ing of the role of statistical inference in health research.

This subject provides the foundation for regression modelling. Topics covered include: the method of least squares; regression models and related statistical inference; flexible nonparametric regression; analysis of covariance to adjust for confounding; multiple regression with matrix algebra; model construction and interpretation (use of indicator variables, parameterisation, interaction and transformations); model checking and diagnostics; regression to the mean; handling of baseline values; the analysis of variance; variance components and random effects.

Why is it essential that scientists learn to communicate effectively to a variety of audiences? What makes for engaging communication when it comes to science? How does the style of communication need to change for different audiences? What are the nuts and bolts of good science writing? What are the characteristics of effective public speaking?

Weekly seminars and tutorials will consider the important role science and technology plays in twenty-first century society and explore why it is vital that scientists learn to articulate their ideas to a variety of audiences in an effective and engaging manner. These audiences may include school students, agencies that fund research, the media, government, industry, and the broader public. Other topics include the philosophy of science communication, talking about science on the radio, effective public speaking, writing press releases and science feature articles, science performance, communicating science on the web and how science is reported in the media.

Students will develop skills in evaluating examples of science and technology communication to identify those that are most effective and engaging. Students will also be given multiple opportunities to receive feedback and improve their own written and oral communication skills.

Students will work in small teams on team projects to further the communication skills developed during the seminar programme. These projects will focus on communicating a given scientific topic to a particular audience using spoken, visual, written or web-based communication.

What is conflict of interest? What should a scientist do when he or she finds fraud is occurring on a scientific research team? How does a scientist write and defend an animal ethics submission and get it approved? What are the ethical issues associated with peer review? This subject is intended to give students a broad overview of research ethics in a scientific context. It will include topics on scientific integrity; conflicts of interest; data recording management; authorship and peer review; animal experimentation and regulations; privacy and confidentiality of records; and, finally, research in humans.

This subject examines the workplace environment and the range of competencies needed to operate effectively. Communication is central to success in the workplace, from proposing projects, consulting and influencing colleagues, through to reporting. Students will gain a range of communication skills in writing, oral and presentation skills, and using graphics and statistics, to communicate science to others with whom they work.

Excellent scientific leadership is not only required in academic research groups, but also in technological industries and many areas of government. This subject will examine the nature and styles and consequences of leadership and decision making in academia, industry and government.

Students will examine, through a series of lectures, seminars and workshops, the roles of leadership in: motivation, ethics, risk and the development of a productive organisational culture drawing upon case studies, personal accounts from scientific leaders and their own personal experiences.

In addition, students will learn strategies to deal with staff and clients, build teams, make decisions, think strategically, develop self awareness, identify and manage conflict of interest, identify opportunity and value diversity.

This subject will give an overview of the tools that businesses use to manage their external environment. The subject addresses three main areas: negotiation skills, marketing and competitivestrategy. Students will use case studies and simulations to practice negotiation skills. Topics in marketing will include an overview of brands, creating a marketing plan and understanding customers. Finally the competitive strategy component of the subject will focus on the topics of gains from trade, how to price and how to understand and change the competitive environment.

This subject will give an overview of the tools required to operate successfully in an organisational environment. The focus of the subject is the internal workings of an organisation and specifically addresses three main areas: working with people, managing budgets and understanding basic accounting, and managing processes and projects.

As a scientist, it is not only important to be able to experiment, research and discover, it is also vital that you can communicate your research effectively in a variety of ways. Even the most brilliant research is wasted if no one knows it has been done or if your target audience is unable to understand it.

In this subject you will develop your written and oral communication skills to ensure that you communicate your science as effectively as possible. We will cover effective science writing and oral presentations across a number of formats: writing a thesis; preparing, submitting and publishing journal papers; searching for, evaluating and citing appropriate references; peer review, making the most of conferences; applying for grants and jobs; and using social media to publicise your research.

You will have multiple opportunities to practice, receive feedback and improve both your oral and written communication skills.

Please note: students must be undertaking their own research in order to enrol in this subject.

This subject involves completion of an 80-100 hour science or technology work placement integrating academic learning in science areas of study, employability skills and attributes and an improved knowledge of science and technology organisations, workplace culture and career pathways. The placement is supplemented by pre- and post-placement classes designed to develop an understanding of science and technology professions, introduce skills for developing, identifying and articulating employability skills and attributes and linking them to employer requirements in the science and technology domains. Work conducted during the placement will be suitable for a graduate level of expertise and experience. While immersed in a work environment, students will be expected to challenge themselves by accepting roles and responsibilities that stretch their existing capabilities. They will interrogate the requirements of specific careers and continually monitor their own progress towards developing the necessary knowledge, skills and attributes to thrive in these roles.

Students will be responsible for identifying a suitable work placement prior to the semester, with support of the Subject Coordinator. In the semester prior to your placement you should attend Careers & Employment (C&E) employment preparation seminars and workshops as well as accessing other C&E resources to assist you in identifying potential host organisations http://careers.unimelb.edu.au . You should commence your approaches to organisations at least 4 weeks before the placement. More information is available on the subject webpage here: https://science.unimelb.edu.au/students/internship-subjects/Science-Technology-Internship-Masters. If you have problems finding a placement you should contact the Careers and Industry team in the Faculty of Science (contact details can be found under the specific study period on the Dates and Times page).

On completion of the subject, students will have completed and reported on a course-related project in a science or technology workplace. They will also have enhanced employability skills including communication, interpersonal, analytical and problem-solving, organisational and time-management, and an understanding of career planning and professional development.