Bachelor of Engineering Honours(Chemical and Biomolecular Engineering) and Bachelor of Arts

5 Years On Campus Bachelors Program

University of Sydney

Program Overview

The Bachelor of Engineering Honours (Chemical and Biomolecular Engineering) and Bachelor of Arts at the University of Sydney is a multidisciplinary double degree that combines advanced engineering training in chemical and biological systems with a broad arts education in humanities, social sciences, languages, or media studies. It is designed for students who want to pair technical engineering expertise with strong communication, critical thinking, and global contextual understanding.

Students study at the University of Sydney’s Camperdown/Darlington Campus, gaining access to engineering laboratories, research centres, and world-class arts and humanities faculties, creating a unique blend of technical innovation and human-centred learning.

Curriculum Structure

Year 1

Students begin with foundational engineering, science, and arts studies. Core units typically include Chemistry for Engineers, Physics for Engineers, Engineering Design, and Introduction to Arts and Society. This year builds core analytical, scientific, and communication skills.

Year 2

In Year 2, students develop core chemical and biomolecular engineering knowledge alongside chosen arts disciplines. Engineering studies include Fluid Mechanics, Thermodynamics, and Biochemical Engineering Fundamentals, while arts subjects may include Media, Culture, Politics, or Language Studies. This year strengthens both technical reasoning and critical thinking.

Year 3

Students progress into more advanced engineering systems and intermediate arts study. Engineering units include Reaction Engineering, Separation Processes, and Transport Phenomena, while arts subjects allow deeper exploration in chosen majors such as History, Sociology, or International Relations. This year develops interdisciplinary analytical depth.

Year 4

Year 4 focuses on advanced engineering design and specialised arts coursework. Engineering includes Process Design, Bioprocess Engineering, and Systems Engineering, while arts studies include advanced electives and research-based humanities subjects. Students begin integrating technical and societal perspectives.

Year 5

Engineering becomes highly applied through major design projects and laboratory-based learning, including Chemical Engineering Design Projects and Biomolecular Systems Engineering. Arts studies continue with advanced coursework or research projects, building strong interdisciplinary capability.

Year 5.5

The final stage includes completion of the Honours research project in chemical and biomolecular engineering, alongside final arts requirements or advanced electives. Students graduate with both technical engineering expertise and a broad humanities-based academic foundation.

Focus Areas

Chemical engineering, biomolecular systems, process design, humanities and social sciences, communication, global studies, sustainability, interdisciplinary innovation, and technology in society.

Learning Outcomes

Graduates develop strong engineering capability in chemical and biomolecular systems while also gaining advanced skills in critical thinking, communication, and social analysis through arts studies. This combination prepares students for leadership roles requiring both technical expertise and broader cultural and societal understanding.

Professional Alignment (Accreditation)

The engineering component is accredited by Engineers Australia (Washington Accord), ensuring international professional recognition and mobility.

Reputation (Employability & Rankings)

The University of Sydney is globally recognised for excellence in engineering and humanities, consistently ranked among the world’s leading universities with strong graduate employability outcomes.

Experiential Learning (Research, Projects, Internships etc.)

At the University of Sydney, experiential learning in this double degree is built around combining hands-on engineering practice with real-world humanities and social science inquiry. You’ll work in advanced engineering laboratories while also engaging in research-led arts units, developing both technical capability and the ability to critically analyse how science and technology shape society.

A key strength of the program is its balance between lab-based engineering training, research-driven arts study, and industry-informed learning, supported by the University’s strong research environment and interdisciplinary teaching spaces:

Chemical & biomolecular engineering laboratories: Practical experimentation in process engineering, biochemical systems, thermodynamics, and reaction engineering
Research-intensive learning in arts disciplines: Access to humanities and social science research environments for projects in areas like politics, culture, media, and international relations
Engineering design studios: Collaborative spaces for team-based design projects focused on solving real industrial and sustainability challenges
Capstone engineering project: Final-year team project applying chemical and biomolecular engineering principles to real-world problems
Arts research projects & independent study: Opportunity to undertake advanced research or writing projects in chosen humanities majors
Digital tools & modelling software: Use of engineering simulation tools alongside digital humanities research platforms and data analysis software
Interdisciplinary learning environments: Group projects combining technical engineering analysis with social, cultural, or policy-based perspectives
Industry and community engagement opportunities: Exposure to external organisations through project-based learning, internships, and collaborative research initiatives

Progression & Future Opportunities

Graduates from the University of Sydney with this double degree are well-positioned for careers that require both strong technical engineering expertise and a deep understanding of social, cultural, and policy contexts. This combination is especially valuable in industries where technology, sustainability, communication, and global systems intersect.

Typical career pathways include: chemical/biomolecular engineer, sustainability or policy analyst, science communication specialist, and project or innovation manager in engineering or public sector organisations.

Progression is supported through structured university career development and strong industry engagement:

University of Sydney Careers Centre: Offers career coaching, internship guidance, employer networking events, resume and interview preparation, and access to job listings across engineering, government, and creative industries
Employment outcomes & salary (Australia benchmark): Engineering graduates typically start around A$85,000–A$105,000+, while combined graduates with arts backgrounds often progress into diverse roles across policy, consulting, and communications with strong long-term earning potential
Industry and sector partnerships: The University of Sydney maintains strong links with engineering firms, government agencies, NGOs, and research organisations through internships, project-based learning, and collaborative initiatives
Professional accreditation value: The engineering component is accredited by Engineers Australia (Washington Accord), ensuring international recognition and mobility in engineering careers
Graduation outcomes: Graduates move into interdisciplinary roles spanning engineering design, sustainability planning, public policy, science communication, and innovation-focused leadership positions

Further Academic Progression:

After graduation, students can pursue Master of Engineering, Master of Sustainability, Master of Public Policy, Master of Arts (advanced studies), or research degrees (MPhil/PhD) at University of Sydney, specialising in areas such as environmental systems, technology policy, or advanced chemical and biomolecular engineering.