Q2 Laser RADAR for biomedical motion research

Munich, Germany | 13 May 2025 — Ommatidia measured full-field surface motion at the Technical University of Munich (TUM), using Q2 Laser RADAR to connect vibration time series with spatial response maps.

Discuss your biomedical measurement study

Share your target motion and measurement requirements with our team to select a Q2 research workflow.

At Prof. Dr. Daniel Rixen’s invitation, Eduardo Margallo and Óscar Enríquez worked with Dr.-Ing. Johannes Maierhofer and the Chair of Applied Mechanics on the biomedical measurement setup.

Q2 Laser RADAR for biomedical motion research


From surface motion to spatial vibration maps

Q2 combines distance and velocity measurements without attaching sensors to the target. Researchers obtain a spatial view of vibration alongside its time and frequency response.

Explore Q2 Laser RADAR and its parallel measurement workflow.


TUM test setup: a gelatin abdominal phantom

A gelatin abdominal phantom represented the tissue-like test surface. A simulated blood-pressure waveform drove mechanical vibrations, and Q2 measured the resulting surface-velocity field.

TUM test setup: a gelatin abdominal phantomTUM test setup: a gelatin abdominal phantomTUM test setup: a gelatin abdominal phantom

Phantom and optical intensity before and after surface coating

Measured results:

  • The phantom measurement setup was completed in under 15 minutes

  • Frequency peaks were measured at 4.5, 8.5, 12.5, 19.6 and 74.5 Hz

  • Velocity time series and FFT maps connected spectral response with spatial position

  • Coating the phantom surface increased the recorded optical intensity

The measurements linked frequency peaks with full-field surface response, giving the team a quantified dataset for follow-up experiments.

Q2 vibration spectrum


Spatial vibration maps at the measured frequency bands

Spatial vibration maps at the measured frequency bands


Arm-motion measurements at Ommatidia

Arm-motion measurements at OmmatidiaArm-motion measurements at Ommatidia

Further measurements at Ommatidia captured surface motion on a human arm without attaching sensors.

The acquisition included:

  • A two-second step scan across the arm

  • A 30-second line measurement for continuous spectral data

The scans produced surface-velocity traces and spatial spectral data for investigating arm motion.

Arm-motion measurements at OmmatidiaQ2 vibration spectrumQ2 vibration spectrum

Thirty-second line measurement

Thirty-second line measurement


Practical tools for biomedical measurement research

Build a study around the motion, spatial coverage and output you need:

  • Efficient setup: the reported phantom setup took under 15 minutes

  • Non-contact acquisition: measure the surface without attached sensors

  • Frequency analysis: combine velocity time series with spectral maps

  • Compact design: tripod-mounted and portable between measurement positions

  • Analysis-ready output: velocity traces and spatial response maps

Share your target motion and measurement requirements with our team to select a Q2 research workflow.

Explore Q2 Laser RADAR


Plan a repeatable measurement study

Ommatidia Q2 Laser RADAR for non-contact vibrometry

Ommatidia Q2 Laser RADAR for non-contact vibrometry

Use full-field measurements to connect the test geometry with dynamic response and build a repeatable research dataset:

  • Full-field surface-velocity measurement

  • Repeated measurements with controlled excitation

  • Spatial comparison of vibration frequency signatures

  • Time-synchronized motion datasets


Discuss your biomedical measurement study

Biomedical researchers and engineers can work with Ommatidia on target selection, acquisition settings and data analysis.

Plan your Q2 biomedical measurement workflow

Discuss your study

Ommatidia Upgrade & Trade-In Program

Upgrade to Ommatidia’s latest Laser RADAR technology and unlock more capability for your next measurement challenge. Whether you are expanding an existing setup or replacing an older system, we offer tailored upgrade options with discounts of up to 40%.

If you are currently using another manufacturer’s system, send us your model and measurement requirements. We will review your trade-in possibilities, identify the best Ommatidia configuration, and outline a practical upgrade path for your team.

Discuss your upgrade or trade-in

Medical vibrometry research questions

Q2 captures full-field surface-velocity data without contact, connecting measured frequency signatures with spatial response maps for biomedical research.

What did the TUM medical-vibrometry demonstration test?

The published feasibility work used a gelatin abdominal phantom driven by a simulated blood-pressure waveform. Q2 measured surface-velocity time series and full-field spectral maps without attaching sensors. A later exploratory arm test used a two-second step scan and a 30-second line measurement.

Which vibration signatures did the phantom test capture?

The reported setup captured peaks at 4.5, 8.5, 12.5, 19.6 and 74.5 Hz. These frequency signatures document the response of the phantom, excitation and optical configuration and provide a precise basis for repeatable follow-up studies.

What measurement capability did the demonstration establish?

Q2 established contactless full-field surface-velocity measurement on the abdominal phantom and captured exploratory arm motion with step and line scans. Biomedical researchers gain quantified spatial and temporal data for designing the next controlled study.

How can research teams build on the TUM measurement workflow?

The next study can combine Q2 full-field maps with a selected clinical reference, predefined endpoints, synchronized acquisition and a repeatable motion-control protocol. This creates an analysis-ready dataset that links Laser RADAR response with accepted reference measurements across the study population.