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Study associate degree engineering online with University of Tasmania through Open Universities Australia. Explore all degrees, subjects and short courses now.

Principles of Structure

Electrical and Digital Control Systems

Introduction to Fabrication

Remote Sensing: observing the Earth from above

Introduction to Maritime Science, Engineering and Technology

Hydrostatics

Introduction to Engineering Physics

Mathematical Methods for Engineers 2

Mathematical Methods for Engineers 1

Fluid and Energy Engineering

This subject will provide you with the basic skills and concepts of Industry 4.0 technologies and their applications across any advanced manufacturing industry, from large-scale industrial operations, small businesses and the emerging sole traders in niche design industries. The subject focuses on practical applications, employing simulation tools to develop skills in electrical circuit analysis and digital control system design. You will explore the complexities of electrical circuits, covering fundamental concepts such as voltage, current, and impedance, and explore advanced topics like operational amplifiers, sensors, and actuators. The digital control systems component introduces the practical applications of digital control systems across industries, encompassing both hardware and software aspects. Through case studies and simulated real-world environments, you will gain insights into real-time measurement, open and closed-loop control, and contemporary technology.

This subject introduces key concepts, processes and principles of industry 4.0 driven digital fabrication in a manufacturing environment. You will undertake remote, team-based project work to create fabricated objects that respond to the United Nations Sustainable Development Goals. Team members based at our tech-solutions hub will liaise with you to determine your fabrication and assembly requirements and support you in developing your finished product. Equipment at this facility includes 3D printers for additive manufacturing, Co2 laser cutters and a recycled plastic press. You will determine the appropriate fabrication method based on your design requirements and submit plans for the fabrication process. To achieve this, you will develop and apply a range of skills and knowledge relating to: <ul><li>Computer Aided Design </li><li>Cloud based communication of digital fabrication information </li><li>The Design Thinking process </li><li>The United Nations Sustainable Development Goals </li><li>Quality assurance </li><li>Reflective practice </li></ul>Other practical learning activities include component fabrication, additive manufacturing, laser-cutting, and forming and shaping by using various materials and approaches. You will prepare required toolsets and machinery, manage the fabrication process end-to-end, analyse outputs and finished products, and evaluate their conformance to requirements for safety, quality, velocity and cost.  This subject also introduces learning through practice by exposing you to authentic learning experiences. These experiences are placed at the centre of learning and assessment, so you have the opportunity to develop the skills, knowledge and behaviours necessary to respond to industry, community and/or global needs. You will be introduced to:- a range of methods, tools, techniques and approaches to practice- principles and perspectives such as values, ethics, empathy and leadership in real world scenarios- reflection and deliberative thinking as a means of developing knowledge, skills, attitudes and aspirations- ways of understanding problems and developing solutions through active inquiry.

This subject provides students with knowledge of the fundamental concepts of statical stability and trim of intact and damaged floating structures and the associated practical implications and applications within a regulated environment. This is a subject pivotal to an adequate knowledge within a maritime engineering degree. The subject enables determination of responses of any floating structure to changes in immersed geometry and weight distribution, hence forming one foundation for subsequent design and operations related subjects within the student&#39;s respective course.

This subject introduces the ocean environment and the role of maritime engineers in the design of maritime infrastructure. The subject covers essential elementary knowledge of marine sciences, types of marine crafts and maritime structures, marine systems, and ocean renewable energy technology. This subject will provide future maritime engineers with the core understanding required for the application of technical knowledge throughout their further studies.

As more businesses and scientists adopt geographical information systems (GIS), there is increasing demand for graduates with strong skills in collecting, managing, analysing, and visualising spatial datasets. GIS and spatial analysis skills will be indispensable for almost all careers in geography and geosciences, and students who have advanced skills in this field will be best prepared to enter the job market. This subject builds on KGG102 Introduction to Spatial Information and will give you more advanced skills in the analysis and presentation of spatial data. The subject covers interpolation, terrain modelling, multi-criteria decision analysis, geodatabases, spatial data quality, and internet mapping. These topics are explored in lectures and weekly practical sessions. Towards the end of the subject you will work on a GIS project and apply your new spatial analysis skills to tackle real-world spatial problems. The subject is likely to be of interest to students in geography, environmental studies, earth sciences, plant science, zoology, agricultural science, computing and information systems, archaeology, and engineering.

Analysis of Geospatial Information

This subject provides an engaging introduction to the dynamic field of remote sensing. This subject delves into the latest advancements in satellite and aerial imagery, empowering students to utilise these technologies to understand and address diverse environmental and societal challenges. In today&#39;s rapidly changing world, remote sensing is a powerful tool with applications spanning climate change studies, vegetation studies, forestry, environmental management, glaciology, oceanography, and urban studies. Starting with the fundamental physics of light and its interaction with the Earth&#39;s atmosphere and surface, this subject covers the technical and practical aspects of a range of satellite and airborne sensors. Through weekly computer practicals using ENVI software, students gain the necessary skills to display, analyse, and extract valuable information from remotely sensed imagery. This subject equips students pursuing careers in geospatial science, geography, environmental science, earth sciences, agricultural science, plant science, computing and information systems, and marine and Antarctic studies with vital scientific and professional skills. As the demand for professionals with expertise in geospatial data analysis grows, this subject prepares students to enter the job market with confidence.

Trains run on tracks within the rail corridor, which is a defined strip of land for the exclusive purpose of the railway business. However, within that corridor there are many items and infrastructure not only to ensure that trains can run effectively, efficiently and economically, but also to allow the passage of cars, pedestrians, passengers, freight, etc within the corridor, over it, under it, and through it. Some examples of that infrastructure include bridges, platforms, electrical substations, overhead wiring, tunnels, buildings of many types, signalling masts and related equipment, etc. Knowledge of issues that can be associated with that infrastructure, as well as need for its maintenance, will help the track engineer to ensure the continued passage of trains, customers and products throughout the rail corridor. This subject, Associated Infrastructure, will introduce you to most of that infrastructure, its types, roles, defects and maintenance. The subject is located early in your course to help you maintain a broad view of the responsibilities of the track engineer beyond being concerned with just the track itself.

Associated Infrastructure

Railways were invented in Britain over 200 years ago, and it is difficult to overstate the fundamental and critically important role they have played in the development of nations, the progress of wars, and the prosperity of peoples the world over. Railways tend to be divided into two segments: above rail (ie trains, rollingstock, wagons) and below rail (ie railway tracks). The two segments interact closely in the development and transmission of complex dynamic forces into the earth beneath the tracks. As a track engineer it’s vital that you know what the components are in modern rail tracks, their role, how they perform, the influence of their manufacture, and their interaction with the trains passing over them. For this purpose in your railway course the first subject you encounter is Fundamentals of Track Engineering, in which you learn these rudiments of track and its behaviour. This subject is essential to your progress through the course and you must successfully complete this subject before you can tackle subjects dealing with issues such as track design, track defects, track maintenance, etc.

Fundamentals of Track Engineering

Railway traffic does not simply travel from one place to another along the same single piece of track. In an urban network of rail lines, trains travel in all sorts of directions depending upon customer demand and availability of rollingstock. As a result, rail tracks are required to cross some tracks, and to merge with or diverge from others. This is particularly true where lines converge in population centres, city centres and marshalling yards. There are many types and forms of track crossings, a vast array of methods for merging or diverging trains, and a bewildering range of different types of terminology used to describe these track structures. In this subject those structures are known as turnouts and crossings, and you will be provided with foundational information about their design, defects, operation, maintenance, and terms used; the subject will expose you to some of their specialised applications. The subject is located early in your course and does not require detailed track knowledge, though a familiarity with the components comprising railway track would be an advantage in your study.

Turnouts

In previous subjects you have learned about the components making up the structure of a track in the rail corridor, as well as learning about the broad range of other infrastructure within the corridor for which the civil engineer would be responsible. Everything within the corridor had to be built and needs to be maintained, and design of infrastructure is pointless without its eventual construction. This subject is built around a comprehensive and multi-faceted case study in which you will work on interdependent construction projects within an overarching infrastructure development scenario. You will work in a team of colleagues within this subject, because the amount of work involved in each project requires a team effort, but also because all infrastructure construction in the rail industry requires teams drawn from many disciplines. Interaction and collaboration of the teams in this subject is an essential part of the learning and of the assessment. Your participation in and contribution to your team and its project and responsibilities will be closely assessed and will be considered in setting the final grade in this subject.

Railway Construction

University of Tasmania Associate Degree Engineering Courses & Degrees | Open Universities Australia

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