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QS ranking profile

University of Hyderabad

India 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
#801
No change since 2025
QS 2025 rank
#801
Overall score
Not published
Verified Catalog STEM PhDs, Postdocs & Fellowships

Explore opportunities at University of Hyderabad

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 17.7

#692 worldwide

Employer reputation 4.6

#701 worldwide

Faculty-student ratio 20.7

#801 worldwide

Citations per faculty 54.5

#335 worldwide

International student ratio 2.6

#801 worldwide

International student diversity 6.9

#801 worldwide

International research network 34

#801 worldwide

Employment outcomes 3.4

#801 worldwide

Sustainability 42.1

#801 worldwide

Institution profile

How QS classifies this institution

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

Size
Medium
About 5,000 to 12,000 students
Subject range
Focused
Teaches a limited range of faculty areas
Research intensity
Very high
Very high research output in the QS classification
Region
Asia
QS regional grouping

University profile

About University of Hyderabad

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

University of Hyderabad research spans life science, physics, materials, weather, health, and digital systems

The University of Hyderabad's Research and Development Cell presents a broad research environment that includes facilities and resources, projects, collaboration, innovation, patents, and faculty expertise. Its research news makes the breadth concrete: recent items range from Lactobacillus johnsonii and enteric pathogens to sustainable manufacturing, a non-contact terahertz scanner, advanced nano-material fabrication, heat-related mental health, precision oncology, extreme weather, and open-source chip design. These are not variations on one general science topic. Each begins with a different object. It may be a microorganism, material, scanner, weather pattern, policy setting, health condition, or electronic design process.

This variety matters when forming a question. A life-science problem may ask about a biological mechanism, organism, cell, or response under a particular condition. A materials question could focus on composition, structure, process, or measured property. Work on extreme weather may need atmospheric data, a seasonal pattern, model, or physical event. A social or mental-health question may require people, lived experience, records, institutions, or a defined environmental exposure. The university's research range is most useful when these differences are kept intact instead of being compressed into a broad phrase such as innovation or interdisciplinary study.

At University of Hyderabad, methods must suit the scale and material of the question

The R&D Cell highlights work on green engineering for sustainable manufacturing, a terahertz profilometer for metals and explosives, and a project on the pathways linking heat, agriculture, depression, and lived experience. Those examples work at sharply separate scales. A manufacturing study can examine a material, process, component, energy condition, or performance result. A scanner question may depend on a signal, surface, instrument setting, calibration process, or measurement comparison. The heat-related project directs attention to environmental conditions, agricultural circumstances, mental health, and the experience of people living through change. No single method would automatically serve all three.

A reader can use this contrast to make an emerging topic more precise. If the concern is a material, it helps to name the property or transformation at stake. If it is a device, specify what the device detects or measures and in which conditions. If it is a human experience, identify the population, setting, and kind of account or record that would make the question answerable. The university's public material also makes precision oncology, life-science work, open-source chip design, and community-based participatory research visible. These settings may overlap in a larger public concern, but they still require evidence that fits their own object and scale.

A University of Hyderabad search becomes more focused when the key relationship is stated in plain terms

The research site points to projects, research networks, industry and community partnerships, policy guidance, facilities, and faculty expertise. Those routes are valuable after a question is shaped, not before. Start with a relationship stated in simple terms. It could involve a material and its response to a process, an environmental condition and a health outcome, a biological mechanism and a disease-related change, or a digital system and the pattern it produces. Then choose the form of evidence needed. It may be laboratory data, a device reading, historical or policy documents, interviews, field observations, clinical records, or a comparison across conditions.

This approach can make the university's cross-disciplinary work easier to navigate. A question about rising temperatures and wellbeing does not need to become a general climate topic. It can specify a location, population, season, agricultural circumstance, and experience to examine. A question about a terahertz device can identify the material, signal, accuracy requirement, or setting of use. A life-science topic can name the organism, pathway, cell, or intervention under study. Once that foundation is in place, the university's facilities, networks, research cell, and collaborative routes can help locate a fitting setting for the work without overstating what a broad institutional label can show.