Bachelor of Laboratory Medicine (Honours)

at EduCo - RMIT University - Bundoora Campus Australia

Major areas of study include foundational nursing care, acute care nursing, and mental health nursing.

Theoretical content is supported with nursing practice laboratories, clinical simulation and clinical practice.

Other areas of study include anatomy and physiology and complex care nursing in both acute care and mental health settings with an emphasis on research-based practice.

RMIT’s nursing degree prepares you for diverse and complex healthcare environments through academic excellence, innovative research and clinical practice.
Major areas of study include:

• Anatomy and physiology
• Community care nursing
• Foundational nursing care
• Continuing care nursing
• High dependency nursing
• Medical surgical nursing
• Mental health nursing

You will join an active research community and work with academics, peers and partner organisations who have demonstrated research success in a range of specialities, including:

• advanced materials
• aerodynamics
• aerospace vehicle design
• air traffic management systems
• airframe systems
• airworthiness
• aviation human factors engineering 
• aviation logistics
• aviation technology
• avionic systems
• ergonomics aviation logistics
• maintenance and operations
• multi-modal transportation engineering
• propulsion
• stability and control
• structures
• sustainable aviation technologies
• systems engineering
• unmanned aerial vehicles.

RMIT researchers deliver high-impact and influential outcomes. Success is demonstrated through excellent performance in university rankings, with a ranking as well above world standard in the Australian Research Council Excellence in Research for Australia (ERA) 2015 round.

RMIT is also ranked in the top 100 universities in the fields of aerospace and mechanical engineering in the 2014 QS World University rankings.

RMIT researchers contribute to RMIT’s flagship aerospace research centre, the Sir Lawrence Wackett Aerospace Centre.

Additionally, there are active collaborations with other national and international institutes, centres, groups and partners, including:

• Advanced Manufacturing CRC
• Centre for Additive Manufacturing
• Centre for Innovative Structures and Materials (CISM)
• CRC for Advanced Automotive Technologies
• CRC for Advanced Composite Structures
• Defence Materials Technology Centre

Explore research centres and collaborations
Research is supported by excellent facilities and infrastructure, including:

• A fleet of fully operational aircrafts
• Advanced Manufacturing Precinct
• Composites and advanced materials testing laboratories
• Computer laboratories with relevant and updated software
• Engine testing facilities
• Flight simulators
• Green Engines Research Laboratory
• Industrial research wind tunnels
• Simulated aircraft maintenance laboratory

Explore RMIT research facilities
Throughout your candidature, you will be supported through:

• An expert supervisor who will help you develop the required leadership, analytical and problem-solving qualities required to work at a world-leading level.
• participation in high-quality professional development programs delivered by RMIT's School of Graduate Research
• access to RMIT's extensive facilities, laboratories and equipment and those of our partners.

Connect with the School of Graduate Research
As an aerospace engineering research candidate, you have the flexibility to pursue an individual topic, or contribute to one of our existing projects.

Aerospace engineering candidates may be eligible for a range of scholarships including:

• the Australian government
• RMIT
• industry sponsors

Develop your research skills and contribute to new developments in allied and complementary health therapies.

Under expert supervision, you will develop your skills and join researchers already active in traditional and complementary medicine. Emphasis will be on research into evidence-based healthcare and clarifying how these therapies may work.

The School of Health and Biomedical Sciences conducts research in the area of ageing and chronic disease, including:

• Metabolic diseases: obesity, type 2 diabetes and fatty liver disease
• Respiratory and sleep disorders
• Neurodegenerative and musculoskeletal diseases and pain management
• Drug discovery from traditional medicine
• Physical therapies
• Public health and health service research
• Research is undertaken in a strongly multi-disciplinary environment that brings clinical and basic researchers together to undertake novel research at the boundaries between disciplines.

The Master of Engineering (Environmental Engineering) will develop advanced knowledge and skills in environmental engineering to enhance your career prospects in relevant industries.

You will develop specialist technical capabilities in:

• Water treatment engineering and water resource systems optimisation
• Advanced technologies for wastewater reclamation
• Urban hydrology
• Soil remediation
• Humanitarian engineering
• Sustainable waste management in the context of circular economy.

You'll develop extensive knowledge in environmental engineering and related technologies combined with advanced oral and written communication, teamwork, process design, project management and research skills. You will enhance your professional skills in management, leadership and business enterprise.

You'll also gain skills that will allow you to step up as a project leader, consultant or manager with the knowledge to lead the introduction of new technologies and operating practices in environmental engineering.

Immerse yourself in the latest technologies that improve energy efficiency. Learn how to use renewable resources to reduce the environmental and social impacts of conventional energy resources.

With the Master of Engineering (Sustainable Energy), taught in the heart of Melbourne, you'll learn why managing the transition towards a more sustainable energy sector is a priority for governments, the private sector and the general community.

Through your studies in this degree, you will learn to:

• Plan and effectively manage an independent project on sustainable energy topics at a professional engineering level
• Locate and critically review scientific and engineering literature and apply engineering practices and research methods to conduct sustainable energy projects and evaluate their results
• Communicate findings effectively to a professional audience

A final-year research project forms an essential part of this degree. Through this self-selected project (from a range of available topics), you will draw on not only the advanced engineering skills you have built, but also coursework around ethical, economic and social responsibility.

Biomedical science courses allow you to understand how the human body functions, and the responses of the body to various diseases, exercise, diet, internal disturbances, and environmental influences.

You’ll learn how techniques in molecular biology and genetics are applied to diagnosing genes that cause cancer, making crops and livestock less vulnerable to disease, and making food safer.

You’ll complete studies in cell biology, physiology, microbiology and molecular biology. You can also choose to study anatomy, neuroscience, cardiovascular biology, industrial microbiology, proteomics, pharmaceutical sciences and applied biochemistry.

The Master of Clinical Psychology provides you with the advanced knowledge and clinical skills that will enable you to function as professional clinical psychologist in a wide range of health, community and allied settings.

This training encompasses a wide range of theoretical and applied topics, such as knowledge of psychological principles, application of psychological theories and models, design and implementation of psychological interventions, ethical, legal and professional aspects of psychological practice, psychological assessment and measurement, applied research and evaluation, and communication and interpersonal relationships.

Advanced skills in assessment, diagnosis and treatment are imparted through intensive, small-group face-to-face didactic lectures/seminars, tutorials, case presentations, role plays and workshops. Students receive ample opportunities to develop advanced therapeutic skills within a cognitive-behavioural framework and other contemporary evidence-based theoretical paradigms, utilising the scientist-practitioner model.

Develop advanced research skills and further the growth of mechanical and manufacturing engineering.

You will join an active research community and work with academics, peers and partner organisations who have demonstrated research success in a range of specialities, including:

Mechanical engineering:

• Aerodynamics
• Alternative energy technologies (e.g. Solar cells)
• Applied heat and mass transfer
• Conservation and renewable energy (care)
• Combustion and fuels
• Computational engineering (including cad, fea, cfd)
• Dynamics and control and noise vibration harshness engine and supercharger technologies
• Industrial and vehicle
• Sports engineering
• Vehicle design and crashworthiness
• Virtual engineering and design.

Manufacturing engineering:

• Additive manufacturing
• Computer-integrated manufacturing
• Design for manufacturing
• Forming and machining technology
• High-speed automation
• Operations
• Polymeric and composite product development
• Quality management in manufacturing
• Robotics, laser technology.

Use your advanced engineering skills to contribute to our applied industry focused mechanical and manufacturing research projects.

RMIT's Bachelor of Laboratory Medicine (Honours) will equip you with fundamental knowledge of human anatomy and physiology, develop your communication and professional skills and introduce you to factors that impact the health of individuals and communities, particularly our First Nations peoples.

You'll build skills and knowledge of molecular diagnostics which will provide an overview of the detection and application of biochemical and molecular biology techniques (DNA or RNA) to provide clinical information in the study of human diseases, including infectious disease, inherited conditions and cancer.

You'll also learn about clinical immunology and pathology, gaining an understanding of the diagnosis and management of patients with diseases or disease processes that result from disturbed immunological or pathophysiological mechanisms.

As a graduate of this laboratory medicine degree, you'll be qualified to practise as a medical scientist in the diagnostic pathology industry, be competitive for employment in medical research and be competitive for entry into PhD studies.

Develop your advanced engineering skills by contributing to an industry focused research project and identify solutions to existing and emerging civil and infrastructure engineering problems.

The School of Engineering conducts research in a broad spectrum of topics with the overall vision of delivering sustainability, longevity and efficiency of infrastructure essential for the 21st century.

Our research strengths are in the fields of:

Asset management and decision making for optimised management of infrastructure

• Asset management and decision making for optimised management of infrastructure
• Challenges in supporting infrastructure in reactive and unsaturated soils
• Design of new material and structural forms and optimisation
• Innovative and sustainable materials
• Predicting remaining life of structures including bridges, buildings, tunnels and underground utilities considering changes in climate
• Strengthening of structures using innovative techniques
• Sustainable construction

You can select between applied research well supported by industry which will deliver innovative new products and processes, and fundamental research leading to ground breaking new knowledge.