Bachelor of Engineering (Adv Manufacturing & Mechatronics)(Hons)/Bachelor of Business

5 Years On Campus Bachelors Program

RMIT University

Program Overview

This is a five‑year double degree that blends deep technical engineering expertise in automation, mechatronics and advanced manufacturing with solid business knowledge across management, supply chain, and finance. It’s ideal for students who want to design smart manufacturing systems and understand how to bring them to market or run them profitably.

Curriculum Structure

Year 1
In the first year, you build a foundation in both engineering and business. You take core engineering subjects like Introduction to Professional Engineering Practice (which includes the Engineers Without Borders Challenge), Engineering Science, Digital Fundamentals and Engineering Mathematics. On the business side, you'll study introductory business principles, economics, and business environments — giving you a strong dual grounding right from the start.

Years 2 & 3
Through these middle years, your engineering studies deepen into electronics, computing, mechatronics, and control systems. Simultaneously, you pursue business majors or minors — such as economics, finance, international business, or supply chain — mixing technical engineering know‑how with commercial insight.

Year 4
By the fourth year, you’re working on advanced topics in mechatronics: Automatic Control Systems for autonomous systems, Advanced Materials, and Simulation and Analysis of Manufacturing Systems. You can also choose a minor to specialize further — for instance in Intelligent Manufacturing Technologies, Humanitarian Innovation, or Robotics & Mechatronics.

Year 5
In your final year, you complete a capstone project that integrates both engineering and business: you might develop a mechatronic system and conduct a business feasibility study or market analysis for it. You also continue with upper-level business coursework, and you may present your project at RMIT’s EnGenius student showcase.

Additionally, throughout Years 2–5, you have opportunities for work‑integrated learning (industry placements) that give you real-world experience.

Focus Areas

Mechatronics & robotics
Automation & control systems
Advanced manufacturing processes
Business management & international business
Supply chain, finance, and entrepreneurship

Learning Outcomes

Design, simulate, and build intelligent mechatronic systems
Apply manufacturing engineering techniques for advanced production
Analyze business models, financial viability, and market strategy
Lead cross-disciplinary teams combining technical and business perspectives
Engage in professional practice and reflect on ethical, social, and humanitarian engineering challenges

Professional Alignment (Accreditation)

This degree is professionally accredited by Engineers Australia, so when you graduate, you’re eligible for graduate or professional membership.

Because Engineers Australia is a signatory to the Washington Accord, your engineering qualification is internationally recognised, which opens global career pathways.

Reputation & Employability

RMIT places a strong emphasis on industry‑aligned learning: you study in state-of-the-art facilities (like the Advanced Manufacturing Precinct), do capstone projects with real companies, and can take industry placements.
According to RMIT’s employability foci, this program has specific “Intelligent, Automated and Autonomous Systems” courses — for example, Computer Integrated Manufacturing (MANU1418) and Automated System Design (MANU2230), preparing you for current and future industry demands.
For entry, the 2025 ATAR profile shows the BH086 double degree has a competitive score, underlining its demand and quality.

Why This Program Could Be a Great Fit for You

Versatility: You’ll graduate not just as an engineer, but also with business acumen — putting you in a position to lead or innovate in tech companies.
Hands-on, real-world experience: Through capstone and industry placements, you'll solve practical problems, not just write essays.
Strong career prospects: Automation, robotics, and advanced manufacturing are growing fast — and with business skills, you're not limited to purely technical roles.
Accreditation & global recognition: Your qualification is internationally respected, so you can work in many countries.

Experiential Learning (Research, Projects, Internships etc.)

In this double degree, you won’t just be learning theory — you’ll be diving into engineering and business from day one. Through hands-on labs, real-world projects, and strong industry partnerships, you’ll develop the practical skills that employers truly value. RMIT’s Advanced Manufacturing Precinct gives you access to world-class facilities, where you can work with the latest automation, robotics, and additive manufacturing technologies. At the same time, you’ll explore business strategies and tools that prepare you to lead in global manufacturing environments.

You’ll also benefit from RMIT’s vibrant research ecosystem in manufacturing, materials, and mechatronics engineering. The program connects you with active research groups like the Centre for Additive Manufacturing, the Intelligent Automation Research Group, and the Materials Modelling and Simulation Group. These groups use specialized facilities such as microscopy and microanalysis labs, computational materials design labs, and advanced manufacturing workshops — giving you real opportunities to apply your skills in cutting-edge research.

Alongside technical training, you’ll take part in RMIT’s signature Engineers Without Borders Challenge — a humanitarian-focused design experience that lets you apply engineering thinking to real-world social problems. All of this creates a learning environment where theory meets practice, preparing you for real engineering and business challenges from day one.

Here’s how you’ll gain hands-on experience throughout the program:

Work in the Advanced Manufacturing Precinct, using automation technology, robotics, and additive manufacturing systems.
Collaborate with RMIT’s research groups and centres, like the Centre for Additive Manufacturing, Intelligent Automation Research Group, and Materials Modelling and Simulation Group.
Use specialized labs, such as the Microscopy and Microanalysis Facility and the Computational Materials Design Laboratory, for simulation, materials analysis, and micro-engineering projects.
Engage in capstone projects in your final year, designing and developing mechatronic systems while exploring new markets for your innovations — blending technical know-how with business insight.
Take part in Work-Integrated Learning (WIL) electives, completing industry placements in Year 2, 3, or 4 to gain real-world experience.
Join the Engineers Without Borders Challenge to gain humanitarian engineering experience and apply your skills to social impact projects.
Explore international opportunities through study abroad or work exchange programs, leveraging RMIT’s partnerships with over 165 universities worldwide.

This isn’t just a course — it’s a launchpad for a career where you can lead innovation in manufacturing, automation, and business, equipped with both practical skills and global perspective.

Progression & Future Opportunities

Graduates of this double degree are uniquely positioned to stand out in the workforce. They combine strong technical expertise in mechatronics and advanced manufacturing with solid business skills, making them highly employable and ready for leadership roles in global engineering and manufacturing industries. They are equipped to drive innovation in smart systems and contribute to shaping the future of technology-driven businesses.

Typical job roles
Graduates often step into roles such as:

Mechatronics or automation engineer
Production or manufacturing manager
Project manager in engineering-led firms
Operations or global supply chain analyst

Detailed insights

University support for employment
RMIT strongly supports work-integrated learning. Students complete at least 10 weeks of hands-on engineering experience, with options for 6‑ or 12‑month paid placements, locally or abroad.

In the final year, students work on a capstone project—either industry-based or simulated—solving real-world engineering and business challenges.

The RMIT Careers and Employability Service assists students with internships, mentoring, and networking opportunities with industry, helping students transition smoothly into professional roles.

Industry partnerships & real-world exposure
Both the School of Engineering and the College of Business maintain close ties with industry through advisory committees, ensuring the curriculum meets employer needs.

Students can participate in initiatives like the Engineers Without Borders Challenge Scholarship, working on meaningful engineering projects alongside industry partners.

RMIT’s global network offers international exchanges or placements through over 165 partner universities, and programs such as the International Industry Experience & Research Program.

Professional recognition & accreditation
The engineering component of this degree (Advanced Manufacturing & Mechatronics) is fully accredited by Engineers Australia, qualifying graduates for professional membership.

Because Engineers Australia is part of the Washington Accord, the degree enjoys international recognition, enhancing global career mobility.

Graduate outcomes & employability
This double degree prepares graduates not just for technical roles but also for leadership positions. By blending engineering expertise with business knowledge, graduates can effectively bridge technical innovation and strategic business thinking.

RMIT’s strong industry connections often turn student placements or project work into full-time employment. While course-specific salary data isn’t public, RMIT reports high placement rates overall, with undergraduates typically starting around AUD 66,800.

Further academic progression
After completing this degree, students can pursue postgraduate studies. RMIT offers relevant programs such as the Master of Engineering (Robotics and Mechatronics), which provides advanced learning in mechatronic system design, robotics, control systems, and multidisciplinary project work.