Bachelor of Engineering (Honours) (Chemical and Sustainable Process)/Bachelor of Mathematics

5 Years On Campus Dual-bachelors Program

Queensland University of Technology

Program Overview

At Queensland University of Technology, this double degree combines advanced chemical and sustainable process engineering with high-level mathematical analysis, preparing students to solve complex industrial, environmental, and data-driven engineering challenges. It is ideal for students who enjoy analytical thinking, modelling, optimisation, and using mathematics to improve real engineering systems and sustainable technologies.

The program is primarily delivered at QUT’s Gardens Point Campus in Brisbane, Queensland, where students access engineering laboratories, mathematical computing facilities, and collaborative research-focused learning environments.

Curriculum Structure

Year 1

In the first year, students establish strong foundations in engineering science and mathematical reasoning. You’ll study introductory engineering concepts alongside core mathematics units such as calculus, linear algebra, and mathematical modelling, while engineering subjects introduce areas like chemistry for engineers and engineering physics. This year focuses on developing quantitative problem-solving skills essential for both engineering and applied mathematics.

Year 2

Year 2 builds technical depth across both disciplines. Engineering studies typically include thermodynamics, materials and process fundamentals, while mathematics expands into areas such as differential equations and statistical methods. You begin applying mathematical techniques to analyse engineering systems, industrial processes, and sustainability-focused challenges.

Year 3

In Year 3, learning becomes increasingly specialised and applied. Engineering coursework progresses into chemical reaction engineering and process systems engineering, while mathematics subjects may include numerical methods, optimisation, and advanced modelling techniques. Students begin integrating computational mathematics with engineering process design and systems analysis.

Year 4

This year focuses on advanced engineering systems and mathematical applications. You’ll study topics such as sustainable process design, process control, and systems optimisation, alongside higher-level mathematics supporting predictive modelling and complex analysis. Collaborative project work reflects real industry and research-style engineering problems.

Year 5

In the final year, students complete major capstone and research-oriented projects integrating engineering and mathematics. These projects often involve modelling sustainable industrial systems, analysing large-scale process data, or optimising chemical production systems using advanced mathematical techniques. Graduates leave with strong analytical, computational, and engineering expertise.

Focus Areas

Chemical process engineering, sustainable systems, mathematical modelling, optimisation, statistical analysis, computational mathematics, process control, and industrial systems engineering.

Learning Outcomes

Graduates develop advanced capability in analysing and designing sustainable engineering systems using mathematical and computational methods. You’ll gain strong quantitative, modelling, and technical problem-solving skills suited to engineering, research, analytics, and technology-driven industries.

Professional Alignment (Accreditation)

The engineering honours component is aligned with accreditation requirements from Engineers Australia, supporting professional engineering recognition in Australia and internationally.

Reputation (Employability & Rankings)

Queensland University of Technology is recognised for strong graduate employability, industry engagement, and applied research strengths across engineering and STEM disciplines. QUT consistently performs well in international rankings such as the QS World University Rankings for employer reputation and graduate outcomes.

Experiential Learning (Research, Projects, Internships etc.)

At Queensland University of Technology, this double degree gives students extensive practical exposure to both engineering systems and advanced mathematical applications through laboratory work, computational modelling, and industry-focused projects. You’ll apply mathematical methods directly to real engineering challenges such as process optimisation, sustainability analysis, and systems modelling while working in QUT’s modern engineering and STEM facilities at the Gardens Point Campus. Learning is highly applied, helping students build strong analytical, computational, and technical problem-solving skills throughout the degree:

Chemical & Sustainable Process Engineering Laboratories : Hands-on work with thermodynamics systems, fluid mechanics, chemical reaction processes, and sustainable engineering experiments using industry-relevant laboratory equipment.
Mathematical Computing & Modelling Facilities : Access to advanced computing environments for numerical analysis, optimisation, statistical modelling, and engineering simulation projects.
Engineering Simulation Software : Use of professional engineering and modelling tools for process simulation, systems analysis, and sustainable process optimisation.
Programming & Data Analysis Tools : Training in computational mathematics, coding environments, and analytical software used for engineering calculations, modelling, and large-scale data interpretation.
Interdisciplinary Group Projects : Collaborative project work where students combine engineering design with mathematical modelling to solve complex industrial and environmental challenges.
Industry-Focused Capstone Projects : Final-year projects involving process optimisation, sustainability modelling, systems engineering, or predictive analysis for real-world engineering applications.
Research & Innovation Institutes : Opportunities to engage with QUT research strengths through facilities such as the Institute for Future Environments, supporting sustainable systems and advanced engineering research.
Engineering Design & Process Facilities : Exposure to systems used for process design, energy efficiency studies, and engineering analysis relevant to modern manufacturing and sustainability sectors.
Libraries & STEM Learning Resources : Access to QUT’s specialised engineering, mathematics, and scientific databases, journals, technical standards, and digital research tools supporting coursework and research projects.

This practical combination of engineering experimentation and advanced mathematical analysis ensures graduates are highly prepared for technical, research, and data-driven engineering careers.

Progression & Future Opportunities

Graduates of the Queensland University of Technology Bachelor of Engineering (Honours) (Chemical and Sustainable Process) / Bachelor of Mathematics are highly valued for their ability to combine advanced engineering knowledge with strong analytical and quantitative problem-solving skills. This combination prepares students for careers in industries focused on sustainability, advanced manufacturing, energy systems, data analysis, and industrial optimisation.

Typical career pathways include chemical engineer, process systems engineer, data and modelling analyst, sustainability engineer, and operations optimisation specialist.

With this strong technical and analytical background:

QUT Career & Employability Support : Students have access to personalised career coaching, resume and interview workshops, employer networking events, internship preparation, and graduate recruitment programs through QUT’s employability services.
Industry-Integrated Learning : Work-integrated learning opportunities, industry projects, and engineering capstone experiences help students gain practical exposure before graduation.
Research & Industry Partnerships : QUT collaborates with organisations across engineering, sustainability, advanced manufacturing, and technology sectors, supporting real-world research and project engagement.
Strong Quantitative Career Demand : Graduates with engineering and mathematics expertise are well positioned for industries increasingly reliant on modelling, optimisation, automation, and sustainable systems analysis.
Professional Accreditation Advantage : The engineering honours component aligns with Engineers Australia accreditation standards, supporting long-term professional recognition and international engineering mobility.
Graduate Salary Outlook (Australia – indicative) : Graduates entering chemical engineering, systems engineering, analytics, and technical modelling roles commonly begin with salaries around AUD $70,000–$95,000+ per year, with strong long-term growth potential in technical and leadership positions.
Graduate Outcomes : QUT graduates are recognised for strong employability outcomes and practical industry readiness, particularly in engineering, STEM, and applied technology sectors.

Further Academic Progression:
After graduation, students may continue into advanced study such as a Master of Engineering, Master of Data Science, Master of Applied Mathematics, Master of Sustainable Energy, or doctoral research (PhD). These pathways support careers in advanced research, technical consulting, industrial innovation, computational modelling, and academic or scientific leadership roles.