Bachelor of Engineering (Honours)(Chemical Process Engineering) Bachelor of Medical Science

5 Years On Campus Dual-bachelors Program

University of Technology Sydney

Program Overview

This dual degree combines chemical process engineering with medical science, preparing students to work at the intersection of engineering, biology, and healthcare-related technologies. It suits students who are interested in solving real-world problems in areas such as pharmaceuticals, biomedical manufacturing, medical technologies, and health-focused industrial innovation.

Curriculum Structure

First Year

In the first year, students build a strong foundation in both engineering and medical science. Engineering studies introduce core units such as Engineering Mathematics, Introduction to Engineering Practice, and Physics for Engineers, while medical science begins with subjects like Cellular and Molecular Biology and Human Biology Foundations. This year focuses on developing analytical thinking, laboratory skills, and an understanding of both engineering systems and human biological processes.

Second Year

The second year deepens knowledge in chemical process engineering while expanding biomedical understanding. Engineering subjects typically include Thermodynamics, Fluid Mechanics, and Chemical Process Principles, while medical science introduces units such as Biochemistry and Human Physiology. Students begin connecting how chemical processes relate to biological systems, particularly in pharmaceutical and biomedical applications.

Third Year

In the third year, students move into advanced engineering and specialised medical science study. Engineering units include Reaction Engineering, Separation Processes, and Process Design, while medical science subjects may include Microbiology and Pathophysiology. Students begin integrating both fields through applied laboratory work and interdisciplinary problem-solving tasks.

Fourth Year

The fourth year focuses on advanced chemical process systems and biomedical applications. Engineering studies include Advanced Process Control, Sustainable Engineering Systems, and Industrial Process Design, while medical science electives focus on areas such as Medical Biotechnology or Pharmacology Foundations. Students also undertake more complex research-based and industry-linked projects.

Fifth Year

In the final year, students complete a major capstone project that integrates chemical engineering with medical science applications. Projects often focus on pharmaceutical production systems, biomedical devices, or healthcare-related process optimisation. This year prepares graduates for professional roles that combine engineering innovation with medical and biological science expertise.

Focus Areas:

Chemical process engineering, medical biotechnology, pharmaceutical manufacturing, biomedical systems, industrial process design, human biology, biochemical systems, sustainability in healthcare industries, and applied biomedical engineering.

Learning Outcomes:

Graduates develop the ability to design and optimise chemical and biomedical processes, apply engineering principles to healthcare and biological systems, analyse complex medical and industrial data, and contribute to innovation in pharmaceutical, biomedical, and health-related industries.

Professional Alignment (Accreditation):

The Engineering (Honours) component aligns with Engineers Australia accreditation standards, supporting professional engineering recognition. The Medical Science component provides strong scientific training aligned with UTS STEM and health science frameworks, supporting pathways into biomedical and pharmaceutical industries.

Reputation (Employability Rankings):

University of Technology Sydney is recognised globally for strong graduate employability, industry-focused teaching, and applied STEM education. It consistently ranks well in QS World University Rankings for employer reputation and practical learning outcomes, particularly in engineering and health-related disciplines.

Experiential Learning (Research, Projects, Internships etc.)

At UTS, this dual degree is designed to immerse students in both engineering practice and biomedical science from the very beginning, so learning is constantly reinforced through real laboratory work, applied design projects, and industry-relevant investigation. You’ll move between chemical engineering systems and medical science laboratories, developing practical skills in process design, biological analysis, and health-related innovation using modern scientific and engineering tools. The program is strongly hands-on, ensuring students graduate with experience that reflects both industrial engineering environments and biomedical research settings:

  • Chemical engineering laboratories: practical training in reaction systems, thermodynamics, fluid mechanics, and process simulation relevant to industrial and pharmaceutical systems
  • Medical science laboratories: hands-on biological and biomedical experiments in microbiology, human physiology, biochemistry, and cellular analysis
  • Pharmaceutical and biomedical process applications: applied learning focused on drug production systems, biochemical processes, and healthcare-related engineering solutions
  • Engineering and scientific simulation software: tools used for process modelling, biological system analysis, and industrial optimisation
  • Interdisciplinary capstone projects: final-year team projects integrating chemical engineering design with medical and biomedical science applications
  • Industry Experience Program (IEP): structured internships and placements in pharmaceutical companies, biomedical organisations, and engineering firms
  • UTS research and laboratory facilities: access to advanced STEM laboratories supporting both engineering experimentation and biomedical research
  • UTS Library (Blake Library): scientific journals, engineering databases, medical research publications, and technical resources supporting advanced study
  • Group-based problem-solving projects: collaborative learning across engineering and medical science disciplines to solve real-world health and industrial challenges
  • Industry-linked case studies: projects developed with healthcare, pharmaceutical, and engineering partners reflecting real-world challenges in medicine and manufacturing

Progression & Future Opportunities

Graduates of this dual degree are prepared for highly specialised careers at the intersection of engineering, pharmaceuticals, and biomedical innovation, where they contribute to designing medical products, optimising chemical and biological processes, and improving healthcare technologies. This unique combination opens pathways into roles such as Biomedical Engineer, Process Engineer (Pharmaceutical), Medical Technology Specialist, and Research Scientist in health, biotech, and advanced manufacturing industries:

  • UTS Careers Service support: tailored career coaching, employer networking events, CV and interview preparation, and access to graduate recruitment programs across STEM and health sectors
  • Industry Experience Program (IEP): structured placements in pharmaceutical companies, biomedical research organisations, healthcare technology firms, and engineering consultancies
  • Graduate employment outcomes & salary range: STEM graduates in Australia generally experience strong employability, with typical starting salaries around AUD 65,000–95,000+, depending on role, industry, and experience level
  • Industry partnerships: UTS maintains strong links with engineering, pharmaceutical, biomedical, and healthcare organisations, supporting internships, research collaboration, and industry-based projects
  • Professional accreditation value: the Engineering (Honours) component is aligned with Engineers Australia accreditation, ensuring long-term professional recognition and global engineering mobility
  • Healthcare and industry integration advantage: graduates gain a rare interdisciplinary skill set combining engineering systems thinking with medical science expertise, highly valued in pharmaceutical and biomedical industries

Further Academic Progression:

After completing this program, graduates can pursue advanced study such as a Master of Engineering (Chemical, Biomedical, or Sustainable Engineering) or a Master of Medical Science (Research or specialised biomedical fields). Students interested in research, innovation, or academia may also progress to Master of Philosophy (MPhil) or PhD programs, focusing on areas like drug development, biomedical device innovation, or advanced chemical–biological systems engineering.

Program Key Stats

$51,205.00
$9,537
$ 100
Febr Intake : 1st Nov


Yes

Eligibility Criteria

CCD
3.0
27
80

1120
-
6.5
79

Additional Information & Requirements

Country Requirements

Career Options

  • Chemical Process Engineer
  • Bioprocess Engineer
  • Pharmaceutical Engineer
  • Biomedical Engineer
  • Medical Device Engineer
  • Clinical Research Associate
  • Research Scientist
  • Laboratory Scientist
  • Quality Assurance Engineer
  • Regulatory Affairs Specialist

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