52894WA Advanced Diploma of Applied Electrical Engineering (Renewable Energy)

Students emerge from the course able to demonstrate specialised and integrated technical and theoretical knowledge, with considerable depth, in subject matter related to electrical engineering.

This program is designed to meet the specialised needs of industry.

On successfully completing the total of 17 modules and 2 units of competency, students will graduate with the Advanced Diploma of Electrical Engineering (Renewable Energy).

Graduates will have the knowledge and skills to contribute to the capacity of electrical engineering and related industries, particularly the renewable energy sector, to maintain their competitiveness in a global marketplace through the application of latest technologies, value adding to existing products, process and services and the development of new, sustainable and innovative solutions.

Six threads run through the program to give students maximum, functional coverage in the broad field of electrical engineering. These threads comprise electrical technology fundamentals, distribution equipment and protection, energy efficiency, operation and maintenance of electrical equipment, power protection, and distributed (embedded) generation.

Program Structure

The course includes 17 modules and 2 units of competency. These modules cover a range of aspects to provide you with maximum practical coverage in this field.

Module Name

• Use basic mathematics in engineering
• Electrical Circuits
• Basic Electrical Engineering
• Apply the fundamentals of professional engineering practice
• Electrical Drawings
• Electrical Power Distribution
• Transformers, Circuit Breakers and Switchgear
• Electrical Machines
• Power Cables and Accessories
• Earthing and Lightning / Surge Protection
• Power System Protection
• Electrical Safety and Wiring Regulations
• Testing, Troubleshooting and Maintenance of Electrical Equipment
• Energy Efficiency and Energy Use
• Power Quality
• Overview of Distributed Renewable Generation
• Distributed Renewable Generation Sources
• Smart Grids and Distributed Generation: Planning, Design and Management
• Energy Management

As engineering paraprofessionals, graduates will be able to:

• Recognise and interpret contemporary issues and trends in electrical engineering practice.
• Interpret electrical drawings, documentation and schematics.
• Identify and explain the fundamental features of power distribution equipment and protection techniques.
• Appreciate the risks associated with electrical equipment and manage its efficient and safe operation.
• Develop a broad knowledge of tools and techniques that can be applied to select, operate, troubleshoot and maintain electrical equipment.
• Apply the principles and knowledge required for planning, operation, maintenance and troubleshooting embedded and/or distributed generation from renewable sources.
• Understand of the vision of smart grids and its related technologies such as energy management tools.
• Apply a broad knowledge of fundamental aspects of the power industry to their roles in day-to-day operations.
• Recognise the broader context of their work in terms of critical aspects of the power industry.
• Assist with formulating effective holistic strategies in relation to network equipment, protection, controls, operations, and embedded generation.
• Manage complex projects on time and within budget.
• Manage self-autonomy to achieve objectives within organisations that have outputs based on technological application and develop professional practice in the field.
• Communicate professionally and effectively.

Benefits

• Skills in the latest electrical system and renewable energy technologies
• Practical guidance from experts in the field
• Global networking contacts in the industry
• Improved career prospects and income
• A world class Advanced Diploma of Applied Electrical Engineering (Renewable Energy)

Learning Outcomes

As engineering paraprofessionals, graduates will be able to:

• Recognise and interpret contemporary issues and trends in electrical engineering practice.
• Interpret electrical drawings, documentation and schematics.
• Identify and explain the fundamental features of power distribution equipment and protection techniques.
• Appreciate the risks associated with electrical equipment and manage its efficient and safe operation.
• Develop a broad knowledge of tools and techniques that can be applied to select, operate, troubleshoot and maintain electrical equipment.
• Apply the principles and knowledge required for planning, operation, maintenance and troubleshooting embedded and/or distributed generation from renewable sources.
• Understand of the vision of smart grids and its related technologies such as energy management tools.
• Apply a broad knowledge of fundamental aspects of the power industry to their roles in day-to-day operations.
• Recognise the broader context of their work in terms of critical aspects of the power industry.
• Assist with formulating effective holistic strategies in relation to network equipment, protection, controls, operations, and embedded generation.
• Manage complex projects on time and within budget.
• Manage self-autonomy to achieve objectives within organisations that have outputs based on technological application and develop professional practice in the field.
• Communicate professionally and effectively.

• Electrical Engineers and Electricians
• Project Engineers
• Electrical Technicians
• Field Technicians
• Line Workers
• Solar Electricians
• Wind Service Technicians
• Maintenance Engineers and Supervisors
• Energy Management Consultants
• Design Engineers
• Engineering Project Managers
• Instrument Fitters and Instrumentation Engineers
• Consulting Engineers
• Production Managers
• Instrument and Process Control Technicians

Regardless of whether you are a domestic or international student, when you study on-campus with EIT, our supportive blended learning model, and small class sizes encourage you to advance your technical knowledge and remain engaged in your studies while forming global networks.

We deliver our on-campus degrees via a unique methodology that uses an international pool of expert lecturers, and dedicated learning support officers, and provides you access to cutting-edge simulation software alongside physical and virtual laboratories to test concepts and deepen your understanding of program content.

EIT has campuses across Australia in Perth (Western Australia), Melbourne (Victoria), and Brisbane (Queensland).

You are expected to spend approximately 10-15 hours per week learning the program material and completing assessments. This includes attending weekly webinars that run for about 90 minutes to facilitate class discussion and allow you to ask questions. This program is run online on a part-time basis and has been designed to fit around full-time work. It will take 24 months to complete.

We understand that sometimes work commitments and personal circumstances can get in the way of your studies, so if at any point you Feesl that you are struggling with the pace of the course or finding a particular module challenging, you are encouraged to contact your designated learning support officer for assistance.