This subject will discuss how urban landscapes are managed. Students will study policy, planning and process issues; landscape and park typology and classification, community consultation; structures, systems, classifications and contractual relationships in urban landscapes; landscape documentation, project planning and implementation; management of urban vegetation; sustainability concepts and benchmarks and case-studies/examples of urban landscape management practice. Guest industry speakers will provide real world examples and experiences relevant to urban landscape management

This subject provides students with an introduction to quantitative techniques and strategies used in research in a range of life science disciplines, including agriculture and food science, biological sciences, and ecosystem sciences. The subject will focus on the design of research projects, investigation and interpretation of data, and the application of scientific computing to research problems. Teaching and learning will be centered on hands-on sessions in which students work with real-life data. There is a particular emphasis on developing scientific reasoning, statistical intuition, and experience in the practical application of common quantitative methods.

The subject is designed for students with little or no background in statistics or mathematics.

Topics include:

• An introduction to sampling techniques and experimental design
• Description and exploration of data
• Visualization using univariate and bivariate plotting
• Introduction to elementary probability
• Linear models as analytical tools for univariate problems
• Statistical inference using linear models and related techniques
• Interpretation and presentation of the results of statistical models
• Logistic regression models for binary outcomes
• Practical skills working with data in the R software environment

The subject will help students understand human-environment relationships and key development issues using a political ecology perspective, with cases from developing and developed countries. Political ecologists use a variety of approaches to understand complex human-environment problems, and these are applied to concrete situations. We critically analyze a number of development initiatives that are reconstituting human-environment relationships and, in some cases, promoting new forms of ‘environmental governance’. The range of topics covered does change, and some indicative ones are; supporting rural livelihoods; water management; conservation policy; urban environmental governance; the environmental outcomes of corporate misdeeds; global land grabbing; and environmental movements. Through a seminar presentation, reading, and participation, students will learn how different institutions, and the politics surrounding them, impose constraints upon, and present opportunities for, the promotion of sustainable and equitable development.

This subject develops the skills to understand and assess the social impacts of development, including international development projects, resource management, and proposed infrastructure or new policies. We do this in two ways: by looking at how to assess the impacts of proposed projects, and through evaluation techniques for existing developments or projects. In each case we develop practical skills and interdisciplinary techniques to appraise and evaluate impacts. These techniques draw from anthropology, development studies, and the policy sciences, and move beyond simple summative assessments and financial accounting. We consider the social and environmental contexts in which any form of appraisal is embedded, and the capacities of different actors (from the state to NGOs and community groups) to avert or mitigate negative impacts through learning, negotiation, and citizen participation. Examples, some presented by guest speakers, are drawn from Australia, Europe, the Americas, Africa, and Asia. At the completion of the subject students will have developed the conceptual skills to understand the impacts of development; be familiar with the range of methodologies and techniques used in impact assessment; understand development evaluation; and will be able to apply this in critical evaluation of the impact of projects and programmes.

This subject introduces and analyses critical concepts and terms central to debates over climate change, including risk and uncertainty, adaptation and mitigation, burden sharing, and problems and issues relating to regimes, strategies and policy instruments for addressing global warming. The subject considers the rise of climate change as a policy problem. It reviews and analyses the history of climate change policy as it has evolved nationally and internationally. It examines the interactions between national and regional climate policy, including in Australia, the United States, the European Union and China. It analyses debates and concerns that have led to the evolution of the Framework Convention on Climate Change (UNFCCC), the Kyoto Protocol, and more recent arrangements. Students will consider a range of policy instruments, including carbon taxes and emissions trading, and technologies that have been proposed or deployed to address this issue. This subject enables students to understand the evolution of a critical global environmental issue. It offers insights into technical, political, ethical and ecological issues that have framed climate change policy, particularly since 1992, and enables students to think critically about and participate in developing policy in this domain.

This subject provides an introduction to critical concepts and issues related to environmental policy development and implementation, with specific reference to national and international policy domains. Students are introduced to relevant concepts, theoretical issues and practical tools for policy makers. They consider case studies relating to climate change, ozone depletion, water, land degradation, forest preservation, waste and 'sustainability planning'. These case studies include Australian, developing country and international dimensions and considerations. The subject is taught through a combination of lectures and seminars. Students will gain a practical understanding of issues confronting policymakers for a range of environment problems and solutions available to them.

Sustainable Landscapes combines social and ecological disciplines to consider the management of urban and rural/regional landscapes for sustainable futures. Subject teaching includes weekly lectures and a 1x weekend field trip to observe and discuss management of landscapes for sustainable outcomes. Australian and overseas case studies are drawn upon to cover the following topics:

• the meaning and significance of sustainability in the context of urban, urban fringe, rural, and regional landscapes and their futures;
• rural and urban land use, and drivers of current and future landscape change, including fragmentation, social change and transformation, biodiversity loss, industrialisation, intensification, pollution, sovereignty, and security;
• assumptions around land ownership, ethics and economics that influence issues of environmental security, commons and sustainable regional futures; · the utilisation, degradation, and management of rural and urban biophysical resources for sustainable futures, including maintenance of ecosystem services and processes;
• the involvement of different stakeholders in decision making for regional, service, rural, fringe and urban areas, including the role of relationships and social features such as politics, memory, and values; and
• the role of governance, including institutions, deliberative democracy, empowerment; and community based natural resource management in navigating landscape change.

The content and the issues raised will draw upon and integrate theory, knowledge and practices from different disciplines familiarising students with systems theory and how it is integral to framing an understanding of landscape management. Theories of complex adaptive systems, social ecological systems, uncertainty, resilience and complexity will also frame the investigation of these issues. Landscape ecology sciences, social sciences (including cultural geographies) and policy frameworks will be drawn upon in analysing and evaluating landscapes and their futures, with a strong focus on community-based knowledge systems. Students will engage deeply with the literature that informs these ideas and will develop a critical understanding of their value and limitations.

Terrestrial ecosystems provide a wide range of values—from biodiversity and carbon storage to clean water and recreational opportunities in interaction with social systems. Managing ecosystems to sustain these values requires understanding what values exist in a given ecosystem, their interactions with society and how they change over time and space. However, natural ecosystems and the social context within which they are embedded are inherently variable across scales—capturing the many ecosystem values presents a significant challenge. This unit will explore the principles of, and approaches to, ecosystem assessment and monitoring across both the biophysical and social domains. We will focus on developing practical skills in the design of social and biophysical assessments, data collection and the analysis of quantitative and qualitative data associated with natural resources and their management. Example assessment approaches include ecological monitoring, forest inventory, stakeholder analysis, participatory mapping and value-based conversations, among many others. We will draw on examples from a range of ecosystems around the world.

This subject will involve practicals and a three-day, pre-semester field trip.

Urban soils can present distinct and unique challenges to the land manager, landscape architect or horticulturist responsible for developing, maintaining or improving urban landscapes. Often compacted, contaminated, or otherwise unsuitable for plant growth, urban soils require assessment, solutions and practical methods to ensure successful outcomes. This applications-oriented subject covers several fundamental soil science issues with direct relevance to urban landscape impacts, uses and requirements. Topics covered include compaction, nutrition, contamination, water supply, drainage and structural soils.

This subject prepares students for environmental management roles by providing them with the principles of how human impacts on the environment might be detected and managed. The principles will be placed within the legal and social contexts of environmental impact assessment. At the completion of the subject, students should understand three aspects: prediction of the kind of changes that might occur with human activities; the design and implementation of proper monitoring programs that can detect changes; and assessment of those changes. Additionally, a strong emphasis is placed on the practical implementation of principles.

The interactions between spatial context and ecosystem composition and structure can have a significant influence on the management of our natural environment. Spatial and temporal patterning of ecosystems can influence ecosystem functioning which in turn can affect resource availability for flora and fauna, dynamics of plant communities, and lead to the alteration of disturbance regimes. Humans play a critical role in shaping the spatial context on ecosystems within landscapes, both creating and affecting these relationships. This subject will cover the principles of landscape ecology with a focus on understanding how spatial heterogeneity, spatial extent, agents of change (i.e. fire, climate) and the role of humans (i.e. forest management, urbanisation) influence ecosystem patterns and in turn ecological processes (i.e. plant migration, meta-population dynamics, provisioning of ecosystem services). Case studies will be drawn from international and domestic examples from urban, agricultural, and forested landscapes.

This subject will involve lectures, pracs and a 3 day field trip.

The course covers the fundamentals of setting and achieving bushfire management objectives for ecological and fire protection purposes in natural ecosystems. It covers the contents of a fire management plan, setting objectives, developing fire prescriptions, undertaking monitoring and evaluation of the management process, and review.

The subject follows the fate of water as it moves into and through a broad range of land systems and the soil processes that influence the quality and quantity of water. These landscapes include upland forested catchments, extensively managed rural landscapes, intensive land use along floodplains and urban landscapes. The subject develops knowledge of the key water and soil processes that interact with natural and managed terrestrial systems, and students will gain a solid understanding of ecosystem functioning that will allow them to apply soil and water knowledge to address environmental, conservation and rehabilitation issues. Understanding the role of hydrology and soils across these ecosystems is critical for a range of professions including environmental and agricultural scientists, geographers, ecologists and plant scientists.

The course covers the fundamentals of fire behaviour and the key drivers. Students will examine the importance of the key factors affecting fire behaviour including fuels, weather, topography and ignitions. Methodologies for measuring fuels, fuel moisture, and weather will be examined through theoretical and practical approaches. Using these skills, students will learn computer and manual approaches for predicting the extent and intensity of landscape fires in a range of ecosystems. Students will apply the knowledge of fire patterns to examine how prescribed burning might be used for land management and the fundamentals of wildfire suppression strategies and tactics. Finally, we will assess the potential changes to fire patterns under global climate change.

The Asia Pacific region is of crucial importance to Australia and to the future management of global forest resources. The region has over half the world’s population and countries with the fastest growing populations and economies. This is placing increased demand on forest resources in the region and elsewhere. There are extensive spiritual and cultural associations between people and forests in this region and an extensive history of forest use and development. In this subject students experience the diversity of connections between forests and people in Laos and Vietnam to illustrate the importance of forests to local and national development, and contemporary forest policy and management challenges in the region. The program includes policy briefings and site visits to conservation and production forests, local village forests, hydropower and plantation development projects and small- and large-scale forest industries.

This subject will investigate the role of forests in the carbon cycle and in a changing climate. Students will learn the scientific basis for climate change and the impact that a changing climate might have on tree physiology and forest ecology. We will discuss the role forests play in the global carbon cycle and the degree to which forests or plantations can be used as a carbon sequestration option. We will evaluate the requirements for forest carbon accounting and will apply carbon accounting tools in hands-on accounting sessions with industry partners. This scientific understanding will be extended to discuss policy instruments under consideration in Australia and in the international arena for the potential role of forests in carbon emissions trading. The subject will equip students with state-of-the-art knowledge on the impact of climate change on forest ecosystems and with practical experiences in forest carbon accounting.

This subject covers the principles and practices of integrating trees into the rural agricultural landscape for both conservation and profit. The farming community require trees and shrubs for shade and shelter, soil conservation, salinity control and aesthetics. Farmers can also produce commercial tree products such as timber, fuel, fodder, essential oils and food. Because farmers manage the majority of the Australian landscape governments, community groups and industry are increasingly working in partnership with them to grow trees for environmental services including carbon sequestration, biodiversity and downstream water quality.

Ecological Restoration examines the principles and practices needed to restore terrestrial ecosystems in a range of modified landscapes from settled to agricultural to forested. The subject’s focus is ecological, although consideration is also given to socio-economic factors that influence restoration programs. Lectures and field trips explore ecological principles and projects from site to landscape scales, encompassing biodiversity values and ecosystem services. The subject is delivered via a compressed-semester model including a one-week intensive in the mid-semester break, which will aim to include field trips within the Melbourne region

Rivers are amongst the hardest of natural resources to manage. They are long and thin, and so maximise the impact of catchment changes; they also focus environmental, social and production pressures. Rivers are the archetypal example of the conflict between private and public goods. In most western countries we have done an effective job of degrading these resources. The last 20 years has seen a transformation in the way rivers have been managed. We are now less concerned with protecting people from rivers (via flood mitigation), and more focused on environmental rehabilitation and protection. This subject equips students to manage rivers more effectively by integrating catchment management activities. In reality, there are not many things that we do to manage rivers: change landuse, change flow, change water quality, change riparian vegetation, or make structural changes to the river. In this course we concentrate on (a) how much do you have to alter each of these management levers in order to produce the most cost effective improvements in river condition and sustainability; (b) how do we integrate the management of many levers at different scales; and (c) how do we evaluate whether we have had any effect. The subject has a strong emphasis on how to develop strong and successful policy for managing natural systems. The principles for managing rivers apply to managing most natural resources, so students can be confident of learning general management and policy principles.

This subject provides students with an advanced understanding of the philosophy, history and contemporary issues in geography. Students will undertake a series of directed readings resulting in three essays, two of which are on a topic approved by the program coordinator. For the first essay, the area of study includes: what is meant by “geography”; what problems have been and are being faced by geography as an academic discipline; what makes geography valuable (or not!) as a discipline; what “matters” are compelling, and in what sense and what role can or should geography play. For the other essays, students will conduct a survey of the literature on two contemporary research issues in geography.

This subject is concerned with the history and philosophy of geography and is designed to introduce students to key debates, both past and present, on the nature and scope of geography as an academic discipline. It therefore sets out an essential context for understanding contemporary research in human and physical geography, as well for understanding the nature of interdisciplinary research. Students who complete this subject will be able to think critically about different schools of geographical thought; be able to evaluate theoretical concepts from geography and elsewhere; and be able to demonstrate an understanding of the dynamic and contested nature of the discipline. Students will also gain insights into a selected issue at the leading-edge of contemporary geographical research. Finally, via a seminar diary, students will critically evaluate how contemporary geographic research is communicated via research seminars within the School and, where relevant, in other schools/departments of the university.

As Australian landscapes continue to degrade under current land management practices, land managers and stake-holders are looking toward alternative and more sustainable land management strategies, such as indigenous land management and traditional knowledge. This subject looks at how indigenous people in Australia manage their environment and how management practices vary across the Australian landscape. The subject will examine indigenous land management in Australia and abroad, and evaluate how traditional knowledge and beliefs guide approaches to land management. We will examine examples where indigenous land management has been reintroduced to landscapes in Australia and investigate the potential application of similar schemes across different parts of Australia. The subject will be taught as a 14-day intensive during the mid-semester break, comprising lectures and field observations in western Victoria and the Northern Territory. These two very different regions will be used to examine the relationship between environmental context, indigenous land management and post-colonial history. Lectures will provide the necessary conceptual framework with which to engage and understand the different environmental contexts and indigenous land management practices of these regions.

More information about this subject and the field trips can be seen at: http://michaelsresearch.wordpress.com/geog90019/

This subject will incur additional fees in the vicinity of $900 per student to cover travel.

Interactions between risk managers and publics represent the ‘coalface’ for disaster risk reduction. Despite the centrality of these relationships, they are rarely the focus of teaching and learning. This challenge is acute in the context of ‘risk management’, where competing theories and the diversity of cases and factors contribute to masses of content, often with little connection to skill development for students. Furthermore, risk is by its nature difficult to study and often dangerous, making experience-based inquiry exceptionally rare but desperately needed. This subject addresses this gap by providing students with active participation and experience with community engagement through self-directed field research.

This subject will train students to utilise the Community Engagement for Disaster Risk Reduction (CEDRR) methodology, which uses traditional door-knocking between the emergency services and publics, but alters those interactions in order to nurture inter-personal relationships. The subject and method is premised on research that demonstrates that publics do not respond to ‘top-down instructions’ nor to awareness raising. In this subject, students will learn community engagement by doing it with individuals in their social networks (e.g., friends, neighbours, family).

Students will use the web-application for data collection, producing data that will form the basis of their assessments. The subject will deliver skills not currently taught in Australian universities, skills that organisations are increasingly seeking given acceptance that community engagement, participation, and citizen science are required for effective governance.

This subject provides students with advanced level analysis and interpretation of the range of issues associated with the conservation and management of cultural environments. The subject advances student knowledge of cross cultural issues as they relate to natural and cultural resource management in diverse socio-cultural environments and examines specific issues pertaining to the evaluation and management of cultural resources. The range of topics includes conservation trends; world heritage cultural landscapes; heritage and conservation management tensions; valuing nature through diverse knowledge interfaces; and the reclamation of ethnographic images and objects by indigenous and local peoples

International Internship in the Environment is an elective subject available to students in the Master of Geography, Master of Environment or Master of Ecosystem Management and Conservation. Eligible students gain subject credit for a placement with an organisation based in another country. It provides students with the opportunity to gain exposure to a different cultural setting and to think critically about the nature of the relationship between theory and practice.

The broad aim of the internship is to provide the opportunity for graduate students to gain invaluable practical experience and to build their networks with industry, government or NGOs in order to further enhance their knowledge and skills in their chosen area of study. Students will have the chance to make a positive contribution to the host organisation by applying their previous experience, skills and knowledge gained through study.

To enrol into this subject students will be in the final 100 points of their Masters’ degree in the semester they intend to enrol. Students will also seek coordinator permission one semester prior to enrolling into this subject. More information is available on the subject webpage here: https://science.unimelb.edu.au/students/internship-subjects/International-Internship-in-Environment. 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).

Students will complete all necessary internship and travel paperwork PRIOR to enrolment in the subject.

Students will generally need to meet the cost of travel and subsistence in the destination country.

Completion of Internship Placement and Risk Assessment form and the on-line Student Travel Registration https://safety.unimelb.edu.au/management/implement

This subject provides an overview of the horticultural industry from plant production to installation and establishment of plants in the landscape. It introduces plant propagation techniques and plant growing systems; site analysis, with specific reference to the properties of urban soils and related issues affecting plant performance; plant quality; planting techniques; plant establishment; water delivery and management issues; and the plant maintenance activities during production and at planting that are required for designed landscapes to succeed.

This subject considers the evolution of plants, their structure and function, how they reproduce, cell physiology, energy transformations, metabolism, photosynthesis, water and nutrient uptake and transport, plant nutrition and whole plant physiology.

Upon completion of this subject, students should be able to demonstrate their understanding of the structure of plant cells and tissues, the basic processes involved in the growth of plants and the integration of these processes in the physiology of plant growth.

In this subject you will study research, applications and practice of therapeutic landscapes across social, community, horticultural and education settings. The content includes methods and approaches used in therapeutic horticulture, horticultural therapy programs, planning, design and construction of therapeutic landscapes, models and examples of successful practice in school, childrens and community gardens. Field visits and practical activities form part of the content.

This subject explores the identification, selection and design use of plants in urban landscapes. The content includes an introduction to botanical nomenclature, plant selection, sources of information, planting design, planting plans, the design use of major plant groups, and recognition and identification of representative plants. Case studies of plant use and management in urban landscapes and relevant site visits are also discussed.

In this subject you will learn about the history of urban agriculture in countries around the world and explore the various roles of urban agriculture in modern-day cities. Given the nature of the subject, a wide diversity of topics will be covered including but not limited to: plant growth requirements, agricultural inputs (such as water and nutrients), soil contamination, pests and diseases, urban-specific production methods, design and management of community gardens and edible landscapes, mainstream and alternative crops (fruit and vegetables), agro-ecology principles and practices ; and the economic value of residential food gardens. You will be required to implement and maintain an allocated crop plot in the Burnley Field Station throughout semester. Field visits will also form part of this subject.

Green infrastructure is the network of natural and designed vegetation elements within our cities and towns, in both public and private domains. Green infrastructure includes traditional green elements such as urban parks, gardens and trees, as well as newer green roofs, green walls and rain garden technologies. Green infrastructure provides a number of significant economic, social and environmental benefits and is an effective means of helping to adapt our buildings, communities and cities to future climate change conditions. In this subject students will gain insights into aspects of planning, design and management of green-infrastructure . The use of green infrastructure as ‘living architecture’ and the design considerations involved will be discussed. At the building scale, this will include an understanding of the improved energy efficiencies provided by green infrastructure and their role in building star energy rating systems. At the neighbourhood and landscape scale, the role and function of different green infrastructure technologies and systems will be discussed, including roles in ameliorating urban climates, improving urban water retention, use and quality providing more liveable urban communities for people and wildlife.

This subject explores the design, specification and management of green roofs and walls. The content will include guidelines and policies supporting green roofs and walls, relevant typologies and categories of use, requirements for successful design, construction and maintenance, development of specifications and project management and local and international case studies. Students will gain a thorough understanding of green roof and wall design and function, the benefits provided to cities and people and gain hands on experience through practical activities and visits to local project sites.

Invasions are natural ecological phenomena. Dispersing individuals encounter suitable habitat, establish, spread and evolve. In this way, species have radiated outwards from their origins, colonised distant offshore islands, and species have spread in response to changes in climate.

Human-induced invasions of plants, animals and diseases in modern times have dramatically altered the scales of time and distance over which invasions take place. Their impacts can be considerable, wiping out unique communities, endangering rare species, adding considerable costs to agriculture, horticulture and forestry, and having effects on the health, leisure and livelihoods of people. Tools such as pesticides and biological control can often be used to great effect, while for other invaders there are no obvious solutions. There may be unwanted side-effects of control methods on non-target species, they may adversely affect human health, and may cause considerable public concern. Integrated management strategies can be developed using ecological information about the species but these must be implemented in a real world that involves economics, politics, opinions and social interactions.

Understanding of social process and action is critical to effective land and environment management and social research skills are therefore valued by resource management agencies. This subject aims to equip students with knowledge and skills to design social research, which can be used to improve management of environments, agricultural and food systems. The subject presents a framework for understanding diverse approaches to social research; the relationship between theory and method is given particular emphasis.

The research process is considered step by step including scoping research issues, the evolution of research questions, and selection of appropriate methods. A number of research strategies are considered in more detail including survey research, case studies and action research. Social research ethics, quality in social research and advances in social research methods are examined.

In this subject, ideas and theories from the social sciences are applied to people’s involvement in social-ecological systems. Subject teaching includes lectures, group exercises and case studies, including at least one full day field trip. The subject covers the following areas:

• Philosophy and approaches in participation and community management in social-ecological systems in Australia and other countries;
• Participation by landowners, volunteer groups, indigenous people and others in planning or management of forests, waterways, fisheries, conservation areas, revegetation projects and other ecosystems;
• Communities and stakeholders, including their values, knowledge, networks and practices in relation to ecosystems;
• Interactions between community members and governments, businesses and non-government organisations, including issues such as level of engagement, power, knowledge, policy environments, institutions and social licence;
• Processes and techniques for relationship building, engagement planning, group facilitation, conflict management, evaluation and reflective practice;

This subject involves the definition and development of an internship placement in collaboration with the host institution. It has at its core a workplace project that will allow students to develop skills in project management, problem solving, multi-disciplinary workplace practice, institutional policy and strategy mapping, project reporting and communication.

This internship subject aims to provide students with a high-level employment experience with government, industry or non-government organisation (NGO). Students will develop a good understanding of potential employer expectations of Masters graduates and the skills required to function and excel in a workplace involved in the application of scientific research, technology, policy, planning or management.

With assistance from the subject coordinator, students will be required to source both a host-institution and an academic supervisor. The student and academic supervisor then define and coordinate the internship placement and develop a workplace project in consultation with (a) representative(s) from the host institution. More information is available on the subject webpage here: https://science.unimelb.edu.au/students/internship-subjects/ecosystem-internship. 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).

This project may relate to an applied science, technological, economic, social or management topic. Each student will prepare an ‘Internship Plan’ which includes relevant information about the project’s aims, context in relation to the institution, approaches to be used, relevant background knowledge and potential outputs to the host-institution. Students will then spend a period of 4-5 weeks (full-time equivalent; ca. 200 hours) working within their host institution i) gaining experience, ii) shadowing institution mentors and iii) working on their internship project. At completion of the internship placement, students will be required to present their findings to an audience, including members of the host-institution, in form of an ‘Internship Seminar’, and submit a ‘Main Report’ on their internship project.

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.

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.

Modern science and business makes extensive use of computers for simulation, because complex real-world systems often cannot be analysed exactly, but can be simulated. Using simulation we can perform virtual experiments with the system, to see how it responds when we change parameters, which thus allows us to optimise its performance. We use the language R, which is one of the most popular modern languages for data analysis.

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 will provide an understanding of your university studies within Victorian schools through a substantial school based experience.

The subject includes a placement of up to 20 hours within a Victorian school classroom, offering an opportunity to collaborate as a Tertiary Student Assistant (TSA) under the guidance of a qualified teacher.

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 introduce students to the world of quantum information technology, focusing on the fast developing area of quantum computing. The subject will cover basic principles of quantum logic operations in both digital and analogue approaches to quantum processors, through to quantum error correction and the implementation of quantum algorithms for real-world problems. In lab-based classes students will learn to use state-of-the-art quantum computer programing and simulation environments to complete a range of projects.

The physical, social and engineering sciences make widespread use of numerical simulations and graphical representations that link underlying their theoretical foundations with experimental or empirical data. These approaches are routinely designed and conducted by researchers with little or no formal training in computation, assembling instead the necessary skills from a variety of sources. There is an art to assembling computational tools that both achieve their goals and make good effective use of the available computational resources.

This subject introduces students to a wide range of skills that are commonly encountered in the design and construction of computational tools in research applications:

• Formulation of the task as a sequence of operations or procedures that express the context of the assigned problem in a form accessible to digital computing (Mathematica).
• Implementation of this formulation using computer languages appropriate for numerically intensive computation (C, C++, Fortran)
• Modularization of computationally intensive tasks, either as user-written procedures or existing libraries (for example BLAS, lapack)
• Documentation of the code to explain both its design, operation and limitations (LaTeX)
• Instrumentation of the code to verify its correct operation and monitor its performance (gprof)
• Optimization of the code, including the use of parallelization (OpenMPI)
• Visualization of data using graphical packages or rendering engines (Geomview, OpenGL)
• Interaction with the code through a graphical user interface (Python, Matlab)

These skills are introduced to the student by undertaking a short project that is selected in consultation with the Subject Coordinator.

This subject is part of a sequence of four consecutive subjects for full-time students, and a sequence of five consecutive subjects for part-time students. Together these consecutive Research Project in Ecosystem Science subjects constitute the 125-point research project offered through the MSc Ecosystem Science.

This project provides students with the opportunity to design and conduct independent research in one or more disciplines within the broad field of ecosystem science. Students will also develop skills in critically evaluating new knowledge within one or more scientific paradigms.

Specific research projects will depend upon the availability of appropriate expertise, but may address questions in conservation biology, ecology, ecophysiology, environmental psychology, environmental and landscape management, forest science, genetics, horticulture, hydrology and/or soil science. Students will take responsibility for their own research project, including the design and management of field and/or laboratory experiments, where appropriate; collection, analysis and interpretation of data; and communication of research findings through oral and written presentations.

For full-time students (24 months) completing the research project in four consecutive semester-long subjects, they will first enrol in Research Project in Ecosystem Science Part 1, and then progress through to Part 2, Part 3 and Part 4 (EVSC90030).

For part-time students (48 months) completing the research project in five consecutive semester-long subjects, they will also first enrol in Research Project in Ecosystem Science Part 1, Part 2 and Part 3, Part 4 (EVSC90038) and Part 5.

This subject is part of a sequence of four consecutive subjects for full-time students, and a sequence of five consecutive subjects for part-time students. Together these consecutive Research Project in Ecosystem Science subjects constitute the 125-point research project offered through the MSc Ecosystem Science.

This project provides students with the opportunity to design and conduct independent research in one or more disciplines within the broad field of ecosystem science. Students will also develop skills in critically evaluating new knowledge within one or more scientific paradigms.

Specific research projects will depend upon the availability of appropriate expertise, but may address questions in conservation biology, ecology, ecophysiology, environmental psychology, environmental and landscape management, forest science, genetics, horticulture, hydrology and/or soil science. Students will take responsibility for their own research project, including the design and management of field and/or laboratory experiments, where appropriate; collection, analysis and interpretation of data; and communication of research findings through oral and written presentations.

For full-time students (24 months) completing the research project in four consecutive semester-long subjects, they will first enrol in Research Project in Ecosystem Science Part 1, and then progress through to Part 2, Part 3 and Part 4 (EVSC90030).

For part-time students (48 months) completing the research project in five consecutive semester-long subjects, they will also first enrol in Research Project in Ecosystem Science Part 1, Part 2 and Part 3, Part 4 (EVSC90038) and Part 5.

This subject is part of a sequence of four consecutive subjects for full-time students, and a sequence of five consecutive subjects for part-time students. Together these consecutive Research Project in Ecosystem Science subjects constitute the 125-point research project offered through the MSc Ecosystem Science.

This project provides students with the opportunity to design and conduct independent research in one or more disciplines within the broad field of ecosystem science. Students will also develop skills in critically evaluating new knowledge within one or more scientific paradigms.

Specific research projects will depend upon the availability of appropriate expertise, but may address questions in conservation biology, ecology, ecophysiology, environmental psychology, environmental and landscape management, forest science, genetics, horticulture, hydrology and/or soil science. Students will take responsibility for their own research project, including the design and management of field and/or laboratory experiments, where appropriate; collection, analysis and interpretation of data; and communication of research findings through oral and written presentations.

For full-time students (24 months) completing the research project in four consecutive semester-long subjects, they will first enrol in Research Project in Ecosystem Science Part 1, and then progress through to Part 2, Part 3 and Part 4 (EVSC90030).

For part-time students (48 months) completing the research project in five consecutive semester-long subjects, they will also first enrol in Research Project in Ecosystem Science Part 1, Part 2 and Part 3, Part 4 (EVSC90038) and Part 5.

This subject is part of a sequence of four consecutive subjects for full-time students, and a sequence of five consecutive subjects for part-time students. Together these consecutive Research Project in Ecosystem Science subjects constitute the 125-point research project offered through the MSc Ecosystem Science.

This project provides students with the opportunity to design and conduct independent research in one or more disciplines within the broad field of ecosystem science. Students will also develop skills in critically evaluating new knowledge within one or more scientific paradigms.

Specific research projects will depend upon the availability of appropriate expertise, but may address questions in conservation biology, ecology, ecophysiology, environmental psychology, environmental and landscape management, forest science, genetics, horticulture, hydrology and/or soil science. Students will take responsibility for their own research project, including the design and management of field and/or laboratory experiments, where appropriate; collection, analysis and interpretation of data; and communication of research findings through oral and written presentations.

For full-time students (24 months) completing the research project in four consecutive semester-long subjects, they will first enrol in Research Project in Ecosystem Science Part 1, and then progress through to Part 2, Part 3 and Part 4 (EVSC90030).

For part-time students (48 months) completing the research project in five consecutive semester-long subjects, they will also first enrol in Research Project in Ecosystem Science Part 1, Part 2 and Part 3, Part 4 (EVSC90038) and Part 5.