Acoustics & Engineering
Vevo F2 for Versatile Ultrasound Research

Ultimate High-to-Low Frequency Ultrasound Research

Wavelength moving from left to right (1-71 MHz), phantom image scanned using L38xp, UHF22x, UHF57x and UHF71x showing the depth.
The Vevo F2 offers an expanded range of frequencies (71–1 MHz). Users now have the flexibilty to image at low frequency for penetration and ultra high frequency for resolution using one platform.

With an open architecture and access to pre-beamformed, individual channel data, the Vevo F2 is perfectly suited to satisfy the needs of acoustic engineers.

The Vevo F2 is a powerful tool that extends its benefits beyond biomedical applications, offering acoustic engineers a cutting-edge solution for studying and advancing the understanding of biomedical ultrasound. An easy-to-use graphical interface (VADA) creates an ideal opportunity to teach and train new students on the creation and testing of new pulse sequences. This ultrasound system provides users with the flexibility to tailor the platform to their specific research needs and gain access to true high frequency ultrasound data.

The Vevo F2 features:

  • 71-1 MHz frequency range
  • Ultrafast imaging (>50,000 fps)
  • Photoacoustic capabilities
  • True Nyquist sampling rates up to 192 MHz

These features open the doors to implementing new beamforming and plane wave imaging techniques such as: ultrafast Doppler, and super resolution ultrasound as well as tissue characterization (elastography).

 

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State-of-the-art Technology

Vevo F2 for Biomedical Acoustics and Engineering Research

Experience Ease-of-Use

Open and Configurable Architecture

Equipped with Vevo Advanced Data Acquisition (VADA), the Vevo F2 allows access to pre-beamformed individual channel data via an all new, easy-to-use, graphical interface.

With full control over transmit delays, waveforms, and pulse sequences, researchers now have both the power and the freedom to develop and explore new imaging methods in a quick, iterative fashion—going well beyond existing imaging modes.

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