Explore how teams use our technology in real-world scenarios through company-developed application examples and Case Studies. Learn about the challenge, the approach, and the outcomes, with practical details you can apply to your own work.
You’ll find concise overviews of the context, the measurement setup, and the key decisions that shaped each solution, along with validated results and performance improvements. Whether you’re evaluating options, planning a pilot, or extending an existing workflow, these examples are designed to help you compare approaches, avoid common pitfalls, and move faster with confidence.
28 April 2026
Demonstration of remote, non contact vibration measurement of a building under ambient excitation using the Ommatidia Q2 multibeam Laser Doppler Vibrometer. At 25 m stand off, 65 simultaneous points enabled structural analysis with high sensitivity and resolution.
17 March 2026
Q2 mapped full-field vibration on a Morane-Saulnier MS.760 Paris aircraft at ONERA under nominal 10 Hz and 26 Hz excitation using 65 simultaneous optical channels.
6 March 2026
At the Institute of Structural Mechanics, Bauhaus-Universität Weimar, Q2 captured 65 simultaneous optical velocity channels during a concrete-slab hammer-impact test and assembled a dense spatial response map.
5 March 2026
Q2 measured an electric generator at a nominal 3,600 RPM, combining 65 simultaneous optical channels with 101 spatial frames to map operating vibration without contact.
5 March 2026
The Case Study proofs the system’s capability to detect fundamental and harmonic vibration modes in an industrial motor and identify localized hotspots, supporting its suitability for industrial quality control, structural testing, and predictive maintenance.
4 March 2026
Measurement and analysis of structural vibrations in a real wind turbine tower using the Ommatidia Q1 multi-channel lase Doppler vibrometer, aimed to characterise the dynamic behaviour of the tower under both operational (moving rotor) and non-operational (static rotor) conditions, and to proof the capability of Q1 to resolve modal content across multiple spatial channels simultaneously.