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Sonus Array Technology
Revolutionizing Ultrasound witH
For nearly a century, ultrasound imaging has relied on piezo-ceramic sensors to generate the sound waves that create diagnostic images. Despite incremental advancements like higher resolution screens and smaller electronic components, the fundamental technology has remained largely unchanged.
Until now
Sonus is transforming ultrasound imaging with cutting-edge polymer MEMS technology. Our innovative approach enables ultrasound transducers to be produced more quickly, at a fraction of the cost, and in highly customizable form factors. We are dedicated to advancing this technology to open new possibilities for ultrasound, extending its reach far beyond traditional applications and redefining its potential in healthcare.
How it Works
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01
Sonus Array Technology uses tiny, flexible ultrasound sensors made from advanced polymers.
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02
Our unique approach layers together metals and polymers to form intricate membranes called polyCMUTs, that vibrate at high frequencies to create clear, detailed images.
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03
The compact size and flexibility of these sensors allow them to be arranged in various shapes and configurations for highly efficient customizable solutions.
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04
By replicating thousands of these tiny sensors across a surface, we can build high performance transducers tailored to a wide range of medical imaging applications, such as the Sonus Patch shown here.
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Enhanced
Performance
In a head-to-head comparison, the Sonus polymer transducer demonstrated nearly double the bandwidth of current ultrasound probes on the market, while maintaining comparable sensitivity and uniformity. This increased bandwidth enhances image resolution and sharpness across a broader range of tissue types.
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*most recent Sonus Array design
**range of readings from various commercial probes
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Unlocking Novel Applications
With our Sonus Array Technology, ultrasound applications are limitless. Partner with us to discover how polymer based ultrasound transducers can change your business.
Fast prototyping
Expedited time-to-production
Reduced R&D costs
Transducer drums have typically been made out of rigid silicon materials that require costly, environment-controlled manufacturing processes, and this has hampered their use in ultrasound. By using polymer resin, we are able to produce polyCMUTs in fewer fabrication steps, using a minimum amount of equipment, resulting in significant cost savings and unique capabilities.
Dr. Robert Rohling
UBC Professor, Medical Ultrasound
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A. Omidvar; R. Rohling; E. Cretu; M. Cresswell; A. J. Hodgson
Ultrasonics, 136
M. Angerer; J. Welsch; C. D. Gerardo; N. V. Ruiter; E. Cretu; R. Rohling
2023 IEEE International Ultrasonics Symposium (IUS)
J. Welsch; C. D. Gerardo; R. Rohling; E. Cretu
2023 IEEE International Ultrasonics Symposium (IUS)
Ultrasonics, 136
A. Omidvar; R. Rohling; E. Cretu; M. Cresswell; A. J. Hodgson
G. Guerreiro; Z. Chen; C. D Gerardo; R.Rohling; E.Cretu
2022 IEEE International Ultrasonics Symposium (IUS)
2022 IEEE International Ultrasonics Symposium (IUS)
J. Welsch; E. Cretu; R. Rohling; C. D. Gerardo
A.Omidvar; C. D. Gerardo; R. Rohling; E. Cretu; A. J. Hodgson
2021 IEEE International Ultrasonics Symposium (IUS)
A. Omidvar; R. Rohling; E. Cretu; M. Cresswell; A. J. Hodgson
2021 IEEE International Ultrasonics Symposium (IUS)
C. D. Gerardo, E. Cretu, R. Rohling
Nature, Microsystems & Nanoengineering; 4(19)
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