Oregon State University
#624
QS World University Rankings 2026
27.5
QS 2026 overall score
Ranking data
QS World University Rankings source#624
QS World University Rankings 2026
#641
QS World University Rankings 2025
27.5
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
- 19.7
- QS 2026 rank
- #626
Employer reputation
- QS 2026 score
- 11.9
- QS 2026 rank
- #701
Faculty-student ratio
- QS 2026 score
- 20.4
- QS 2026 rank
- #801
Citations per faculty
- QS 2026 score
- 44.4
- QS 2026 rank
- #423
International faculty ratio
- QS 2026 score
- 17.3
- QS 2026 rank
- #761
International student ratio
- QS 2026 score
- 11.9
- QS 2026 rank
- #801
International student diversity
- QS 2026 score
- 9.1
- QS 2026 rank
- #801
International research network
- QS 2026 score
- 80.3
- QS 2026 rank
- #350
Employment outcomes
- QS 2026 score
- 28.8
- QS 2026 rank
- #579
Sustainability
- QS 2026 score
- 64.1
- QS 2026 rank
- #420
About Oregon State University
Oregon State University connects health, natural resources, technology, and practical inquiry
Oregon State University presents research and innovation as work connected with health and well-being, natural resources, technology, workforce and community development, and practical problem solving. Its public pages also show a university with locations and activities that extend across Oregon. This context is useful because a research question can have a physical, ecological, technical, social, and institutional setting at once. A natural-resources question may require field samples, remote sensing, maps, ecological observations, community knowledge, and policy records. A health question can involve biological evidence, care practices, behavioural information, service data, or environmental exposure. A technology question may centre on materials, systems, hardware, software, measurement, or human use.
The university's research page also describes routes that connect discovery with real-world applications. That does not mean every research question should be framed as a product or commercial outcome. A basic science question may need controlled experiments, instruments, models, and reproducible analysis. A community question may require documents, interviews, surveys, participatory observation, or administrative records. An environmental question may need long-term measurements, field evidence, models, and local context. The right research route is the one that identifies the object, setting, and evidence clearly enough for a reader to check the connection.
Oregon State research stories distinguish resilient electronics, planetary robots, and mineral-based pigments
Oregon State University's public research stories include work on electronics that can better withstand radiation, a dog-like robot tested in a Mars-like field environment, and the use of a rare mineral as a guide for new pigment colours. These examples are useful because they make three very different research objects visible. Radiation-resilient electronics can involve materials, circuit design, radiation conditions, test equipment, reliability measures, and system performance. A planetary-robot question can require locomotion, sensing, control systems, field testing, environmental constraints, and operational data. A pigment question may depend on mineral structure, chemistry, optical properties, synthesis, durability, and safety testing.
The examples should not be compressed into one generic statement about engineering or innovation. Each one points to a distinct setting and evidence trail. A materials question may start with a sample and a measurement. A robot question may start with a task, an environment, sensor readings, and test observations. A colour or pigment question may start with a mineral property, a chemical process, and visual or physical performance. The public stories offer useful terms for finding a project, research group, laboratory, or publication that can provide a closer account. They do not establish that every technical topic belongs to the same team or uses the same method.
For Oregon State University, define the system, location, and material evidence before searching
For Oregon State University, begin by naming the system and place involved in the question. The system might be an electronic component, a robot, a pigment, a forest process, a health practice, an energy system, or a community service. The place could be a laboratory, field site, building, coastline, clinic, data environment, or local organisation. Then identify what could be examined: samples, instrument readings, images, code, sensor traces, documents, interviews, surveys, models, maps, or observations. This gives the university's research and innovation pages a practical function in a targeted search, rather than treating their broad problem-solving language as a conclusion.
Oregon State's public material establishes visible research stories and a wide institutional context for discovery and application. It does not demonstrate that a particular unit is working on a reader's exact issue, or that a specific facility and method are appropriate for a proposed study. A careful conclusion needs a local public record linking the topic with a named person, project, laboratory, centre, or output. When the available source only indicates an adjacent research area, it should remain a lead for more checking. That evidence-led approach makes the Oregon State University profile helpful for serious research exploration and accurate about the limits of a university-wide page.
Institution record
- Country
- United States of America
- Region
- Americas
- 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.