Skip to main content
AcademicWings STEM discovery

QS ranking profile

Leibniz Universität Hannover

Germany Public

This page presents clearly labeled QS ranking data for orientation. It does not verify programs, supervisors, funding, admission requirements, or the university's website.

QS 2026 rank
#433
Down 7 places since 2025
QS 2025 rank
#426
Overall score
35.6
Verified Catalog STEM PhDs, Postdocs & Fellowships

Explore opportunities at Leibniz Universität Hannover

Browse active research positions, doctoral fellowships, and university funding calls indexed from official faculties and verified sources.

QS indicators

Reported ranking indicators

Each indicator is scored out of 100 in the same QS snapshot as the summary above.

Academic reputation 29.6

#419 worldwide

Employer reputation 37.2

#378 worldwide

Faculty-student ratio 19.9

#801 worldwide

Citations per faculty 33.7

#540 worldwide

International faculty ratio 54.7

#413 worldwide

International student ratio 33.3

#556 worldwide

International student diversity 39.1

#507 worldwide

International research network 80.5

#345 worldwide

Employment outcomes 20.3

#720 worldwide

Sustainability 78.7

#188 worldwide

Institution profile

How QS classifies this institution

QS groups institutions by size, subject range, and research output.

Size
Large
About 12,000 to 30,000 students
Subject range
Full comprehensive
All main faculty areas, including a medical school
Research intensity
Very high
Very high research output in the QS classification
Region
Europe
QS regional grouping

University profile

About Leibniz Universität Hannover

Editorial background written for orientation. Verify programs, funding, and admission on the university's official pages.

Leibniz University Hannover joins hearing, optics, and quantum research through clusters

Leibniz University Hannover makes several research clusters visible from its main research route. PhoenixD is described around optical precision instruments, Hearing4all around improved hearing, and QuantumFrontiers around quantum metrology. These names give a reader more useful starting points than a general reference to science or engineering. A hearing question can involve biology, medicine, acoustics, perception, devices, data, or social experience. An optical-instrument question can involve light, materials, imaging, sensing, measurement, or manufacturing. A quantum-metrology question can require a further level of precision about physical systems, instrumentation, modelling, and experimental evidence.

The clusters are not the whole university research map. Their value lies in showing that a single topic word can lead to different research objects. Hearing and optics might meet in a sensing device, but they can also belong to distinct questions and methods. A university-level cluster page establishes a visible theme. It does not establish the current work of every participating unit or researcher. A closer record from a project, laboratory, publication, or research group is needed before a profile can make a more detailed connection.

Six key areas stop an energy question from becoming a vague technology search

The research-profile page names six established areas: Biomedical Research and Technology, Energy Research, Optical Technologies, Production Engineering, Quantum Optics and Gravitational Physics, and Interdisciplinary Studies of Science. Those headings are a useful way to separate related but non-identical questions. An energy topic may involve conversion, storage, materials, systems, economics, policy, environmental effects, or public use. A production-engineering topic may concern manufacturing processes, machines, design, quality control, materials, or organisational practice. The presence of both areas is a reminder that the word technology does not describe one shared research method.

The profile also links key areas to research initiatives, centres, schools, collaborations, buildings, infrastructure, ethics, and transparency. Each kind of page should carry only the claim it can support. An infrastructure page can show a resource exists. An ethics page can show a research-conduct route. A collaboration page can identify an institutional connection. A project or output page is more likely to explain a particular question and its evidence. This layered reading makes the profile more useful for someone who needs to distinguish an organisational map from a documented research activity.

Research@Leibniz turns a defined question into a targeted evidence search

Leibniz University Hannover's research page points to a research portal, research news, knowledge transfer, research-data management, research ethics, infrastructure, and information for researchers. These routes are practical entry points, but a strong search still starts with a precise object. It may concern a hearing measurement, an optical device, an energy process, a production system, a biomedical mechanism, a quantum observation, or a question about science itself. Then set out the material that could answer it: samples, spectra, sensor readings, images, models, code, process data, interviews, documents, field observations, or experimental results.

Once the object and evidence are clear, the public routes can be used in the right order. A cluster or key area can establish the broad theme. News can reveal a named result or event. A research portal, centre, project, or publication may provide the closest local description. The university pages do not promise access to facilities, a current place on a team, or a particular method that is not stated. Keeping that boundary visible makes a profile more honest and more helpful. It turns LUH's public research structure into a route for careful discovery rather than a collection of impressive but disconnected labels.