Bachelor of Science in Chemical Engineering Systems

3 Years On Campus Bachelors Program

University of Melbourne

Program Overview

University of Melbourne’s Bachelor of Science with a major in Chemical Engineering Systems combines advanced scientific knowledge with engineering problem-solving to prepare students for careers in energy, manufacturing, sustainability, and industrial process design. The program is ideal for students interested in chemistry, mathematics, systems engineering, and developing innovative solutions for complex industrial and environmental challenges.

Students study chemical processes, thermodynamics, fluid mechanics, and systems modelling while developing strong analytical, technical, and research skills relevant to modern engineering industries.

Curriculum Structure

Year 1

In the first year, students build strong foundations in science, mathematics, and engineering principles through subjects such as Calculus 2, Chemistry 1, and Engineering Systems Design. Students learn core concepts in problem-solving, scientific analysis, and engineering thinking while developing practical laboratory and computational skills. The year also introduces teamwork and communication skills essential for engineering practice.

Year 2

Year two focuses on developing technical engineering knowledge and process analysis capabilities. Students study units including Fluid Mechanics, Thermodynamics, and Numerical Methods in Engineering, learning how energy, heat transfer, and industrial systems operate within chemical engineering environments. Practical exercises and systems modelling strengthen analytical and engineering design skills.

Year 3

In the final year, students deepen their expertise in chemical engineering systems and industrial applications. Subjects such as Process Control, Transport Processes, and Chemical Engineering Design develop advanced understanding of process optimisation, industrial safety, and sustainable engineering solutions. Students also undertake project-based learning that integrates scientific theory with real-world engineering challenges.

Focus Areas

Chemical engineering systems, thermodynamics, fluid mechanics, process engineering, transport processes, systems modelling, industrial design, sustainability, process control, engineering analysis.

Learning Outcomes

Graduates will be able to analyse and design chemical engineering systems, apply scientific and mathematical principles to industrial processes, and develop innovative engineering solutions for complex technical challenges. Students also gain strong problem-solving, teamwork, research, and communication skills relevant to global engineering industries.

Professional Alignment (Accreditation)

The Chemical Engineering Systems major provides strong preparation for postgraduate engineering pathways and professional engineering careers. Students commonly continue into accredited engineering qualifications such as the Master of Engineering (Chemical) to meet professional engineering accreditation requirements in Australia.

Reputation (Employability & Rankings)

University of Melbourne is internationally recognised for excellence in science, engineering, and research education and is consistently ranked among the world’s leading universities. Its engineering and technology disciplines are highly regarded globally, supporting strong graduate employability and industry recognition across engineering and scientific sectors.

Experiential Learning (Research, Projects, Internships etc.)

At University of Melbourne, the Bachelor of Science majoring in Chemical Engineering Systems combines scientific theory with practical engineering application to help students develop real-world technical and analytical skills. Students gain hands-on experience through laboratory work, engineering design projects, computational modelling, and collaborative problem-solving activities that reflect modern industrial engineering environments. The program also exposes students to advanced engineering technologies and research-informed learning within one of Australia’s leading science and engineering universities:

Engineering and Process Laboratories : Students participate in practical laboratory sessions involving fluid mechanics, thermodynamics, transport processes, and chemical systems analysis.
Engineering Design Projects : Project-based learning allows students to work collaboratively on solving engineering and industrial process challenges using scientific and engineering principles.
Computational and Modelling Software : Students develop technical skills using engineering mathematics, simulation tools, and computational modelling techniques relevant to chemical engineering systems.
Hands-On Experimental Learning : Laboratory experiments strengthen understanding of process optimisation, heat transfer, energy systems, and industrial operations.
Collaborative Teamwork Experience : Group engineering projects and technical presentations help students build communication, teamwork, and professional engineering skills.
Research-Led Learning Environment : Students benefit from exposure to world-class engineering and scientific research conducted within the university’s engineering and science faculties.
Advanced Engineering Facilities : Access to modern engineering laboratories, scientific equipment, and innovation-focused learning spaces that support practical engineering education.
Digital Learning Platforms and Technical Resources : Students use online engineering resources, scientific databases, and digital learning systems to support computational and technical study.
Libraries and Engineering Research Collections : Access to extensive engineering journals, technical publications, and scientific databases through the University of Melbourne library network.
Industry and Professional Exposure : Engineering-focused learning activities and applied projects help students develop industry-relevant problem-solving and technical capabilities for future professional pathways.

Progression & Future Opportunities

Graduates of the Bachelor of Science (Chemical Engineering Systems) at the University of Melbourne are prepared for careers in chemical, energy, materials, and process engineering industries, as well as roles in sustainability, manufacturing, and industrial research. The program develops strong analytical and systems-thinking skills that allow graduates to contribute to solving large-scale engineering and environmental challenges.

Graduates commonly pursue roles such as Process Engineer, Chemical Engineer (via further study pathway), Systems Engineer, Energy Analyst, Manufacturing Engineer, or Industrial Research Assistant across engineering consultancies, energy companies, and advanced manufacturing sectors:

Melbourne Careers & Employability Support : Students access career counselling, internship guidance, employer networking events, resume/interview preparation, and industry mentoring through the University of Melbourne’s career services.
Industry-Linked Engineering Learning : The program is connected to real engineering challenges through project-based learning and exposure to industry-relevant systems thinking and design applications.
Strong Global Graduate Outcomes : Engineering graduates from the University of Melbourne are highly regarded internationally due to the university’s global reputation in science and engineering education.
Research and Innovation Strength : The university’s strong engineering research environment supports innovation in chemical systems, sustainability, energy, and advanced manufacturing.
Industry Engagement and Partnerships : Students benefit from engagement with engineering and science industries through applied learning experiences and research collaborations supported by the Faculty of Science and Engineering.
Long-Term Professional Development Pathway : The program provides a strong foundation for progression into accredited professional engineering qualifications required for chartered engineering careers.
Transferable Technical and Analytical Skills : Graduates gain strong problem-solving, modelling, and systems analysis skills applicable across multiple engineering and technology sectors.
Global Career Mobility : The University of Melbourne’s engineering reputation supports international employability across energy, chemical, and industrial engineering sectors worldwide.

Salary outcomes vary depending on role, experience, and industry sector, but engineering graduates typically benefit from strong earning potential and long-term career growth opportunities in Australia and internationally.

Further Academic Progression:
After completing this program, graduates typically progress into the Master of Engineering (Chemical), Master of Engineering Science, or other accredited engineering master’s degrees required for professional engineering registration in Australia. Students may also pursue research pathways such as a Master of Philosophy (MPhil) or PhD in Chemical Engineering, Process Systems Engineering, or related fields.