Technical University of Denmark
#107
QS World University Rankings 2026
67.5
QS 2026 overall score
Ranking data
QS World University Rankings source#107
QS World University Rankings 2026
#109
QS World University Rankings 2025
67.5
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
- 44.8
- QS 2026 rank
- #264
Employer reputation
- QS 2026 score
- 36.2
- QS 2026 rank
- #396
Faculty-student ratio
- QS 2026 score
- 98.4
- QS 2026 rank
- #49
Citations per faculty
- QS 2026 score
- 90.9
- QS 2026 rank
- #99
International faculty ratio
- QS 2026 score
- 100
- QS 2026 rank
- #52
International student ratio
- QS 2026 score
- 95.9
- QS 2026 rank
- #113
International student diversity
- QS 2026 score
- 96.1
- QS 2026 rank
- #96
International research network
- QS 2026 score
- 87.1
- QS 2026 rank
- #213
Employment outcomes
- QS 2026 score
- 60.5
- QS 2026 rank
- #269
Sustainability
- QS 2026 score
- 68
- QS 2026 rank
- #351
About Technical University of Denmark
DTU's departmental directory is a detailed technical map
Technical University of Denmark presents an extensive directory of departments and centres, with other research groups located through departmental pages. This structure rewards a precise search. DTU Compute brings together applied mathematics, statistics, computer science, and engineering around areas such as data science, artificial intelligence, connected systems, secure societies, manufacturing, and life sciences. DTU Construct focuses on civil and mechanical engineering topics including building processes, safety, mechanics, materials, manufacturing, design, and thermal energy systems. These descriptions show why a technical term alone is rarely enough. The same question can have several distinct disciplinary homes.
The directory also separates DTU Electro, DTU Energy, DTU Engineering Technology, DTU Management, and DTU Physics. Electrical and photonics work, energy conversion and storage, technology implementation, management and economics, and modern physics each provide different language for studying a problem. A project involving an energy system, for example, might relate to conversion, storage, electrical control, materials, management, or implementation. Start by identifying the real constraint or phenomenon. Then use the departmental description to find the place where that constraint is treated with methods closest to your intended work.
Life science, environment, and production form separate DTU routes
DTU Bioengineering describes work in biotechnology, biomedicine, food technology, and human and animal health. DTU Food focuses on food and health, while DTU Aqua studies aquatic organisms, physical and chemical processes, and ecosystem structure and dynamics. BRIGHT works on biomanufacturing with sustainable materials, microbial foods, and microorganisms for net-zero agriculture. These are related areas, but their research objects are not interchangeable. A question about food systems may belong to microbial production, nutrition, aquatic ecosystems, health technology, or environmental engineering depending on the evidence and method required.
DTU Chemical Engineering refers to product design, process design, and production across chemical, biotechnological, pharmaceutical, food, and energy industries. DTU Sustain works on environmental and resource engineering, while DTU Wind and DTU Offshore describe energy-related research settings with different technological and environmental concerns. The public descriptions offer a workable way to separate a process question from a resource, climate, or infrastructure question. Use the named department as the first filter, then look for a smaller group whose current work confirms the problem, system, and method you want to investigate.
Facilities and project work add another layer to a DTU search
DTU's central presentation refers to project-based assignments and access to facilities, while the departmental directory names settings such as DTU Nanolab, DTU Skylab, and the National Centre for Nano Fabrication and Characterization. These resources may be relevant to a question involving fabrication, characterisation, prototyping, or technology development. Their presence is not proof that every researcher or project uses them. A facilities page should be read alongside the local unit that identifies the scientific or engineering purpose. The strongest evidence comes when the technical resource and the research problem are visibly connected in current material.
For a Technical University of Denmark profile, organise the note around a specific technical problem, not around the phrase engineering. Name the relevant department, describe the system or process in its own language, and identify the method or infrastructure that may matter. Then mark what needs checking from a group or researcher page. This keeps a large departmental directory useful rather than overwhelming. It also allows a reader to compare distinct options honestly: a computation route, a materials route, an energy route, an environmental route, or a life-science route may all use different evidence for the same broad challenge.
Institution record
- Country
- Denmark
- Region
- Europe
- Status
- Public
- QS size code
- M
- 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.