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Level measurement in tanks and silos with LASER distance meters
LASER distance meters are a precise, reliable solution for level measurement in tanks and silos, ensuring operational efficiency and safety in industrial processes. LASER technology ensures accurate measurements even in difficult environments or with complex materials.
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Coil diameter and position measurement with LASER distance meters
Precise measurement of coil diameter and position using laser distance meters represents a significant advance in industrial quality control. This non-invasive technology ensures accuracy and repeatability, overcoming the limitations of traditional methods
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Position measurement of high-temperature objects with LASER distance meters
Measuring the position of high-temperature objects is a significant technical challenge, effectively solved by the use of LASER distance meters. This technology ensures accuracy, reliability and safety even in extreme environments, making it ideal for high-precision industrial applications.
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Coil diameter measurement with LASER distance meters
Measuring coil diameter with LASER distance meters offers a precise, efficient solution for real-time control of industrial processes, ensuring reliability, reduced scrap and optimised use of resources.
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Analysis of liquid and adhesive dispensing
The analysis of liquid and adhesive dispensing is optimised through slow-motion techniques and high-speed cameras. These instruments make it possible to observe application processes precisely, improving the effectiveness and efficiency of industrial operations. Detailed footage provides valuable information for process improvement.
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Analysis of a battery explosion
The analysis of a battery explosion uses slow-motion techniques and high-speed cameras to capture critical details of the phenomenon. The footage provides fundamental information on battery failure mechanisms, contributing to the design of safer and more reliable systems.
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Analysis of metal powder combustion
The analysis of metal powder combustion uses slow-motion filming techniques and high-speed cameras to observe ignition and propagation processes. These methods make it possible to acquire detailed data, improving understanding of combustion phenomena and their engineering applications.
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Analysis of high-speed phenomena
Analysing high-speed phenomena with slow-motion video uses advanced cameras to capture critical details that would otherwise be invisible. This technology makes it possible to study complex dynamics, optimise industrial processes and improve the reliability of engineering systems.
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Analysis of the behaviour of cavitating fluids
Analysing the behaviour of cavitating fluids using slow-motion techniques and high-speed cameras makes it possible to examine complex phenomena in detail. This methodology provides valuable information on the dynamics of bubble formation and collapse, improving understanding of the effects on the design of hydraulic systems.
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Analysis of stone fracture
Analysing stone fracture with slow-motion techniques and high-speed cameras makes it possible to observe critical details in fracture processes. This approach provides valuable information on the mechanical properties of materials and fracture dynamics, helping to improve the design of structures and materials.
Chemicals
Chemical plants: residual thickness and corrosion, gas detection, process temperature and humidity, material traceability.
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