Infrared Thermal Imaging Cameras
Range of thermal cameras with spectral wavelength targeting an application from molten metal, metal, glass and non metal.
Range of thermal cameras with spectral wavelength targeting an application from molten metal, metal, glass and non metal.
Temperature range: 450-1800°C
Spectral range: 0.85 – 1.1 μm
Resolution: 764 x 480 pixels
Temperature range: 900-2450°C
Spectral range: 500-540 nm
Resolution: 764 x 480 pixels
Temperature range: 575-1900°C
Spectral range: 780 – 820 nm
Resolution: 764 x 480 pixels
Entry level industrial grade camera for continuous online measurements for non metal applications
Temperature range: -20-1500°C
Spectral range: 8 – 14 µm
Resolution: 640 x 480 pixels
Entry level industrial grade camera for continuous online measurements for non metal applications
Temperature range: -20-900°C
Spectral range: 8 – 14 µm
Resolution: 80 x 80 pixels
For condition based monitoring and various other non metal applications including features like hotspot detection
Temperature range: -20-1500°C
Spectral range: 8 – 14 µm
Resolution: 382 x 288 pixels
Tapping temperature at Cast iron foundry…
Heating Special wavelength camera to minimize the influence of emissivity adjustment…
Choose the temperature range of the infrared sensor as optimal as possible in order to reach a high resolution of the object’s temperature.
The maximum acceptable ambient temperature of the IR temperature sensors is very important. By using water and air cooling the measuring devices operate in even higher ambient temperatures. Air purge systems help keep the lenses clean from additional dust in the atmosphere.
The size of the measuring object has to be equal to or bigger than the viewing field of the temperature sensor in order to reach accurate results.
The emissivity depends on material, surface and other factors. The higher the emissivity, the easier the measurement generates a precise result. Many infrared sensors offer adjustment of the emissivity.
The interface supports the analysis of the measuring temperature readings.
Thermal imaging cameras provide a visual representation of temperature distribution across a surface or object, allowing for quick identification of hotspots, temperature gradients, and anomalies. This visual feedback enables users to better understand the thermal behavior of the system being monitored.
Thermal imaging cameras typically have a wider field of view compared to IR pyrometers, allowing for the simultaneous monitoring of multiple areas or objects within the camera’s range.
Thermal imaging cameras provide real-time thermal imaging, allowing for continuous monitoring and immediate detection of temperature variations or anomalies. This real-time feedback is valuable for process control, safety monitoring, and predictive maintenance applications.
Infrared Thermal cameras and pyrometers can measure temperature remotely without physical contact with the object being monitored. This is particularly advantageous for monitoring moving objects, hazardous environments, or delicate surfaces where contact measurement may not be feasible or safe.
Thermal imaging cameras can be used to monitor the temperature distribution inside furnaces and other heating equipment. This helps ensure uniform heating of steel billets or ingots, leading to better quality products and optimized energy usage.
Thermal imaging is effective in identifying hot spots in production processes, such as in rolling mills or during welding operations. Detecting these hot spots early can prevent equipment damage and improve workplace safety.
Thermal imaging cameras can detect surface defects, cracks, or irregularities in products by identifying temperature variations. This helps in quality control processes, ensuring that only defect-free products are shipped to customers.
After the material has been heated and shaped, it needs to undergo controlled cooling processes to achieve the desired properties. Thermal imaging cameras can monitor the cooling process, ensuring that it occurs uniformly and efficiently, thus preventing issues like uneven cooling or quench cracking.
Thermal imaging is used for predictive maintenance of critical equipment such as motors, bearings, and electrical systems in plants. By detecting abnormal heat patterns, maintenance teams can identify potential failures before they occur, minimizing downtime and reducing maintenance costs.
Thermal imaging cameras are valuable tools for safety inspections in plants. They can detect overheating equipment, such as motors, bearings, or electrical connections, which could pose fire hazards or lead to equipment failures.
By monitoring heat loss and energy consumption in various processes, thermal imaging helps identify opportunities for energy optimization and efficiency improvements in production facilities.
Thermal imaging cameras are utilized for fire prevention and detection in plants. They can quickly identify overheating equipment or materials, allowing operators to take corrective actions before a fire occurs.
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