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AcademicWings STEM discovery

QS ranking profile

Universität Regensburg

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
#691
Up 50 places since 2025
QS 2025 rank
#741
Overall score
25.4
Verified Catalog STEM PhDs, Postdocs & Fellowships

Explore opportunities at Universität Regensburg

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 16

#701 worldwide

Employer reputation 11.9

#701 worldwide

Faculty-student ratio 77.3

#181 worldwide

Citations per faculty 13.3

#801 worldwide

International faculty ratio 39.4

#505 worldwide

International student ratio 17.7

#768 worldwide

International student diversity 23.9

#708 worldwide

International research network 71

#512 worldwide

Employment outcomes 27.7

#600 worldwide

Sustainability 38.7

#801 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 Universität Regensburg

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

Regensburg frames its research around global change, material worlds, digital transformation, and life

Universität Regensburg organises its research profile around dynamics in the global world, material worlds and sustainability, digital transformations, and integrated sciences in life, health, and disease. These areas make sense as broad invitations, but each needs a concrete object before it becomes a workable question. A global-change question might concern a migration pathway, language community, political relationship, or historical process. A material-world question may involve a substance, ecosystem, infrastructure, or pattern of use. A digital-transformation question can concern an algorithm, interface, data practice, or institutional decision.

The university's twelve faculties, research buildings, core facilities, networks, and research centres add more detail to those broad areas. A reader does not need to choose a faculty first. It is often clearer to begin with the thing that changes or needs explanation. A disease question may start with a cell, tissue, gene, clinical practice, or population. A sustainability question may start with a material flow, landscape, energy system, or behaviour. Once the object is visible, the right disciplinary and technical routes become easier to recognise.

Geometry, quantum states, microscopy, and cardiology show Regensburg research at several scales

Regensburg research examples include generalised motivic methods in geometry, machine learning for complex quantum states, microscopy at the space-time limit, experimental cardiology, and gene editing. These topics sit at very different scales. A geometry question may focus on a mathematical structure, relation, proof, or abstraction. A quantum-states question may involve a model, computational method, physical system, or theoretical prediction. Microscopy can bring a question down to a visual or structural level, while cardiology and gene editing can connect biological mechanisms with health conditions and clinical questions.

The point is not to treat every topic as a technical challenge. Mathematical work can depend on concepts and logical relations. Machine learning can involve data choices, model assumptions, and interpretation. A biological question can involve cells, tissues, genes, medical practice, and patient experience. Regensburg's profile makes room for these differences through research structures and shared infrastructure. A focused question should still state the object, scale, and type of change being examined before it reaches for a broad label such as digital transformation or life science.

At Regensburg, begin with the changing system before choosing a broad research theme

A useful Universität Regensburg inquiry starts by naming a changing system. It may be a geometric relation, quantum state, cell process, gene, image, material, energy practice, data system, or social relationship. Add the setting where the change occurs: a proof, simulation, laboratory, clinic, field site, archive, organisation, or public space. Then decide what can be examined, such as equations, images, samples, measurements, code, texts, observations, interviews, or models. This helps turn a wide theme into a question that can be explored carefully.

From there, the university's profile areas and facilities can provide context rather than replacing the question. A research centre may connect work across faculties. A core facility may clarify a technical capability. A network may show how a problem reaches beyond one academic area. Regensburg is particularly useful for readers who want to move between formal, digital, material, and health-related questions without flattening their differences. The clearest route keeps the changing system visible while using the university's structures to deepen the inquiry.