Bachelor of Engineering (Honours) (Chemical engineering)

4 Years On Campus Bachelors Program

Monash University

Program Overview

The Bachelor of Engineering (Honours) (Chemical Engineering) at Monash University is designed for students who want to understand how raw materials are transformed into essential products used in energy, pharmaceuticals, food, and manufacturing industries. It suits students who enjoy chemistry, mathematics, and problem-solving, and want to build solutions for large-scale industrial and environmental challenges.

Curriculum Structure

Year 1

In the first year, students build a strong foundation in engineering science and chemistry through introductory studies such as Engineering Mathematics, Chemistry for Engineering, and Introduction to Engineering Practice. This stage focuses on developing core scientific thinking and understanding how chemical engineering applies to real-world systems.

Year 2

Year 2 introduces key chemical engineering principles where students typically study Material and Energy Balances, Thermodynamics, and Fluid Mechanics. These subjects help students understand how chemical processes operate, move, and transform in industrial systems, supported by early design-based learning.

Year 3

In the third year, learning becomes more specialised with subjects such as Reaction Engineering, Heat and Mass Transfer, and Process Control. Students begin applying theory to more complex industrial scenarios, including system optimisation and chemical plant performance.

Year 4

The final year focuses on advanced design and professional engineering practice, including Process Design, Separation Processes, and Engineering Project work (capstone design project). Students work on large-scale engineering problems, often in team-based environments that simulate real industry conditions.

Focus Areas:

Process engineering, chemical reaction systems, energy and sustainability, industrial process design, materials transformation, and environmental engineering.

Learning Outcomes:

Graduates develop the ability to design, analyse, and optimise chemical processes, while applying engineering principles to solve challenges in energy production, manufacturing, and sustainable development.

Professional Alignment (Accreditation):

The degree is accredited by Engineers Australia, ensuring international recognition and eligibility for professional engineering pathways in Australia and globally.

Reputation (Employability & Rankings):

Monash University is consistently ranked among the top universities globally for engineering, with strong graduate employability outcomes and recognition from international industry partners across energy, resources, and advanced manufacturing sectors.

Experiential Learning (Research, Projects, Internships etc.)

At Monash University, Chemical Engineering is built around hands-on engineering practice from the early years, where students learn to think like real process engineers by working directly with industrial-grade systems, simulation tools, and research environments. The program places strong emphasis on translating theory into practice through laboratory experimentation, design projects, and industry-linked learning experiences. Students regularly work in collaborative teams to solve open-ended engineering problems that reflect real chemical, energy, and manufacturing challenges:

Experiential Learning (labs, tools, industry training, and real engineering practice):

Chemical Engineering Laboratories : Practical training in thermodynamics, fluid mechanics, heat transfer, and reaction engineering using modern lab-scale and pilot-scale equipment to simulate industrial chemical processes.
Process Simulation Software (Industry Tools) : Training in professional engineering software such as Aspen Plus/Aspen HYSYS and MATLAB, used for modelling chemical plants, optimising processes, and analysing industrial systems.
Industry-Based Learning (IBL) Program : A structured paid internship program where students gain real engineering work experience in companies across energy, manufacturing, pharmaceuticals, and resources sectors.
Capstone Design Projects : Final-year team-based engineering projects where students design full chemical process systems, often based on real industrial problems provided by industry partners.
Monash Engineering Design Studios : Collaborative learning spaces where students work in teams to design, test, and present engineering solutions in an industry-style environment.
Research-Active Engineering Laboratories : Access to advanced chemical and biochemical engineering research facilities working in areas such as sustainable energy, process intensification, and environmental engineering.
Industry Engagement & Site Exposure : Opportunities for industry interaction through guest lectures, site visits, and project collaborations with engineering and manufacturing companies.
Group-Based Problem Solving : Continuous team projects across units where students work collaboratively on process design, safety analysis, and optimisation challenges.
Monash Library & Digital Engineering Resources : Access to engineering databases, technical journals, simulation resources, and digital learning platforms supporting advanced research and design work.

Progression & Future Opportunities

Graduates of the Bachelor of Engineering (Honours) (Chemical Engineering) at Monash University are prepared to enter high-demand industries where chemical processes, energy systems, and large-scale manufacturing play a central role. You graduate with strong technical capability in designing and optimising industrial systems, making you well-suited for roles such as Process Engineer, Chemical Engineer, Production Engineer, and Energy Systems Engineer.

Career progression & industry outcomes:

Monash employability services: Students are supported through Monash Talent & Career Services, which provides career coaching, internship placement support, employer networking events, resume development, and technical interview preparation specifically for engineering students.
Employment outcomes & salary outlook: Monash engineering graduates consistently achieve strong full-time employment outcomes in national graduate surveys, with chemical engineering graduates typically entering well-paid roles in sectors such as energy, mining, pharmaceuticals, and advanced manufacturing.
Industry partnerships & real-world exposure: The program is strongly connected to industry through Monash’s Industry-Based Learning (IBL) program and partnerships with major companies in engineering, energy, and resources, providing structured work placements and project collaboration opportunities.
Professional accreditation value: The degree is accredited by Engineers Australia, ensuring international recognition and eligibility for professional engineering pathways and global mobility.
Graduation outcomes: Graduates develop advanced skills in process design, systems optimisation, and sustainable engineering practice, enabling them to work across traditional chemical industries and emerging clean energy and biotechnology sectors.

Further Academic Progression:
After graduation, students can continue into postgraduate pathways such as a Master of Advanced Engineering, Master of Professional Engineering, Master of Engineering Science, or research degrees (MPhil/PhD). These pathways allow further specialisation in areas such as sustainable energy systems, process engineering, materials engineering, and advanced chemical process innovation.