Bachelor of Science in Advanced Technology

3 Years On Campus Bachelors Program

University of Twente

Program Overview

Advanced Technology at University of Twente is the most varied technical Bachelor's in the Netherlands, offering a uniquely broad education that combines electrical engineering, mechanical engineering, mathematics, nanotechnology, robotics, and more—all in one programme. If you're passionate about technology but haven't yet chosen a single specialization, this is the perfect fit: you'll build a personalized expertise profile across multiple disciplines while staying flexible for any technical master's programme you choose later.

Curriculum Structure

First Year: Building Your Technical Foundation

Your first year establishes a solid foundation across core science and engineering disciplines, including mechanics, electronics, process engineering (thermodynamics), and materials science & nanoscience. You'll also strengthen your mathematical skills and develop essential academic abilities that prepare you to think and work like both an engineer and a scientist. Around 30% of your programme consists of projects and practical assignments where you immediately apply the knowledge you're gaining in lectures and workshops.

Second Year: Broadening Your Horizons

In year two, your knowledge broadens and deepens significantly as you explore modules such as analogue and digital signals and systems—a crucial topic in engineering—alongside vector calculus and its applications in electromagnetism. This is when you'll start pursuing your own interests by getting familiar with popular master's programmes, setting the stage for your future specialization while still maintaining breadth across disciplines. You'll also collaborate with students from other bachelor's programmes in team projects, learning to make cross-connections that lead to surprising solutions.

Third Year: Specializing and Graduating

Your final year consists of elective modules tailored to your interests, allowing you to prepare yourself specifically for the master's programme or career path you've chosen. The second half of this year is devoted to your concluding bachelor's assignment—a graduation project where you tackle a current issue in a scientific way, either for a UT research group, company, or government institution. By the end, you'll have earned your Bachelor of Science degree with a uniquely personalized skill set that bridges multiple technical fields.

Focus Areas

Electrical engineering (digital computing, wireless communication, electronic sensors and systems), mechanical and product design, process engineering and business optimization, nanotechnology, robotics, mechatronics, big data, energy transition, and sustainable technology.

Learning Outcomes

You'll develop the ability to think and work across engineering and scientific disciplines; understand complex system design; apply scientific theory directly in practice through team projects; develop entrepreneurship and innovation management skills; and build a personalized profile of expertise that makes you stand out among other Bachelor of Science graduates.

Professional Alignment

The programme is explicitly designed to give you direct access to almost any technical master's at the University of Twente or at other universities in the Netherlands and abroad, without requiring a pre-master's programme if you make the right choices in your third year. Many Advanced Technology graduates have been admitted to renowned universities including the University of Cambridge and ETH Zurich.

Reputation & Employability

Advanced Technology holds the distinction of being the most varied technical Bachelor's in the Netherlands, positioning you ahead of other Bachelor of Science graduates in the job market. Most graduates continue to specialized master's programmes, though some enter the job market directly or start their own businesses.

Experiential Learning (Research, Projects, Internships etc.)

In the Bachelor of Science in Advanced Technology at the University of Twente, you'll dive hands-on into real-world tech challenges right from year one, building practical skills through project-based modules that make up around 30% of your program. You'll apply knowledge in mechanics, electronics, process engineering, materials science, and nanoscience via team projects tackling actual societal or business problems, collaborating with students from other disciplines to create innovative solutions. This T-shaped approach sharpens your technical expertise while boosting teamwork, entrepreneurship, and adaptability—preparing you to bridge fields like physics, chemistry, and engineering with programming and societal impact.

Here's what stands out about the experiential learning opportunities tailored to this program:
- Team projects in every module: Conclude each of the eight modules in years one and two with group projects where you divide tasks, depend on teammates' outputs, and solve current issues—learning cross-disciplinary collaboration and direct application of theory.
- Graduation project in year three: Tackle a real scientific challenge for a UT research group, company, or government institution, building your portfolio with independent research and experimentation.
- Elective modules for personalization: In year three, choose modules aligned with interests like nanotechnology, mechatronics, robotics, or sustainable energy, including hands-on prep for master's programs.
- Multidisciplinary student teams: Join UT's extracurricular teams to prototype tech solutions, gaining extracurricular practical experience beyond the classroom.
- Labs and research facilities: Work in Faculty of Science & Technology (S&T) labs focused on engineering, nanoscience, chemical engineering, mechanical engineering, and applied physics, supporting module projects and experiments.

This setup ensures you're not just learning theory—you're creating tech that matters, with a recent curriculum refresh in 2025 boosting flexibility and engagement. Ready to build your future? Apply now and let's chat about how this fits you perfectly.

Progression & Future Opportunities

In the Bachelor of Science in Advanced Technology at University of Twente, you'll dive right into hands-on learning from day one, building practical skills through projects that make up around 30% of your program. You'll apply knowledge in real-world scenarios across mechanics, electronics, process engineering, materials science, and nanoscience, working in multidisciplinary teams to solve actual societal and business problems. This project-based approach sharpens your engineering mindset while collaborating with students from other fields, just like the T-shaped professionals employers crave.

Here are some standout ways you'll gain that invaluable experience:
- Team projects in every module: Each of the first eight modules (four per year in years 1 and 2) ends with a group project where your team tackles a current challenge, dividing tasks and relying on each other's contributions for assessment—fostering cross-disciplinary skills and practical application of theory.
- Graduation project in year 3: Wrap up with a major bachelor's assignment solving a real scientific issue for a UT research group, company, or government institution, building your expertise for top master's programs worldwide.
- Multidisciplinary labs and workshops: Explore themes like mechanics (Module 1) in dedicated sessions with lectures, hands-on experiments, and feedback, using facilities from the Faculty of Science & Technology (S&T) for electronics, thermodynamics, and nanoscience.
- Elective modules for specialization: In year 3, choose from flexible options to prep for master's in areas like nanotechnology, mechatronics, or sustainable energy, often involving advanced tools and programming skills.
- Broader UT facilities: Access the High Tech Factory, robotics labs, cleanrooms for nanotechnology, and materials testing equipment through S&T, plus entrepreneurship tools for innovation projects blending tech with societal impact.

This is your chance to turn curiosity into expertise—apply now and link technical disciplines like never before.

Country Requirements

Canada: Apply with a DEC préuniversitaire (2 years) or DEC technical/art program (3 years) for case-by-case review with possible additional tests; Canadian high school diplomas including Alberta, Manitoba, Ontario OSSD, Dogwood, DES, British Columbia, New Brunswick, and Nova Scotia are not directly equivalent to Dutch VWO.
China: Admission requires a Senior High School Graduation Certificate and NCEE Gaokao with Tier 1 or Tier 2 score for 3X system; for 3 3 system, minimum 75 percent overall and 75 percent in required subjects including Mathematics, and Physics, Chemistry, or Biology depending on the program.
Egypt: Secondary education diplomas including Basic, Preparatory Al-Azhar, Technical, Advanced Technical, Intermediate Institute, General Secondary, and Al-Azhar Secondary cannot be admitted directly as they are not equivalent to Dutch VWO; alternative Dutch pre-university routes apply.
France: Admission requires the Diplôme du Baccalauréat Général with Mathematics as a specialisation or required level depending on the program, and Physics, Chemistry, or Biology as needed for the chosen bachelor’s program.
Germany: Admission requires a Zeugnis der Allgemeinen Hochschulreife with all required subjects listed on the Abitur diploma, regardless of course level; private school diplomas must show required subjects as Abiturprüfung subjects.
India: Admission requires Senior School Certificate (CBSE) or Indian School Certificate (CISCE) with five academic subjects having seventy percent or more theoretical content; Mathematics is mandatory for technical programs, and Physics, Chemistry, or Biology may be required depending on the bachelor’s program.
India: Other Grade XII diplomas from NIOS or regional boards are reviewed case by case with possible additional tests; Grade X alone is not admissible, and combined diplomas with a three-year Engineering or higher education diploma are also case-by-case.
Nepal: Secondary education diplomas including Certificate – Secondary Education Examinations, School Leaving Certificate, and Migration Certificates from Grade XI-XII cannot be admitted directly as they are not equivalent to Dutch VWO; alternative Dutch pre-university routes apply.
Pakistan: Secondary education diplomas including Secondary School Certificate, Matriculation, Technical School Certificate, Diploma in Commerce, Diploma of Associate Engineer, and Higher Secondary or Intermediate School Certificates obtained before 2024 cannot be admitted directly as they are not equivalent to Dutch VWO; alternative Dutch pre-university routes apply
Saudi Arabia: Secondary education diplomas, including Degree Transcript of Intermediate Third Grade or Secondary School Graduation Certificate, cannot be admitted directly as they are not equivalent to Dutch VWO; alternative Dutch pre-university routes apply.
South Africa: Secondary education diplomas, including the National Senior Certificate and IEB National Senior Certificate with bachelor’s admission remark, cannot be admitted directly as they are not equivalent to Dutch VWO; alternative Dutch pre-university routes apply.
United Kingdom | Scotland: Admission requires the Scottish Qualifications Certificate with at least four Higher National Courses and two Advanced Higher National Courses with grades A, B, C, or D; Mathematics must be an Advanced Higher, and Physics.
United States: Admission requires an officially recognised and accredited High School Diploma from a school accredited by a recognised regional body or State Board of Education; homeschooled or online-schooled students are assessed case by case.