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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.
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Analysis and measurement of stress cracks and fractures
Analysing stress cracks and fractures with slow-motion techniques and high-speed cameras allows a detailed assessment of fracture mechanisms. This approach provides crucial data for understanding the behaviour of materials under stress, helping to improve design and safety in industrial processes.
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Analysis of fractures caused by drop events
Analysing fractures caused by drop events using slow-motion techniques and high-speed cameras allows detailed study of fracture mechanisms. This methodology provides critical data on the stresses and dynamics of materials at the moment of impact, improving understanding of structural performance.
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Analysis of physical phenomena in liquids using slow-motion techniques
Analysing the physical phenomena of liquids with slow-motion techniques, using high-speed cameras, makes it possible to study complex dynamics and fluid-dynamic interactions with great precision. This innovative approach offers new opportunities to deepen understanding of fluid behaviour, contributing to the development of advanced engineering applications and improving the design of hydraulic systems and chemical reactors.
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Analysis of transparent fluid behaviour using the Schlieren method
Analysis of transparent fluid behaviour using the Schlieren method and high-speed cameras for slow-motion footage. The technique makes it possible to visualise density variations in fluids with high precision, providing useful data for the study of complex dynamic phenomena and advanced engineering applications.
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Analysis of vehicle collisions with guardrails
Analysing vehicle collisions with guardrails is fundamental to improving road safety. Using high-speed cameras, impact dynamics can be studied in detail, from vehicle deformation to force distribution. These data make it possible to optimise guardrail design, improving its effectiveness in absorbing impacts and protecting occupants. The application of innovative technologies makes it possible to design…
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PIV analysis – measuring the flow field of a fluid
Particle Image Velocimetry (PIV for short) is an optical method for measuring the flow field of a fluid. In a given section of the flow, it provides the projection of the instantaneous velocity vector field onto that section.
Video analysis
Video analysis is an advanced technology for quality control and process control in industry. RODER SRL systems use high-resolution cameras, machine vision and artificial intelligence algorithms to identify defects, monitor parameters and optimise production. This solution enables product traceability, real-time data acquisition and integration with LASER and RFID systems. Video analysis improves process reliability, reduces inspection times and increases productivity. Thanks to these technologies, companies achieve more efficient and safer processes, ensuring high quality standards.
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