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uWAMIT
Ultrasound-based Washington Molecular Imaging and Therapy Center
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Our center is using ultrasound as the main modality for imaging and treating diseases in the early stages. What imaging allows us to do is look inside the body non-invasively and try to make diagnoses about disease.
Molecular imaging is trying to go to the next stage, which is to see not only what anatomically is going on, but the molecules that drive biological processes.
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Shaping the future of medicine using ultrasound
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Molecular imaging and therapy will enable personalized diagnosis and treatment of disease
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Molecular imaging and therapy center to develop, commercialize technologies UW Today, Hannah Hickey Ultrasound, best known by many for snapping pictures of babies before they are born, could soon be a way to spot cancerous cells before a tumor develops, precisely monitor how a person responds to treatment, or deliver genetic therapies to their targets. |
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1 Nov 2010
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Discover
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Translate
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Commercialize
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uWAMIT brings together the UW Department of Radiology, College of Engineering, and the Applied Physics Laboratory to discover new innovations in molecular imaging and therapy.
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Dedicated to clinical translation, uWAMIT focuses on the point of use clinical constraints and outcomes that develop into healcare opportunities.
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uWAMIT is focused on launching new startups and partnering with existing companies to develop and translate molecular imaging and therapy technology.
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uWAMIT's Focus
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At uWAMIT we believe molecular imaging and therapy will shape the future of medicine enabling personalized diagnosis and treatment of diseases. Because molecules themselves are too small to be imaged directly, specific site-targeted probes are used as beacons to identify areas of interest.
Site-targeted probes enhance a selected region that otherwise would be impossible to distinguish from surrounding tissue. Attaching specific pharmaceutical agents to these site-targeted probes enables localized delivery of treaments to the diseased site in the body.
Healthcare spending represents more than 15% of the U.S. GDP and is growing rapidly. The traditional approach to treating disease is reactive we wait until someone is sick before treating the disease with expensive procedures. We believe a radical departure from this traditional aproach is required to contain healthcare costs. Some predict that shifting to predictive, preventative healthcare delivery will save over $250 billion in healthcare spending.
At uWAMIT we believe the key to cost containment is to shift from diagnosing symptomatic patients to detecting disease in a presymptomatic population, i.e., to shift to personalized healthcare delivery.
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- Use Ultrasound in Molecular Imaging and Therapy. Ultrasound's availability, low cost, and real-time operation will transform the way medicine is conducted around the world.
- Early Stage Cancer Detection. Cancer-specific molecular probes attach to cancerous regions in the body enabling early stage screening and diagnosis of prostate, ovarian, colon, and many other cancers.
- Targeted Drug Delivery for Cancer Treatment. Specific molecular probes attached to pharmaceutical agents, such as chemotherapeutics, deliver treatment only to the affected cancerous region.
- Targeted Gene Therapy. Ultrasound mediates the transfer of genes to treat diseases such as hemophilia, diabetes, muscular dystrophy, and cystic fibrosis.
- Develop and Manufacture Site-Targeted Molecular Probes. uWAMIT develops manufacturing processes to produce and characterize contrast agents, nanoparticles, and other molecular biomarkers.
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Molecular Imaging & Therapy
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- Molecular screening identifies a high-risk individual
- Molecular imaging tests confirm disease onset and location specific to individual
- Targeted molecular therapies specific to the individual are delivered to treat disease
At uWAMIT we believe ultrasound is the enabler of molecular imaging and therapy. Just as in conventional imaging, where more ultrasound procedures are performed than any other modality, ultrasound will become a primary delivery mechanism for molecular medicine. Ultrasound is widely available, has low operating and capital costs, and operates in real time in the clinic.
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Commercialization
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uWAMIT is bridging the gap between good ideas by university invesigators and commercial solutions for improved healcare by focusing on the clinical outcomes and specific clinical constraints that develop into healthcare opportunities. uWAMIT aligns the clinical market opportunity with internal research objectives to connect opportunity with innovation.
uWAMIT is positioned strategically to:
- Focus on clinical outcomes and specific clinical constraints that develop into healcare opportunities
- Align clinical market opportunities with internal research objectives
- Develop new companies and license existing technology
- Partner with existing companies to pursue market opportunities
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Contact
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uWAMIT is located on the 3rd floor of the Benjamin Hall Interdisciplinary Research Building on the western edge of the UW campus in Seattle.
University of Washington Campus Map
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Driving Directions via northbound I-5 (from Sea-Tac Airport)
At the NE 45th Street exit, turn right (east)
Follow NE 45th Street to University Way NE, turn right (south)
Turn right onto NE Pacific Street/NE 38th Street
Turn right onto Pasadena Place NE
Stay right onto NE Northlake Place
Benjamin Hall IRB is on the left
Driving Directions via the University Bridge (from downtown Seattle)
From downtown Seattle, take Eastlake Ave. E
At the exit for Campus Parkway, turn right
Follow Campus Parkway to Brooklyn Ave., turn right (south)
Turn right onto NE Pacific Street/NE 38th Street
Turn right onto Pasadena Place NE
Stay right onto NE Northlake Place
Benjamin Hall IRB is on the left
Two-hour street parking is available along NE Northlake Way and the surrounding area. Daily parking permits for UW lots W10 and W40 are available at UW parking gates.
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Benjamin Hall Interdisciplinary Research Building
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uWAMIT brings together multidisciplinary UW faculty to focus university research assets on:
- Designing and synthesizing novel molecular probes
- Developing and validating imaging systems and protocols for molecular imaging
- Initiating collaboration among chemists, biologists, physicists, engineers, and physicians
- Developing ultrasound-assisted molecular therapies
- Translating research results into commercial healthcare solutions
Current uWAMIT research is focused on projects that integrate ultasound with biomolecular tools. These projects leverage our exisitng strengths in ultrasound and molecular imaging, have high potential for growth, form a strategic alliance between molecular ultrasound programs at the UW, and have clear potential paths to commercialization.
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Sclerosing Foams Optimized with Ultrasound Preparation Sclerotherapy is a procedure to treat varicose veins. uWAMIT researchers have discovered that ultrasound applied to therapeutic liquid solutions creates foams with smaller bubbles and a more uniform size distribution than traditional mechanical agitation methods. This technique may yield safer and more effective foam sclerosis treatments. |
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8 Jul 2016
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Non-invasive Treatment of Abscesses with Ultrasound Abscesses are walled-off collections of fluid and bacteria within the body. They are common complications of surgery, trauma, and systemic infections. Typical treatment is the surgical placement of a drainage catheter to drain the abscess fluid over several days. Dr. Keith Chan and researchers at APL-UW's Center for Industrial + Medical Ultrasound are exploring how to treat abscesses non-invasively, that is, from outside the body, with high-intensity focused ultrasound (HIFU). This experimental therapy could reduce pain, radiation exposure, antibiotic use, and costs for patients with abscesses. Therapeutic ultrasound could also treat abscesses too small or inaccessible for conventional drainage. |
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20 Jun 2016
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Co-Directors
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Affiliate Researchers
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Matt Bruce
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- Synthetic ultrasound imaging methods for tissue, blood flow, and ultrasound contrast agents
- Ultrasound detection and characterization of kidney stones
- Liver fibrosis assessment with shear wave elastography
- Ultrasound therapy assessment and monitoring in the liver
- Ultrasound assessment of vessel wall dynamics
Mike Averkiou
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- Nonlinear imaging methods for ultrasound contrast agents
- Image-guided, ultrasound-mediated drug delivery
- Ex-vivo machine perfusion of human-sized livers
- Imaging and quantification of tumor angiogenesis, tumor therapy assessment
- Carotid plaque neovascularization as a biomarker of atherosclerosis
Wayne Monsky
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- 4-D ultrasound, ultrasoundultrasound fusion, CEUS, elastography for image guidance and response assessment during microwave tumor ablation
- Thermal ablation combined with chemoembolization: Evaluation of tumor perfusion and drug delivery
- 2-D perfusion angiography during chemoembolization
- 4-D ultrasound during intratumoral infusion
Tom Matula
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- Noninvasive abscess ablation
- Genomics and epigenetics tools
- Ultrasound contrast agent characterization
- Theranostic agents
- Cell sorting
- Hematoma treatment
Matt O'Donnell
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- Biomedical imaging
- Photoacoustics
- Ultrasonics
- Molecular contrast agents
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Lilo Pozzo
Associate Professor, Chemical Engineering |
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Multifunctional nanostructures based on nanoparticle surfactants for ultrasound imaging and photothermal therapy
Bensheng Qiu
Assistant Professor, Radiology |
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Development of a cytomagnetosonoporation technique for MRI labeling of stem cells
Alan Schwartz
Clinical Assistant Professor, Radiology |
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Parathyroid ultrasound identification and correlation with surgical outcomes
Suzie Pun
Professor, Bioengineering |
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Development of targeted microbubbles for ultrasound-mediated gene transfer to the brain
John Kucewicz
Senior Engineer, APL-UW |
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Evaluation of porous polyvinyl alcohol hydrogels for contrast-enhanced ultrasound
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