Quantum Electronic Engineering: A Degree for Students Interested in Quantum Computing, Sensing and Communications
Quantum technology can sound like a research topic far removed from an undergraduate choice. It also needs engineers who can connect physics concepts with electronic devices, software, sensing and communication systems. For Indonesian students who enjoy mathematics, physics, problem-solving and technology, Quantum Electronic Engineering is a study option worth understanding in high school.
Griffith University offers the Bachelor of Quantum Electronic Engineering (Honours). Griffith describes it as the first degree of its kind in Queensland, where students develop advanced skills in quantum computing, sensing and communications.[1][2]
What is Quantum Electronic Engineering?
In simple terms, this degree sits at the intersection of electronic engineering and quantum technology. Electronic engineering provides a foundation for understanding and designing circuits, signals, devices, control and systems. Quantum knowledge helps engineers understand technologies that use the properties of very small-scale systems for computing, sensing, communications and future devices.
This is not a degree for students who only want to follow a “quantum” trend. You need to be comfortable with problems that do not always have quick answers, abstract concepts, mathematics and careful experimentation. Its strength is the connection between science and engineering application.
Griffith positions the degree within an engineering offering that emphasises practical experience, industry projects and access to facilities and laboratories.[2]
What you study and the engineering experience
Griffith says engineering students learn to design, create and deliver solutions to real engineering problems. From first year, students work on projects that require applying their skills in practical contexts.[2]
For Quantum Electronic Engineering, Griffith highlights capability in:
- quantum computing;
- quantum sensing;
- quantum communications;
- electronic-engineering fundamentals;
- problem-solving and project work.
Griffith’s engineering study also emphasises placements, industry projects and access to facilities and laboratories. This matters because quantum-related work needs more than theory: students need to test designs, communicate findings, collaborate and learn from feedback.[2]
Who might be a good fit?
Consider this degree if you:
- enjoy Mathematics and Physics;
- like understanding electronic devices and digital systems;
- are interested in coding, hardware, robotics, optics or telecommunications;
- enjoy breaking complex problems into testable steps;
- are willing to build engineering foundations before expecting highly specialised quantum topics.
You do not need to understand quantum mechanics in high school. More important are numerical foundations, curiosity, study discipline and readiness for demanding subjects. When comparing a syllabus, ask whether you enjoy the combination of mathematics, physics, programming, design and laboratory work.
Career direction: do not limit yourself to one job title
Quantum technology is evolving, so job titles can change with the industry. Do not choose the degree only because of one new-sounding job title. An electronic-engineering foundation can be relevant to quantum engineering, electronics, photonics, advanced computing, systems engineering, research support and other high-impact technology areas.
Griffith says engineering develops creativity, adaptability and a problem-solving mindset, with experience through placements and industry projects.[2] These skills can help graduates navigate a fast-moving field, but they do not guarantee a specific job. Project portfolios, internship experience, technical communication and teamwork will still matter.
How to prepare now
Start with small projects that show how you learn:
- Strengthen school Mathematics and Physics, especially algebra, introductory calculus, electricity, waves and problem-solving.
- Learn introductory programming through Python, C/C++ or a school-appropriate platform.
- Try a simple project: a microcontroller sensor, simulation, coding challenge or experiment report.
- Document the process: question, design, errors, improvements, results and reflection.
- Follow science news critically. Distinguish research announcements, prototypes and technology already used at scale.
Your portfolio does not need to look perfect. For an application or interview, clear thinking is often more valuable than an oversized project you cannot explain.
What to verify before applying
Griffith’s degree and engineering pages are starting points, not substitutes for application checks. Confirm directly with the university:
Griffith also says its engineering approach combines projects from first year with placements and industry projects, so the current practical-experience format should be checked in the latest degree details.[2]
- academic entry requirements and subject prerequisites;
- English-language requirements;
- intake, campus location and duration;
- total tuition and non-tuition costs;
- accreditation status and professional pathways;
- placement or industry-project format;
- scholarships currently available to international students.
Do not assume fees, admission requirements or scholarships from one intake will remain unchanged for the next.
Closing note
Griffith’s Bachelor of Quantum Electronic Engineering (Honours) brings electronic engineering together with quantum computing, sensing and communications.[1][2] For students ready to build foundations in mathematics, physics, programming and engineering design, it can be an entry point to a developing technology field.
RIM Education can help you compare engineering degrees, check entry requirements and build an Australian study plan around your academic strengths. Start a consultation at https://rimeducation.com/en/contact-us.
Sources
[1] Bachelor of Quantum Electronic Engineering (Honours) — Griffith University