SBIR/STTR Research Award
A circular array desktop ultrasound tomography system for cross sectional imaging of small animals
Award amount
$148,280Program and phase
SBIR · Phase IAward year
2017Award details
- Awarding agency
- Department of Health and Human Services
- Branch
- National Institutes of Health
- Recipient company
- Sonamed Technologies, LLC
- Proposal award date
- 2017-08-17
- Contract end date
- 2018-08-16
- UEI
- WYUGSJQMDU45
- Solicitation number
- PAR15-186
- Topic code
- 100
Research abstract
The long term goal of the proposed project is the development of a desktop circular array Small
Animal Ultrasound Tomography System SAUTS to produce high resolution cross sectional
diagnostic images of mice and other small laboratory animals The SAUTS images will look
familiar to the radiologist resembling those produced by Micro CT or MRI They will be easy to
interpret as the circular tomographic approach alleviates most of the artifacts associated with
conventional ultrasound images The effects of the animal s heartbeat breathing and motion on
the image quality will be minimized by resorting to very high recording frame rates The ability to
map multiple elastic parameters e g sound speed reflectivity and attenuation can be used to
fully characterize the biomechanical properties of internal organs and tumors
SAUTS will simplify the routine examination process In some cases it will be even possible to
hold the animal by hand while pressing a foot pedal to take an instant image To scan a set of
multiple slices a comfortable and stress free mouse holder will be supplied Compared to other
cross sectional imaging modalities SAUTS will be relatively inexpensive portable and suitable
for daily repeated testing without harming animals and as a result eliminating any possible
influence on the outcome of biomedical and pharmaceutical experiments being monitored
The proposed Phase I project has the following Specific Aims To prove the feasibility of in
house manufacturing of a ring array probe with embedded signal conditioning electronics and to
test its performance on laboratory phantoms To develop a realistic top level design of an
affordable high resolution imaging system These Aims will be achieved by a designing
building and optimizing a channel segment of a low noise ultrasound probe b Assembling
a element circular array from segments and connecting it to the existing phased array
controller c Implementing data acquisition and image reconstruction software and verifying
performance on phantoms d Turning the ring array by small angular increments and
compounding the data to study the expected resolution at higher channel counts d Preparing
Phase II development plan Successful completion of these steps will allow building a practical
SAUTS prototype with large channel count and high frame rate in Phase II Once
commercialized SAUTS will be used in biomedical and pharmaceutical research labs to monitor
anatomical changes in vascular digestive respiratory reproductive and other systems of small
animals including growth shrinkage of tumors in response to new drugs and therapies The proposed desktop circular array Small Animal Ultrasound Tomography System will produce
high resolution cross sectional diagnostic images of mice and other small laboratory animals It
will simplify the routine examination process and produce images that are anatomically correct
easy to interpret and free from many artifacts associated with conventional ultrasound
Compared to other cross sectional imaging modalities the proposed system will be relatively
inexpensive portable and suitable for daily repeated testing without harming or stressing
animals and as a result eliminating any possible influence on the outcome of biomedical and
pharmaceutical experiments being monitored
Technology keywords
Not reported
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