Bachelor of Engineering (Honours) Diploma in Industry Practice (Chemical Process)

5 Years On Campus Bachelors Program

University of Technology Sydney

Program Overview

The University of Technology Sydney’s Bachelor of Engineering (Honours) Diploma in Industry Practice (Chemical Process) is a five-year program that combines advanced chemical process engineering education with extensive real-world industry experience through a dedicated industry practice component. The program is ideal for students who want to build strong technical engineering expertise while also graduating with practical professional experience in industries such as energy, manufacturing, pharmaceuticals, water treatment, food processing, and sustainable industrial systems.

Students develop strong foundations in engineering science before progressing into specialised chemical process engineering studies involving industrial operations, process optimisation, sustainable technologies, and systems design. The program is delivered at UTS’s City Campus in Sydney, Australia, which features modern engineering laboratories, collaborative innovation spaces, and strong connections with leading engineering and technology industries.

Curriculum Structure

Year 1

The first year builds foundational engineering knowledge through mathematics, chemistry, physics, and engineering design studies. Students commonly study units such as Engineering Communication, Mathematics 1, and Chemistry and Materials Science, while also developing teamwork and technical problem-solving skills through introductory engineering projects. This foundation prepares students for advanced process engineering studies in later years.

Year 2

In second year, students begin developing core chemical process engineering capabilities involving industrial systems, process calculations, and fluid systems. Subjects such as Process Engineering Fundamentals, Fluid Mechanics, and Thermodynamics introduce students to process industries, energy systems, and engineering analysis. Laboratory activities and workshop-based learning strengthen practical technical skills.

Year 3

Third year focuses on advanced chemical process engineering applications and industrial operations. Students study units including Heat and Mass Transfer, Chemical Reaction Engineering, and Process Design, learning how chemical systems are designed, optimised, and managed within industrial environments. Students also participate in collaborative engineering projects and computational modelling activities linked to real engineering challenges.

Year 4 – Diploma in Industry Practice

During the industry practice component, students gain substantial professional engineering experience through structured industry placements and workplace learning opportunities. Students apply technical engineering knowledge in real industrial settings while developing professional communication, project management, teamwork, and operational problem-solving skills. This industry-focused year helps students build strong professional networks and valuable graduate experience before entering the workforce.

Year 5

The final year focuses on honours-level engineering practice, advanced process engineering, and technical project work. Students complete engineering design projects, honours research, and advanced process engineering studies involving process optimisation, sustainability, industrial systems, and engineering innovation. By graduation, students are equipped for professional engineering roles requiring both technical expertise and practical industry experience.

Focus Areas

Chemical process engineering, industrial process systems, process optimisation, sustainable manufacturing, thermodynamics, reaction engineering, energy systems, industrial operations, process design, manufacturing systems, engineering innovation, professional engineering practice

Learning Outcomes

Develop advanced knowledge of chemical process engineering systems; apply engineering principles to industrial operations and manufacturing challenges; design and optimise process systems; analyse thermodynamic and reaction engineering processes; conduct technical research and engineering analysis; communicate professionally within multidisciplinary engineering environments; integrate sustainability and innovation into engineering practice; apply workplace and industry-based engineering skills.

Professional Alignment (Accreditation)

The program is accredited by Engineers Australia and recognised internationally under the Washington Accord, supporting global engineering career mobility and professional recognition. The Diploma in Industry Practice strengthens graduate employability by formally recognising extensive professional industry experience completed during the degree.

Reputation (Employability Rankings)

The University of Technology Sydney is internationally recognised for industry-focused education, practical engineering learning, innovation, and graduate employability. UTS consistently performs strongly in global university rankings such as QS and is highly regarded by employers for producing graduates with strong technical capability, industry readiness, and professional engineering experience.

Experiential Learning (Research, Projects, Internships etc.)

The Bachelor of Engineering (Honours) Diploma in Industry Practice (Chemical Process) at the University of Technology Sydney provides students with extensive practical engineering experience through laboratory experimentation, industry placements, engineering design projects, and workplace-integrated learning. Students gain hands-on expertise in chemical process systems, industrial operations, process optimisation, sustainable manufacturing, and engineering problem-solving while studying in one of Australia’s most industry-connected engineering environments.

A major advantage of this program is the Diploma in Industry Practice component, which gives students structured professional industry experience before graduation. Combined with modern engineering facilities, collaborative innovation spaces, and project-based learning, students graduate with both strong technical engineering capability and valuable real-world industry exposure:

Industry Placement Experience : The Diploma in Industry Practice includes structured professional placements where students work within engineering and industrial organisations, gaining practical experience in chemical processing, manufacturing, energy systems, industrial operations, and engineering project environments.
Chemical Process Engineering Laboratories : Students work in specialised laboratories involving thermodynamics, fluid mechanics, process systems, heat and mass transfer, reaction engineering, and industrial process analysis.
Engineering Studio Learning Model : UTS integrates workshop-based learning, collaborative design thinking, technical problem-solving, and applied engineering practice throughout the degree.
Industry-Focused Engineering Projects : Students complete practical engineering projects involving process optimisation, industrial systems, manufacturing operations, sustainability, and engineering innovation.
Process Simulation and Engineering Software : Students use industry-relevant engineering simulation and modelling tools for process analysis, systems evaluation, operational optimisation, and engineering design applications.
Collaborative Group Projects : Team-based engineering activities help students strengthen leadership, communication, project management, and multidisciplinary problem-solving capabilities.
Professional Engineering Practice Training : Workplace learning activities develop industry communication, operational decision-making, professional reporting, teamwork, and technical project coordination skills.
UTS Tech Lab Access : Students may benefit from access to UTS Tech Lab facilities that support advanced manufacturing, industrial innovation, engineering research collaboration, and applied technology development.
Engineering Workshops and Innovation Spaces : Students have access to maker spaces, collaborative engineering workshops, prototyping environments, and innovation hubs that support technical experimentation and engineering design.
Research and Applied Engineering Exposure : Students engage with engineering initiatives linked to sustainable technologies, industrial systems, advanced manufacturing, and engineering innovation.
Industry Networking Opportunities : UTS maintains strong engagement with engineering, manufacturing, infrastructure, technology, and industrial sectors, helping students build professional industry connections during their studies.
Laboratory-Based Technical Training : Practical laboratory sessions strengthen skills in industrial measurements, process monitoring, systems analysis, engineering calculations, data interpretation, and technical reporting.
Libraries and Digital Engineering Resources : Students can access UTS libraries, engineering databases, technical journals, digital collaboration platforms, and specialised engineering learning resources.
Career-Integrated Learning Environment : The combination of honours engineering education and industry practice ensures students graduate with both academic qualifications and recognised professional engineering experience highly valued by employers.

Progression & Future Opportunities

Graduates of the Bachelor of Engineering (Honours) Diploma in Industry Practice (Chemical Process) from the University of Technology Sydney are highly prepared for engineering careers that combine strong technical expertise with valuable professional industry experience. The integrated industry practice component gives graduates a competitive advantage by allowing them to enter the workforce with both an accredited engineering qualification and substantial workplace exposure in real industrial environments. Typical graduate career outcomes include Chemical Process Engineer, Process Development Engineer, Manufacturing Engineer, Production Engineer, Energy Systems Engineer, and Industrial Operations Engineer.

The combination of industry-integrated learning, practical engineering experience, professional accreditation, and strong employer engagement provides graduates with excellent long-term employability and career flexibility:

Career and Employability Services : Students receive support through UTS Careers, including career coaching, internship and placement support, resume development, interview preparation, networking events, employer engagement activities, and graduate recruitment assistance.
Diploma in Industry Practice Advantage : The formal industry practice component allows students to graduate with recognised professional workplace experience, helping strengthen employability outcomes and industry readiness.
Industry Partnerships and Professional Networks : UTS maintains strong relationships with organisations across manufacturing, infrastructure, chemical processing, technology, sustainability, and industrial operations sectors, helping students build professional industry connections during their studies.
Industry-Focused Learning Environment : Engineering projects and workplace-integrated learning activities help students develop practical technical skills, operational understanding, teamwork capability, and professional engineering communication.
UTS Tech Lab and Applied Innovation Exposure : Students benefit from exposure to industry-collaborative innovation facilities supporting advanced manufacturing, engineering technology development, and applied industrial research.
Graduate Employability Reputation : UTS is internationally recognised for practice-oriented education, innovation, and strong graduate employability outcomes across engineering and technology disciplines.
Median Salary : Graduates from chemical process engineering and industrial engineering-related disciplines at UTS commonly achieve median full-time graduate salaries ranging from AUD $75,000–$100,000+, depending on industry sector, technical specialisation, operational responsibilities, and professional experience.
Global Accreditation Value : The engineering component of the program is accredited by Engineers Australia and recognised under the Washington Accord, supporting international engineering recognition and global career mobility.
Industry-Ready Graduation Outcomes : Through engineering laboratories, industry placements, collaborative design projects, process simulation activities, and technical workplace experience, graduates develop highly practical and employer-valued engineering capabilities.
Professional Engineering and Leadership Skills : Graduates leave with strong technical analysis, project coordination, communication, operational problem-solving, and multidisciplinary teamwork skills suited to both technical and management-track engineering roles.

Further Academic Progression:
After completing this program, graduates may continue into postgraduate study or research in areas such as Chemical Engineering, Process Engineering, Manufacturing Systems, Industrial Engineering, Energy Systems, Sustainability Engineering, Advanced Manufacturing, or Engineering Management. Graduates interested in research and innovation may also pursue Master by Research or PhD programs connected to industrial process optimisation, clean technologies, sustainable manufacturing, advanced materials, or energy transition systems.