Verbrennung
Capture ignition, flame propagation, fuel spray, explosions, and propulsion events in precise detail with high-speed imaging designed for fast, bright, and technically demanding combustion research.
Visualizing Rapid Chemical Reactions
Combustion research examines complex chemical reactions between fuels, oxidizers, heat, and flame. These reactions can develop extremely quickly, making high-speed imaging essential for revealing ignition timing, flame structure, propagation, instability, and energy release.
Photron camera systems are used in automotive engine development, aerospace propulsion, burners, turbines, explosions, spray research, and academic combustion laboratories.
Combustion Applications
High-speed cameras help researchers connect visible combustion behavior with pressure, temperature, emissions, flow, and performance measurements.
Flame & Ignition Studies
Observe flame kernels, ignition events, flame fronts, quenching, flashback, blowoff, and combustion stability over time.
Fuel Spray & Atomization
Capture injection timing, droplet formation, spray penetration, breakup, evaporation, mixing, and interaction with airflow.
Engines & Propulsion
Analyze automotive engines, gas turbines, burners, jet engines, rocket motors, and other propulsion systems under dynamic operating conditions.
Automotive Engines
Study direct injection, spark ignition, diesel combustion, pre-ignition, knock, flame travel, and in-cylinder events.
Aerospace Propulsion
Visualize combustion in rocket motors, jet engines, turbine systems, injectors, combustors, and experimental propulsion devices.
Explosions & Deflagration
Record explosion growth, flame acceleration, ignition points, pressure-wave interaction, and enclosure effects.
Burners & Furnaces
Evaluate burner performance, flame shape, mixing, stability, thermal processes, and industrial heating systems.
Combustion Instability
Track oscillation, flicker, pressure-coupled behavior, flame motion, and unsteady combustion modes.
Reactive Flow
Combine combustion imaging with flow visualization to study mixing, turbulence, density gradients, and reaction zones.
Supporting Imaging Techniques
Combustion research often combines high-speed cameras with specialized lighting and optical methods.
Schlieren Imaging
Visualize density gradients, shock waves, hot-gas movement, and otherwise invisible changes in transparent gases.
Explore schlieren imaging →Particle Image Velocimetry
Measure velocity fields and flow structures using tracer particles, pulsed laser illumination, and high-speed recording.
Explore PIV →Laser-Beleuchtung
Use short, intense laser pulses to freeze spray, droplet, particle, and flow motion with high image contrast.
Explore laser illumination →Selecting a Camera for Combustion
Combustion imaging places unusual demands on camera speed, dynamic range, sensitivity, exposure control, synchronization, and optical filtering.
Need help imaging a combustion event?
Share your expected event duration, frame rate, field of view, light level, and optical setup with Photron.