Academia
Support teaching, experimentation, discovery, and quantitative analysis with high-speed imaging systems designed for university laboratories and academic research.
High-Speed Imaging for Education and Discovery
High-speed cameras are used in academic institutions and research laboratories worldwide to capture, visualize, and measure events that occur too quickly for conventional cameras or direct observation.
From undergraduate demonstrations to advanced multidisciplinary research, Photron systems help students and faculty investigate motion, flow, strain, impact, combustion, micro-scale behavior, and other transient phenomena.
Applications and Techniques
Photron high-speed cameras support a wide range of academic disciplines, laboratory methods, and optical measurement techniques.
Digital Image Correlation
Measure two-dimensional or three-dimensional deformation, displacement, vibration, and strain using synchronized optical tracking.
Explore DIC →Particle Image Velocimetry
Track seeded particles in gases and liquids to calculate velocity, direction, turbulence, and flow-vector fields.
Explore PIV →Microfluidics
Visualize droplets, bubbles, cells, mixing, jets, boiling, and confined flow inside microchannels and lab-on-chip devices.
Explore Microfluidics →Schlieren Imaging
Reveal invisible pressure, temperature, density, and refractive-index changes in air, gases, and transparent media.
Explore Schlieren →Combustion Research
Study ignition, flame propagation, sprays, fuel injection, detonation, pressure waves, and reactive-flow behavior.
Explore Combustion →Material Testing
Capture deformation, impact, fracture, compression, delamination, strain localization, and high-rate failure.
Explore Material Testing →Academic and Laboratory Use
One high-speed imaging platform can support instruction, individual research projects, shared laboratories, and major funded programs.
Teaching Laboratories
Demonstrate motion, vibration, impact, fluid behavior, biomechanics, and mechanical principles in an engaging visual format.
Research Laboratories
Integrate high-speed imaging with load frames, microscopes, lasers, wind tunnels, pressure sensors, and custom test rigs.
Shared Core Facilities
Support multiple departments with flexible cameras, interchangeable optics, common software, and synchronized multi-camera operation.
Engineering Programs
Serve mechanical, aerospace, civil, biomedical, chemical, materials, electrical, and manufacturing engineering research.
Published Research
Generate high-resolution imagery, measurement data, charts, sequences, and figures for papers, presentations, and grant reporting.
Grant-Funded Programs
Configure systems around specific research objectives, measurement requirements, budgets, and anticipated future projects.
Building an Academic High-Speed Imaging Program
A versatile system begins with the research objectives and expands through the right camera, optics, lighting, mounting, software, and training.
Featured Academic Research
Examples retained from Photron’s existing Academia page.
Virtual Engineering Laboratory at NIAR
Wichita State University’s National Institute for Aviation Research has used multiple Photron high-speed cameras to capture high-impact dynamic events for aviation testing and virtual engineering analysis.
Discuss an academic imaging system →High-Speed Optical Measurement for Extreme Loading
Academic researchers use high-speed photography with techniques such as DIC, PIV, interferometry, and thermography to study fracture, impact, fragmentation, and penetration in rock, soil, sand, and concrete.
Explore related research →Selecting a Camera for Academia
The best academic system balances current research needs with flexibility for future users, methods, departments, and grant-funded projects.
Planning an academic high-speed imaging system?
Share your research areas, event speeds, laboratory setup, camera requirements, user groups, and budget goals with Photron.