Bachelor of Chemical Engineering and Bachelor of Science

5 Years On Campus Bachelors Program

Monash University

Program Overview

The Bachelor of Chemical Engineering and Bachelor of Science at Monash University is designed for students who want to combine the practical problem-solving skills of engineering with the scientific depth of a science degree. It’s an excellent choice for students who enjoy chemistry, mathematics, innovation, and research, and want to build solutions that can improve industries, sustainability, healthcare, and global technology.

Curriculum Structure

Year 1

In your first year, you build the academic foundation needed for both engineering and science. You’ll study core units such as Engineering methods, Engineering design, and Mathematics for engineering, while also beginning your science studies through foundational subjects like Chemistry, Physics, or Biology, depending on your chosen science pathway. This year focuses on understanding scientific principles, problem-solving, and how engineering connects with society through real-world applications.

Year 2

In the second year, your studies become more specialised as you move deeper into chemical engineering and your chosen science major. You’ll explore subjects such as Chemical process analysis, Material and energy balances, and Thermodynamics, while continuing advanced science studies in areas such as chemistry, biochemistry, environmental science, or computational science. This stage helps you connect scientific theory with engineering systems and industrial processes.

Year 3

By third year, you begin tackling more complex engineering challenges and applied scientific investigations. Units such as Fluid mechanics, Heat and mass transfer, and Chemical engineering design help you understand how industrial systems operate, while your science units deepen your expertise in your chosen discipline. You also start developing stronger analytical, research, and project-based skills.

Year 4

In fourth year, you work on advanced engineering applications, large-scale design projects, and industry-focused problem solving. You’ll study areas like Process control, Reaction engineering, and Process systems engineering, while integrating scientific research methods into your learning. This year develops leadership, teamwork, and professional engineering practice.

Year 5

In your final year, you complete major design and research projects that bring together everything you’ve learned. Through advanced engineering project work, scientific analysis, and professional development activities, you graduate with the ability to solve complex technical challenges across multiple industries. Students are also required to complete professional development experience during the degree.

Focus Areas

Chemical engineering, process engineering, thermodynamics, reaction engineering, materials science, analytical science, environmental systems, scientific research

Learning Outcomes

Engineering design and innovation, advanced scientific analysis, process optimisation, critical thinking, laboratory research skills, teamwork, communication, data interpretation, and professional problem-solving

Professional Alignment (Accreditation)

The engineering component of this degree is professionally aligned with industry standards and is designed around the competencies expected by engineering professionals. Students also complete 420 hours of continuous professional development throughout the course, helping build real industry readiness.

Reputation (Employability Rankings)

Monash University is internationally recognised as a leading research-intensive university, with strong employer recognition across engineering, science, technology, and research sectors. Its strong industry links, research culture, and practical learning opportunities help graduates build competitive global careers.

Experiential Learning (Research, Projects, Internships etc.)

At Monash University, the Bachelor of Chemical Engineering and Bachelor of Science is designed around practical, real-world learning from day one. Students don’t just learn engineering and science concepts in lectures—they apply them in advanced laboratories, pilot plants, design studios, and collaborative project spaces that reflect real industry environments. Throughout the degree, students work with professional research equipment, digital engineering tools, and multidisciplinary teams, helping them build both technical expertise and workplace confidence:

Access to the Chemical Student Pilot Plant, where students gain hands-on experience with real chemical process systems and modern process technologies
Training in chemical and biological engineering laboratories equipped with advanced research tools such as chromatography systems, X-ray analysis equipment, microscopy tools, and particle measurement instruments
Learning inside the Alan Finkel Building for Technology and Design, which features purpose-built engineering labs, innovation spaces, and collaborative project areas
Opportunities to use the Monash Makerspace, where students design, prototype, test, and build engineering solutions in team environments
Participation in group design projects that mirror real engineering and scientific challenges, helping students develop teamwork, communication, and project management skills
Access to major research centres and scientific facilities including electron microscopy, advanced materials analysis, and engineering research platforms
Industry-focused learning through professional development activities, engineering projects, and exposure to industry collaborations
Practical science laboratory experience within chosen science specialisations such as chemistry, biology, environmental science, or materials science

These experiences help students graduate with strong technical knowledge, practical research experience, and the confidence to succeed in engineering, science, and innovation-driven industries.

Facilities information available on Monash Engineering and Monash Science official facilities pages.

Progression & Future Opportunities

Graduates of the Bachelor of Chemical Engineering and Bachelor of Science at Monash University develop a powerful combination of engineering knowledge and scientific expertise, creating opportunities across industries such as energy, pharmaceuticals, biotechnology, advanced manufacturing, environmental sustainability, and research. Depending on their chosen science specialisation, graduates often move into careers as chemical engineers, process engineers, research scientists, environmental consultants, or product development specialists. This combination of technical skills, scientific thinking, and industry exposure gives students a strong foundation for both immediate career opportunities and long-term professional growth:

Monash supports student employability through Career Connect, engineering career workshops, industry mentoring, resume support, interview preparation, and employer networking opportunities that help students build professional confidence before graduation
Engineering graduates in Australia continue to be among the highest-paid early career professionals, offering strong long-term earning potential and career stability
Students benefit from Monash’s strong industry and research partnerships, including collaborations with leading organisations such as CSIRO and major engineering and technology partners
The chemical engineering component of the degree is professionally accredited by Engineers Australia and the Institution of Chemical Engineers, giving graduates internationally recognised credentials and global career mobility
Monash Engineering has a strong international reputation for graduate employability, research excellence, and employer recognition across engineering, science, and technology sectors

Further Academic Progression:
After completing this degree, students can continue into honours study, specialised master’s programs in engineering or science, or research-based postgraduate degrees such as a PhD. Graduates may also choose to specialise further in areas such as sustainable engineering, biotechnology, materials science, process systems, or advanced scientific research depending on their long-term career goals.