Begin study in:

Bachelor of  Engineering (Honours) and Master of Engineering

Program code: 2350
QTAC code: 717111
CRICOS code: 080724A

Location

St Lucia

Duration

5 Years full-time

Commencing

Semester 1 (24 Feb, 2020)
Semester 2 (27 Jul, 2020)

Why study the Bachelor of Engineering (Honours) and Master of Engineering

The integrated Bachelor of Engineering (Hons) and Master of Engineering (BE (Hons)/ME) is the first 5 year engineering degree in Australia to integrate a semester placement, either in industry or research, into a degree with the Master's level course work. This unique combination in an undergraduate degree will provide graduates with world class knowledge and skills in their field of study as well as an enhanced ability to work in multi-disciplinary teams and across fields. These are the attributes required to tackle current and future issues facing society and to create value for industry and society through innovation. BE(Hons)/ME graduates will have a head start in careers that require specialist skills and adaptability (e.g. in consulting, corporate/governmental advising or industrial research) or when applying for research higher degrees at the world's top research institutions.
Note: Students enrolled in the Bachelor of Engineering/Master of Engineering prior to 2015 may refer to course and program information for previous years here.

Summary

  • Program code
    2350
  • QTAC code
    717111
  • Faculty
  • Duration
    5 Years full-time
  • Commencing
    Semester 1 (24 Feb, 2020)
    Semester 2 (27 Jul, 2020)
  • Program level
    Undergraduate
  • Units
    80
  • Delivery location
    St Lucia
  • AQF
    Level 9
  • CRICOS code
    080724A

Admissions criteria

Entry scores

All international applicants need to meet the minimum entry score for this program.

Prerequisites

Queensland Year 12 or equivalent English, Mathematics B, plus one of Physics or Chemistry.

View the Prerequisites guide for more information about subject equivalents for interstate high schools, overseas high schools, university subjects and pathways and bridging programs.

English Proficiency

IELTS overall 6.5; reading 6; writing 6; speaking 6; listening 6. For other English Language Proficiency Tests and Scores approved for UQ

TOEFL IBT - Overall 87, listening 19, reading 19, writing 21 and speaking 19.

TOEFL PB - Overall 570, listening 54, reading 54, writing 59/5.

Pearsons - Overall Score of 64 and 60 in all sub bands.

BEP - A minimum overall grade of 4 plus a minimum grade of C in all macro skills.

CES - Overall 176 and 169 in all sub bands.

OET is not accepted.

view the English proficiency policy.

Visa requirements

International students who are accepted into full-time study in the Bachelor of Engineering (Honours) and Master of Engineering are eligible to apply for an Australian student visa.

The Australian Government has simplified the visa application process. Now, all international students apply for the Student Visa (subclass 500).

There are a number of requirements you must satisfy before a visa is granted. Find out more about the visa application process.

Program structure

Courses

The courses offered in the Bachelor of Engineering (Honours) and Master of Engineering are set out in the course list. Each course is allocated a certain number of units (#). A standard full-time study load is 8 units per semester.

Courses Program Rules

The Program Rules explain what is required to complete the Bachelor of Engineering (Honours) and Master of Engineering. These requirements include the total number of units you need to complete in order to graduate.

Program Rules

To have your degree conferred, you also need to comply with UQ’s policies and rules.

Honours

Honours is awarded to all graduates of this program. Honours is awarded in the following classes:

  • Class I
  • Class IIA
  • Class IIB
  • Class IIIA
  • Class IIIB

Class of honours depends on your GPA. For details refer to the Program Rules.

Practicals, placements and internships

Completion of 450 hours of Engineering Professional Practice to satisfy the requirements of Engineers Australia.

Professional memberships

Graduates may be eligible for membership with the following professional bodies:

  • Australasian Institute of Mining and Metallurgy
  • Engineers Australia
  • Institution of Chemical Engineers

Programs and Courses

If you're a current student who has already commenced study at UQ, refer to Programs and Courses in my.UQ for full information about your program structure, rules and requirements.

Majors

The following is a list of majors available in the Bachelor of Engineering (Honours) and Master of Engineering.

When you graduate, any majors, dual majors and extended majors you have completed will be listed on your degree certificate.

Chemical Engineering

Chemical engineers invent, design, and manage products and processes that transform raw materials into valuable products such as bio-fuels, plastics, wine, pharmaceuticals, and artificial blood. They do this using the latest knowledge of biology, chemistry and physics to ensure viable commercial production whilst minimising loss of materials and energy consumption. This value-adding must be safe, economical and environmentally sound. It is a rapidly changing profession with chemical engineers working at the cutting-edge of fields such as molecular biology, nano-materials, chemistry, physics, mathematics and information technology.

Chemical and Biological Engineering

Engineering combines quantitative analysis and synthesis to elucidate system design principles. Through the genomics revolution engineers can now begin to tackle biological problems using the same "measure, model, and manipulate" approach they have applied to physics and chemistry. Indeed, applying this system approach is widely recognised as essential not only for the development of innovative biotechnologies but also to yield fundamental scientific understanding of biological systems. As our ability to modify and control biological systems increases, biological processes will replace chemical and mechanical processes due to their inherent advantages of renewable resources, mild operation conditions and minimal waste problems. Early signs of the change are seen not only in the high-value pharmaceutical industry, but also in the production of bulk chemicals like lysine by fermentation and in bioleaching of copper and gold from mineral ore. Advances in our understanding of and ability to mimic biological systems are also inspiring completely new approaches such as nanotechnology and tissue engineering, which will form the foundation of new industries of the 21st century.

Chemical and Environmental Engineering

Graduates of Chemical & Environmental engineering will be equipped to work effectively across technical, research and strategic roles to respond to present and future challenges associated with sustainably meeting the needs of the national and global population. Chemical & Environmental engineers will be accredited chemical engineers, with additional technical skills in the areas of waste management and resource recovery, water treatment and sustainable energy systems. They will have the skills and knowledge required to implement cleaner production, and to rigorously assess the long-term impacts of proposed products, processes and developments. This includes an understanding of key global challenges, the causes of these problems and barriers to the uptake of technical solutions. Chemical & Environmental engineers will be able to apply, assess and communicate a wide range of approaches to developing sustainable systems, including indicators of sustainability and different methods of community consultation and engagement. They will have a solid grounding in modelling and in analytical measurement in laboratory and field/industrial applications, including basic sampling design and data analysis.

Chemical and Materials Engineering

Chemical engineering is concerned with inventing, designing, and managing products and processes that transform raw materials into valuable products such as bio-fuels, plastics, wine, pharmaceuticals, and artificial blood. This is done using the latest knowledge of biology, chemistry and physics to ensure viable commercial production whilst minimising loss of materials and energy consumption. This value-adding must be safe, economical and environmentally sound. Materials engineering is concerned with the selection, processing and development of materials to design and make products. Materials - metals, alloys, ceramics, polymers and composites - give manufactured products their functional and aesthetic qualities. These two areas of engineering combine well because the properties of materials are often strongly affected by their processing. In addition, chemical processes are conducted in vessels, pumps, reactors and other equipment where the selection of the right materials of construction and material behaviour over time is very important. Chemical & Materials Engineers are ideally suited to work at this interface which is important for industry as well as cutting edge areas like biomaterials, nanotechnology and novel composites.

Chemical and Metallurgical Engineering

Chemical engineering is concerned with inventing, designing, and managing products and processes that transform raw materials into valuable products. This is done using the latest knowledge of biology, chemistry and physics to ensure viable commercial production whilst minimising loss of materials and energy consumption. This value-adding must be safe, economical and environmentally sound. Metallurgical engineering plays a key role in ensuring the sustainability of our modern society. Everything in our material world, even our major energy sources, is derived from minerals or recycled materials. It is the role of the metallurgical engineer to develop, design and operate processes that transform these low value raw materials into useful high value mineral and metal products. These two areas of engineering combine well because Metallurgical Eng is an extension of the fundamentals of Chemical Engineering. A specialisation in Chemical & Metallurgical Engineering gives students an advantage for employment in Australia's important resources sector whilst maintaining employment options in other industries. Metallurgical Engineering is an exciting field because the processing changes depending on the ore body and the challenges to continuously make minerals processing more sustainable.

Civil Engineering

The field is intended to deliver Civil Engineering graduates with the necessary skills and knowledge to develop a depth of knowledge across the Civil Engineering areas of: Water & Environmental; Structures; Transport; Geotechnical. Eligible students complete the first three years of the BE (Hons) (Civil Engineering) and then complete an additional two years of study where additional depth in the field is obtained. An 8-unit research project is taken across semester 1 & 2 of the final year and provides opportunity to undertake a significant research project. The 21st century is an era of great global and local challenges: climate change and the greenhouse effect, clean energy, reliable water supplies, infrastructure for booming populations, sustainable resource development, efficient and effective communications, to name but a few. These challenges create tremendous opportunities for a new generation of engineers. The BE(Hons)/ME in Civil Engineering will equip Civil engineers with the necessary skills to actively contribute to finding solutions to these challenges. Students will advance their Civil engineering knowledge and skills and demonstrate their learning through practice-focussed and advanced technical courses, experiential learning experiences, and research projects.

Civil and Fire Safety Engineering

Fire Safety influences every aspect of the built environment ' from the design of industrial facilities and skyscrapers to the materials chosen to create cars and aeroplanes. This program combines Civil Engineering with additional study in the specialist field of Fire Safety Engineering and will equip Civil Engineering students with the necessary fundamental skills and knowledge to develop a comprehensive Fire Safety Strategy for a broad range of projects. Areas of study will include the fundamental processes governing ignition, fire growth, and the response of structures to fire. The course program will also develop the design principles required for applying fire safety engineering in the built environment.

Electrical Engineering

Electrical engineering is concerned with electrical and electronic devices and systems. Electrical engineers work with equipment ranging from heavy power generators to tiny computer chips. Their work contributes to almost every sector of society: for example, home theatre entertainment systems, mobile phones, digital cameras and television to enhance our lifestyle, medical imaging systems for improved health care, electrical appliances for homes, scientific instruments for laboratories, lasers for reliable high speed communication, handheld multimedia devices to provide information on the move, and satellite systems for remote sensing of the environment and reliable mobile and fixed energy systems to power all of these. Electrical engineers usually work in one of six specialty areas: power generation and transmission; electronics; computers; communication systems; instrumentation and measurement; and automatic controls.

Electrical and Biomedical Engineering

The delivery of health care and the conduct of biomedical research are increasingly reliant on advances in technology. Biomedical Engineering bridges the gap between technology, medicine and biology. It integrates physical, chemical, mathematical and computational sciences and engineering principles with the ultimate aim of improving health care. This major builds on the first three years of the BE (Electrical & Biomedical) which progresses through a broad foundation of preparatory courses in engineering, mathematics, biology and physics, followed by more advanced coursework and laboratory training, where engineering analysis and design techniques are applied to biological systems and clinical problems.

Electrical and Computer Engineering

Most of the world's computers are embedded computers - computers that are hidden within cars, appliances, digital cameras, MP3 players, phones and other devices. Computer engineering is concerned with the design and management of computer-based systems, including embedded systems and more conventional computers such as personal computers (PCs) and personal digital assistants (PDAs). Electrical & Computer engineers have skills and knowledge in digital logic design, computer networks, embedded and desktop operating systems, microcontroller selection and programming, electronics, telecommunications and signal processing.

Mechanical Engineering

One of the broadest areas of engineering activity, mechanical engineers have a strong understanding of fundamental engineering science and mathematics and use this to design and maintain a wide range of machines and engineering systems. Mechanical engineers design and oversee the manufacture of machinery and equipment for all branches of industry, including major operations such as power plants. If failures occur, they analyse the cause of the failure and determine how to avoid this in the future. Mechanical Engineers develop methods for the economical combustion of fuels, the conversion of heat energy into mechanical power and the use of that power to perform useful work.

Mechanical and Aerospace Engineering

This program combines studies in mechanical engineering with additional specialist study and project work in the aerospace and aviation industry. Aerospace engineering is concerned with the design, manufacture and operation of aircraft, launch vehicles, satellites, spacecraft and ground support facilities. It is a particularly challenging discipline because of the need for light-weight but highly reliable aircraft and spacecraft. Cutting-edge technology and design are key in this field. Aerospace engineering projects tend to be multidisciplinary in nature because of the scientific content of many of the payloads and the complex thermo-physical aspects of hypervelocity atmospheric flight. All workers in this field must be adept at incorporating technology from outside their immediate specialty.

Mechanical and Materials Engineering

Graduates will be qualified mechanical engineers and materials engineers.

Mechanical engineers design and manufacture power plants, machinery and equipment for industry, and are expert in producing energy and converting it to other forms. They may design turbines, earthmoving machinery, food processors, air-conditioning and refrigeration systems, artificial hearts and limbs, and engines for aircrafts or automobiles. The demand for mechanical engineers is increasingly broad, as new industries emerge, and old industries take advantage of automation developments and new sources of energy.

Materials engineering covers materials design, properties and use of materials in manufactured articles. Mechanical engineering includes core courses in design, mathematics, modelling, computing, management and engineering science. The principal topics in mechanical engineering are fluid mechanics, thermodynamics and heat transfer, solid mechanics, manufacturing, energy systems, dynamics and control.

Mechatronic Engineering

Mechatronic engineering is one of the newest branches of engineering, and has far-reaching applications to every sector of society. Mechatronic engineers integrate precision mechanical engineering with electronics, computer systems, and advanced controls, to design and construct products and processes. Microscale sensor and actuator technologies are developed and applied to create intelligent consumer products. Mechatronic engineers are in great demand as industries seek to apply evolutionary advances in computers, electronics, sensors, and actuators to improve their products, processes and services.
Graduates have the knowledge and skills to design and build advanced products such as robots and machine tools; scientific instrumentation; and high performance automatic suspension and braking systems. Mechatronic engineers are employed by product developers and manufacturers, the mining industry, the aerospace and defence sectors, in self-owned companies and by government and industry research groups. Graduates are in demand wherever there is potential for improvement in the integration of computer and electrical hardware with mechanical systems.

Software Engineering

Software engineering is the systematic approach to the development, operation, maintenance and retirement of software; the controlling element of computer-based systems. As society becomes even more dependent on computers, one of the biggest challenges is the creation of new software necessary to make computers useful. Software engineering deals with the challenges associated with large-scale, high quality software: size and complexity, cooperation between developers, clients and users, and evolution of software over time to maintain its value. Software engineers use principles of computer science, engineering, design, management, psychology, sociology and other disciplines to design and manage large software systems. Team and individual projects are a focus of this plan, an approach valued by employers.

You should refer to the Program Rules for more information. Full definitions of majors are available in the Policies and Procedures Library.

Financial aid

As an international student, you might be eligible for financial aid – either from your home country, or from the Australian Government.

Find out more about financial aid, including scholarships and financial aid programs.

Indicative annual fee

AUD $45,120
Indicative fee 2020

The "indicative annual fee" is the cost of enrolling in the Bachelor of Engineering (Honours) and Master of Engineering for the 2020 academic year. It is calculated based on a standard full-time study load.

A standard full-time study load is 16 units per academic year.

If you enrol in a larger or smaller study load, your fees will be calculated on a proportionate basis.

All fees are reviewed annually.

Visit Tuition fees for more information.

Scholarships

International students are eligible to apply for a number of scholarships and prizes. These may be offered by the University, the Australian Government, foreign governments, or private organisations.

Many scholarships have specific eligibility criteria and are very competitive. More information, including information about how to apply, is available on the Scholarships website.

Additional application information

Admission is also available to current students via student application after completion of at least 16 units towards a BE(Hons) or BE(Hons) dual degree in a relevant discipline with a weighted GPA of at least 5.0.

Important dates

There are a number of dates and deadlines you need to meet when applying for university.

If you’re studying year 12 in Australia, a good resource is the QTAC website, which has information about the application process and closing dates. Note: what QTAC calls a “course” we call a "program".

If you’re applying directly to UQ, the closing date for the Bachelor of Engineering (Honours) and Master of Engineering is:

  • Direct Entry Applicants: Applications must be lodged via the Online Application Form by May 31 of the year of commencement to commence in semester 2; and by 30 November of the previous year to commence in semester 1. Internal Applicants: Apply via the Program Change Request on my Si-net, by the Friday before Orientation Week each Semester.

A full list of dates relevant to UQ students is available on the Student Matters Calendar.

How can we help?

Here's everything you need to get in touch with us.

Get in touch

We'll call at a time that's convenient for you
Request a Call

Ask a question

Send us your question and we'll get back to you
Ask

UQ in your country

Get in touch with an approved UQ agent near you
Find a UQ agent

Book an advisory session

Discuss your options with a student advisor
Book