Vevo F2 LAZR-X
Ultra-high to Low Frequency Ultrasound and Photoacoustics
Empower Your Research with Photoacoustic Imaging
Experience the Vevo F2 LAZR-X, the world’s only customizable multi-modal in vivo imaging platform.
Combining low to ultra-high frequency ultrasound and photoacoustics.
Customize imaging depth and resolution
- Flexibility to image at low frequency for improved Imaging depth (up to 9 cm)
- Image at ultra-high frequency for superior resolution (down to 30 microns)
Customize light delivery
- Interchangeable fiber optics that facilitate application-specific light delivery
Open platform, acoustics engineering capabilities
- Plane-wave imaging possibilities
- Obtain pre-beamformed individual channel data
The hybrid Vevo F2 LAZR-X allows users to visualize real-time oxygen saturation and molecular imaging, co-registered with high resolution anatomy. Explore the possibilities!
- Superior resolution (down to 30 µm)
- Customizable touch-screen interface
- Ergonomic design (compact and portable)
- Wider range of animal models to be used in translational research
Looking for Technical Specifications?
Dr. Jithin Jose
Customize Imaging Depth and Resolution with the Vevo F2 LAZR-X
The Vevo F2 LAZR-X is a unique platform that provides complete flexibility to researchers to expand the range of applications in preclinical imaging.
Explore Vevo F2 LAZR-X Applications
Oncology
- Tumor hypoxia assessment
- Tumor angiogenesis assessment
- Biodistribution of molecular probes
Molecular Biology
- Characterization of nanoparticles and dyes
- Sentinel lymph node mapping
- Whole-body biodistribution/pharmacokinetics
Neurobiology
- Cerebral hemodynamics
- Detection of blood-brain- barrier (BBB) disruption
- Label free detection and assessment of stroke
Cardiology
- Cardiac hemodynamics including ischemia and oxygen saturation
- Vascular malformations
- Cell tracking in the myocardium
Image Gallery
Pancreatic tumor oxygen saturation
Mouse ear vasculature
3D rendered coregistered ultrasound (greyscale) and photoacoustic (red) image of the mouse ear. The photoacoustic signal is derived from the absorption of light by hemoglobin.
Ischemia/hypoxia stroke model
Co-registered 3D rendered ultrasound (greyscale) and color Doppler (red and blue) coronal image of a mouse brain during ligation of the right common carotid artery. The red and blue color represent blood flow velocity and direction clearly showing impaired blood flow in the right hemisphere.
Blood signal in mouse brain
3D rendered photoacoustic image showing cerebral blood signal in the mouse brain.
Oxygen saturation map in the mouse brain
3D rendered co-registered ultrasound (greyscale) and photoacoustic (red, white and teal) image showing a parametric map of oxygen saturation with red signals indicating higher sO2 values.
Nanoparticle distribution in tumor
3D rendered high-resolution ultrasound (greyscale) and spectrally unmixed photoacoustic (red, blue and gold) image of a subcutaneous tumor showing nanoparticle distribution (yellow) as well as oxygenated (red) and deoxygenated (blue) hemoglobin signal.
Oxygen saturation in the myocardium
High-resolution ultrasound (greyscale) and photoacoustic (red, white and blue) image of a long axis view of the left ventricle of the mouse heart. The photoacoustic image is a parametric map of oxygen saturation in the myocardium.
Browse Publications
TOP PAPER
Quantification of murine myocardial infarct size using 2-D and 4-D high-frequency ultrasound
American Journal of Physiology-Heart and Circulatory Physiology
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TOP PAPER
Improving characterization of hypertrophy-induced murine cardiac dysfunction using four-dimensional ultrasound derived strain mapping
American Journal of Physiology-Heart and Circulatory Physiology
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TOP PAPER
Fast super-resolution ultrasound microvessel imaging using spatiotemporal data with deep fully convolutional neural network
Physics in Medicine and Biology
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TOP PAPER
Machine learning driven contouring of high-frequency four-dimensional cardiac ultrasound data
Applied Sciences (Switzerland)
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TOP PAPER
Morphological, functional, and molecular assessment of breast cancer bone metastases by experimental ultrasound techniques compared with magnetic resonance imaging and histological analysis
Bone
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TOP PAPER
A Novel Noninvasive Method for Quantitative Detection of Colonic Dysmotility Using Real-Time Ultrasonography
Digestion
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TOP PAPER
Uncoupling DNA damage from chromatin damage to detoxify doxorubicin
Proceedings of the National Academy of Sciences
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TOP PAPER
Quantification of Murine Pancreatic Tumors by High-Resolution Ultrasound
Methods in Molecular Biology
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