Bachelor of Science (Advanced Mathematics) (Honours) / Bachelor of Engineering (Honours)(Chemical Product Engineering)

6 Years On Campus Dual-bachelors Program

University of New South Wales

Program Overview

The UNSW Sydney Bachelor of Science (Advanced Mathematics) (Honours) / Bachelor of Engineering (Honours) (Chemical Product Engineering) is a high-level dual degree that combines rigorous mathematical theory with advanced chemical engineering practice, preparing students to solve complex industrial, scientific, and technological problems. It is designed for students who are highly analytical and want to work at the intersection of mathematical modelling, engineering systems, and industrial innovation.

The program is delivered at UNSW’s Kensington Campus in Sydney, Australia, where students learn across advanced engineering laboratories, mathematics and computational science facilities, research institutes, and interdisciplinary innovation spaces connected to global industry and academic networks.

Curriculum Structure

Year 1

In the first year, students build strong foundations in mathematics, physics, chemistry, and engineering principles. Core studies typically include Mathematics 1A, Mathematics 1B, Engineering Design and Innovation, and Chemistry for Engineers. This year focuses on developing analytical thinking, problem-solving skills, and an introduction to engineering systems and mathematical reasoning.

Year 2

Year 2 strengthens core engineering and mathematical capability through subjects such as Fluid Mechanics, Thermodynamics, Linear Algebra, and Differential Equations. Students begin applying mathematical modelling to real engineering systems, linking theoretical concepts with chemical process analysis and system behaviour.

Year 3

In Year 3, students progress into advanced chemical engineering and higher-level mathematics. Engineering units include Heat and Mass Transfer, Chemical Reaction Engineering, and Process Systems Engineering, while mathematics focuses on areas such as probability, statistics, and numerical methods. This stage emphasises modelling, simulation, and analytical problem-solving in complex systems.

Year 4

The fourth year focuses on advanced engineering design and applied mathematical modelling. Students study Process Control, Process Plant Design, and Engineering Project Management, alongside advanced mathematics subjects such as optimisation and computational methods. Learning becomes highly applied, integrating mathematical theory with real industrial engineering systems.

Year 5–6 (Honours & Advanced Specialisation)

The final stage includes honours-level mathematics research and chemical engineering capstone work. Students complete a Mathematics Honours Thesis and a Chemical Engineering Capstone Design or Research Project, often involving industry-linked or research-intensive challenges. This phase develops advanced research capability, technical leadership, and interdisciplinary expertise.

Focus Areas

Advanced mathematics, mathematical modelling, chemical engineering systems, process optimisation, computational engineering, industrial analytics, thermodynamics, reaction engineering, and systems design.

Learning Outcomes

Graduates gain the ability to apply advanced mathematical methods to complex chemical engineering problems, design and optimise industrial systems, and develop innovative solutions using computational and analytical tools. Students build strong research, modelling, engineering design, and problem-solving capabilities suited to high-level technical careers.

Professional Alignment (Accreditation)

The Bachelor of Engineering (Honours) (Chemical Product Engineering) component is accredited by Engineers Australia, ensuring international recognition under the Washington Accord framework.

Reputation (Employability & Rankings)

UNSW Sydney is globally recognised for excellence in engineering and mathematics, consistently ranked among the world’s top universities for engineering, mathematics, and technology disciplines, with strong graduate employability outcomes.

Experiential Learning (Research, Projects, Internships etc.)

At UNSW Sydney, the Bachelor of Science (Advanced Mathematics) (Honours) / Bachelor of Engineering (Honours) (Chemical Product Engineering) is built around deep theoretical learning combined with intensive hands-on engineering practice and advanced computational problem-solving. Students study at the Kensington Campus in Sydney, where they have access to world-class engineering laboratories, mathematics and computational science facilities, and interdisciplinary research environments that support both rigorous mathematical modelling and real industrial engineering applications. Learning is highly practical, research-driven, and strongly connected to industry needs in data, systems, and chemical process innovation.

Students develop real-world skills through:

Chemical Engineering Laboratories : Hands-on experiments in thermodynamics, reaction engineering, fluid dynamics, process systems, and materials behaviour using advanced laboratory instrumentation and industrial-grade equipment.
Advanced Mathematics & Computational Labs : Access to computational tools and environments used for numerical analysis, mathematical modelling, optimisation, and simulation of complex systems.
Engineering Simulation & Process Design Software : Industry-standard software used for process modelling, chemical plant design, system optimisation, and engineering data analysis.
Mathematical Modelling & Data Analysis Tools : Use of programming environments and analytical platforms for solving complex engineering and scientific problems using advanced mathematical techniques.
Research-Integrated Learning : Engagement with engineering and mathematics research projects linked to optimisation, sustainability, industrial systems, and advanced computational modelling.
Industry-Based Engineering & Maths Projects : Collaborative projects where students apply both mathematical theory and engineering principles to real-world chemical and industrial problems.
Honours Research Thesis & Capstone Engineering Project : Final-year advanced research combining mathematical modelling with chemical engineering design, often linked to industry or research institutes.
Internship & Industry Engagement Opportunities : Access to internships, industry mentoring, and professional networking programs across engineering, data science, consulting, and technology sectors.
Research Centres & Innovation Hubs : Connection to UNSW research institutes focused on sustainability, advanced materials, chemical processes, data science, and engineering innovation.
Collaborative Learning & Problem-Solving Spaces : Shared environments for group projects, interdisciplinary collaboration, and engineering design development.
Libraries & Academic Research Resources : Access to extensive engineering journals, mathematical databases, scientific publications, and global research resources.

These experiences ensure graduates develop strong analytical, computational, and engineering design capabilities, preparing them for high-level roles in both technical industry and research-driven environments.

Progression & Future Opportunities

Graduates of the UNSW Sydney Bachelor of Science (Advanced Mathematics) (Honours) / Bachelor of Engineering (Honours) (Chemical Product Engineering) are highly sought after for their rare combination of advanced mathematical modelling expertise and chemical engineering capability. This dual skill set prepares graduates for complex, data-driven, and innovation-focused roles across industries such as energy, advanced manufacturing, pharmaceuticals, consulting, technology, and research.

Typical career pathways include chemical engineer, process systems engineer, data and optimisation analyst, research scientist, and engineering consultant.

With strong industry integration and career development support:

UNSW Employability & Career Development Services : Provides personalised career coaching, internship placement support, employer networking events, resume and interview workshops, and structured graduate recruitment programs.
Industry-Embedded Learning & Projects : Engineering design projects and mathematics applications are often linked to real industrial and research challenges, building strong professional readiness before graduation.
Global Industry & Research Partnerships : UNSW maintains strong collaborations with leading organisations across engineering, energy, technology, consulting, advanced manufacturing, and scientific research sectors.
Professional Accreditation Advantage : The engineering component is accredited by Engineers Australia, ensuring international recognition through the Washington Accord and strong global career mobility.
High Graduate Employability : UNSW graduates are recognised globally for strong analytical ability, technical depth, and innovation capability across engineering and quantitative industries.
Indicative Salary Outlook (Australia) : Graduates in chemical engineering and quantitative engineering roles typically start at approximately AUD $75,000–$115,000+ per year, with strong progression into senior technical, research, and leadership positions.

Further Academic Progression:
Graduates can pursue advanced study such as a Master of Engineering Science, Master of Applied Mathematics, Master of Data Science, Master of Engineering Management, or PhD research programs. These pathways support specialisation in advanced modelling, optimisation, industrial systems engineering, academic research, or high-level leadership roles in engineering and quantitative science industries.