National Yang Ming Chiao Tung University
#199
QS World University Rankings 2026
55.7
QS 2026 overall score
Ranking data
QS World University Rankings source#199
QS World University Rankings 2026
#219
QS World University Rankings 2025
55.7
QS 2026 overall score
Indicator-level data
Each card keeps the QS 2026 score and rank separate. A missing value is not estimated.
Academic reputation
- QS 2026 score
- 42.1
- QS 2026 rank
- #285
Employer reputation
- QS 2026 score
- 68.5
- QS 2026 rank
- #153
Faculty-student ratio
- QS 2026 score
- 55.4
- QS 2026 rank
- #339
Citations per faculty
- QS 2026 score
- 71.8
- QS 2026 rank
- #202
International faculty ratio
- QS 2026 score
- 29.1
- QS 2026 rank
- #593
International student ratio
- QS 2026 score
- 31.9
- QS 2026 rank
- #569
International student diversity
- QS 2026 score
- 37.7
- QS 2026 rank
- #520
International research network
- QS 2026 score
- 54.1
- QS 2026 rank
- #782
Employment outcomes
- QS 2026 score
- 75.8
- QS 2026 rank
- #179
Sustainability
- QS 2026 score
- 74.1
- QS 2026 rank
- #255
About National Yang Ming Chiao Tung University
Electrical engineering covers hardware, signals, systems, and biomedical work
National Yang Ming Chiao Tung University presents electrical engineering through a detailed set of research routes rather than one broad technology label. Its public material names semiconductor engineering, solid-state and quantum physics, sensing, integrated-circuit design, analogue systems, electronic design automation, communication science, signal processing, power electronics, biomedical electronics, robotics, and system control. These areas describe different scales of technical work. A semiconductor question may concern a device or fabrication process; a sensing question may start with a signal and an instrument; a biomedical electronics question may depend on a physiological measurement. The relevant local setting is determined by the object under study and the evidence needed to examine it.
The electrical engineering map also includes wireless communication, artificial intelligence and computer engineering, multimedia processing, and bionic robotics. This makes it possible for a question to travel across several technical boundaries, but the overlap should be checked rather than assumed. A robot can be studied through mechanical movement, control, sensing, embedded hardware, power systems, or the interpretation of biomedical signals. A communication problem may involve radio systems, network design, signal processing, or a hardware implementation. The university-level research list is therefore most helpful as a vocabulary for finding a lab, faculty member, or project with a more precise account of methods and current work.
Computer science adds algorithms, software systems, data, and human interaction
The computer science research list at National Yang Ming Chiao Tung University adds another layer to the technical picture. It includes algorithms and complexity, programming languages and compilers, software engineering, operating systems, distributed and real-time systems, embedded systems, computer architecture, artificial intelligence and machine learning, networking, computer vision, security, computational biology, natural language processing, and quantum cryptography. It also makes space for human-computer interaction, virtual and augmented reality, wearables, graphics, digital learning, smart environments, cloud systems, and data-intensive work. These routes are not simply alternative names for electrical engineering. They bring their own questions about computation, data, interaction, reliability, and software behaviour.
The distinction becomes clearer when a topic is stated precisely. A medical image may call for computer vision, signal processing, a biomedical setting, or a combination of them. A connected device may raise questions about embedded architecture, wireless communication, distributed systems, security, and user interaction. A language question may involve natural-language processing while a hardware question might need a system-on-chip or power-electronics perspective. The public research lists give a useful way to identify these possible paths. They do not show that a single group covers all of them, so a local research page remains necessary before drawing a conclusion about a particular research connection.
Test a technical fit by following the data and the system boundary
A useful research note for National Yang Ming Chiao Tung University identifies where the technical system begins and ends. It may be a semiconductor device, sensor, circuit, wireless link, robot, medical signal, algorithm, compiler, operating system, image, dataset, security protocol, or interaction design. Then describe the central problem and the form of evidence involved. Is the work about physical measurements, simulated behaviour, code, network traffic, images, language data, user interaction, or a combination of these? That distinction helps place a question in electrical engineering, computer science, or a clearly stated intersection between them.
The final step is to locate a named research group or current project and check whether its approach matches the proposed boundary. A public subject list can reveal a plausible direction without confirming the exact platform, dataset, instrument, or research team. Leaving that point open is more useful than filling it with broad technical language. National Yang Ming Chiao Tung University's public pages show a rich connection between physical systems and computational work. Reading those routes through a specific system and its evidence gives a clearer and more honest basis for further research.
Institution record
- Country
- Taiwan
- Region
- Asia
- Status
- Public
- QS size code
- L
- Profile record updated
- July 24, 2026
This date shows when this profile was refreshed. It is not a source-verification date from QS or the university.
Search opportunitiesOpportunity records may use a different form of the institution's name. Confirm every listing with its original source.