Solutions relating to
Aerospace
Distributed acoustic sensing

Distributed Acoustic Sensing (DAS) transforms fiber optic cables into dense sensor arrays, capturing vibrations for geophysical imaging, structural monitoring, and non-destructive testing with unparalleled spatial coverage.

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Physics-informed digital twins

Build high-fidelity digital twins using physics-based simulations of 3D wavefields. Salvus supports scalable, efficient modeling for complex environments and advanced research workflows.

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Simulation software

Simulate wave phenomena in acoustics, seismology, and other fields to predict and analyze wave behavior in complex environments. Our tools support accurate modeling for engineering design and research applications.

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Structural health monitoring

Continuously assessing infrastructure integrity using sensors and wave-based techniques to detect damage and prevent failures.

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Case studies relating to
Aerospace

Phased array modeling for ultrasonic applications

Simulations of elastic wave propagation helps optimizing phased array transducers by modeling ultrasonic wave behavior. Salvus simulations enable fast and efficient analysis of focal depth adjustments and transducer performance.

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Non-destructive testing using guided waves in digital twins for CFRP-based objects

We show how accurate meshing as well as heterogeneous and anisotropic materials allow us to create physically accurate digital twins replicating ultrasonic guided waves in layered composites, fundamental to non-destructive testing.

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Simulating radiation patterns and phases for ultrasonic transducers

Simulating P-wave versus S-wave dominant transducers within a elastic media using Salvus.

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Ultrasonic inspection detection limit in Glass Fiber Reinforced Plastics (GFRP)

This case study shows the usage of Salvus for illustrating how different levels of attenuation in realistic materials influence the signals generated by material defects, thereby influencing the limits of detection.

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