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

6 Years On Campus Dual-bachelors Program

University of New South Wales

Program Overview

The Bachelor of Science (Advanced Mathematics) (Honours) / Bachelor of Engineering (Honours) (Chemical Engineering) at University of New South Wales is a highly advanced double degree that blends deep mathematical theory with professional chemical engineering training. It is designed for students who want to solve complex scientific and industrial problems using strong analytical, computational, and engineering design skills.

Students develop expertise in advanced mathematics alongside core chemical engineering systems, preparing for careers in research, engineering innovation, data-driven industries, and high-level technical problem solving.

Curriculum Structure

Year 1

Students begin with foundational subjects such as Engineering Mathematics 1A & 1B, Chemistry for Engineers, and Introduction to Engineering Design and Innovation. This year builds core mathematical reasoning, scientific understanding, and essential engineering problem-solving skills.

Year 2

In the second year, students advance into subjects such as Linear Algebra, Multivariable Calculus, Thermodynamics 1, and Fluid Mechanics. This stage strengthens both theoretical mathematics and core chemical engineering principles.

Year 3

Year three integrates higher-level mathematics and engineering through subjects such as Differential Equations, Numerical Methods, Reaction Engineering, and Separation Processes. Students begin applying mathematical modelling directly to chemical engineering systems.

Year 4

Students progress into advanced mathematical theory and engineering applications, including Complex Analysis, Statistical Methods, Process Systems Analysis, and Transport Phenomena. This year focuses on analytical depth and systems-level engineering thinking.

Year 5

In year five, students engage in specialised chemical engineering subjects such as Process Control Engineering, Advanced Engineering Design, and advanced mathematical electives. Students also begin planning and developing their honours-level research direction.

Year 6

The final year includes the Honours Research Thesis in Mathematics or Chemical Engineering and advanced elective study. Students complete independent, high-level research that integrates mathematical theory with real engineering applications.

Focus Areas

Advanced mathematics, chemical engineering systems, differential equations, numerical analysis, process design, thermodynamics, fluid mechanics, reaction engineering, statistical modelling, systems engineering, applied mathematics.

Learning Outcomes

Graduates will be able to apply advanced mathematical methods to complex chemical engineering and industrial problems, combining theoretical precision with practical engineering design. They develop strong analytical, computational, and research skills suited for high-level technical and scientific careers.

Professional Alignment (Accreditation)

The chemical engineering component is aligned with professional engineering accreditation pathways in Australia, supporting progression toward recognised engineering practice through appropriate postgraduate or competency-based routes.

Reputation (Employability & Rankings)

University of New South Wales is internationally ranked among the world’s leading engineering universities, particularly recognised for excellence in mathematics, engineering research, and high graduate employability outcomes.

Experiential Learning (Research, Projects, Internships etc.)

At University of New South Wales, the Bachelor of Science (Advanced Mathematics) (Honours) / Bachelor of Engineering (Honours) (Chemical Engineering) is delivered through a highly applied, research-informed learning environment where advanced mathematics is continuously integrated with real chemical engineering practice. Students build practical skills through laboratories, computational modelling environments, engineering design studios, and honours-level research projects, ensuring that abstract mathematical theory is directly applied to real-world engineering systems.

This program strongly emphasises computational thinking, simulation, and interdisciplinary problem-solving, preparing students for both engineering practice and mathematical research:

Advanced Mathematics and Engineering Laboratories : Hands-on sessions support learning in calculus, differential equations, numerical methods, and applied engineering problem-solving.
Chemical Engineering Laboratories : Students conduct experiments in thermodynamics, fluid mechanics, reaction engineering, and process systems analysis.
High-Performance Computational and Modelling Software : Industry-standard tools are used for mathematical modelling, simulation, optimisation, and chemical process design.
Engineering Design and Problem-Solving Studios : Collaborative environments support interdisciplinary projects combining mathematics and chemical engineering systems.
Honours-Level Research Training : Students undertake advanced research projects applying mathematical theory to complex engineering problems.
Team-Based Engineering and Mathematics Projects : Group work develops collaboration skills in solving large-scale analytical and industrial challenges.
Industry-Informed Learning Activities : Real-world engineering problems are integrated into coursework through case studies and applied projects.
Engineering Innovation Workshops : Structured sessions focus on analytical thinking, modelling strategies, and engineering design innovation.
Research-Active Academic Environment : Students learn from academics engaged in global research in applied mathematics, computational modelling, and chemical engineering.
University Libraries and Digital Research Resources : Access to extensive scientific journals, engineering databases, and advanced mathematical literature supports learning and research.
Interdisciplinary Collaboration Opportunities : Students work across mathematics and engineering disciplines to solve complex, systems-level problems.

Progression & Future Opportunities

Graduates of the Bachelor of Science (Advanced Mathematics) (Honours) / Bachelor of Engineering (Honours) (Chemical Engineering) at University of New South Wales are exceptionally well-prepared for high-level careers that demand both advanced mathematical reasoning and chemical engineering expertise. This rare combination positions graduates for work in cutting-edge engineering design, quantitative modelling, energy systems, data science, research, and complex industrial problem-solving.

Typical roles include Chemical Engineer, Process Systems Engineer, Quantitative Analyst, Data Scientist, Research Scientist, and Computational Modelling Engineer across industries such as energy, resources, advanced manufacturing, finance, pharmaceuticals, and technology:

UNSW Engineering Career Development & Employability Support : Students receive personalised career coaching, internship pathways, employer networking events, CV and interview preparation, and access to engineering and STEM industry recruitment programs.
Exceptional Graduate Employability Reputation : UNSW engineering and mathematics graduates are consistently highly sought after due to strong analytical, computational, and problem-solving capabilities.
Strong Industry and Research Partnerships : The university maintains collaborations with leading engineering firms, research institutes, and global technology organisations, enabling real-world exposure through projects and engagement.
Professional Engineering Accreditation Pathway : The chemical engineering component aligns with Australian engineering accreditation requirements, supporting progression toward recognised professional engineer status.
High-Level Quantitative Skill Development : The program builds advanced mathematical and computational skills highly valued across engineering, finance, analytics, and technology sectors.
Research Excellence and Innovation Environment : Students benefit from a research-intensive setting in applied mathematics, engineering systems, and computational modelling.
Global Career Mobility : UNSW qualifications are internationally recognised, enabling graduates to pursue opportunities across global engineering and analytical industries.
Interdisciplinary Career Flexibility : The dual focus on mathematics and engineering allows graduates to move into both technical engineering roles and quantitative analytical careers.

Salary outcomes vary significantly depending on role and sector, but graduates typically access strong starting salaries in engineering, analytics, and technical consulting roles, with high long-term earning potential driven by advanced quantitative expertise.

Further Academic Progression:
Graduates may continue into postgraduate study such as Master of Engineering Science, Master of Engineering (Chemical), Master of Data Science, Master of Applied Mathematics, or specialised research degrees including Master of Philosophy (MPhil) or PhD programs in mathematical sciences, chemical engineering, computational modelling, or data-driven engineering systems.