ultra high-frequency ultrasound: the 20 years ......conventional clinical ultrasound (human fetus)...

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Conventional clinical ultrasound (human fetus) 200-300 µm resolution 20cm, 3-15MHz Micro-ultrasound (mouse fetus) 30 µm resolution 3cm, 15cm-50MHz FEBRUARY JANUARY 20 YEARS OF INNOVATION ULTRA HIGH-FREQUENCY ULTRASOUND: THE IN RESEARCH It’s no secret that scientific research has improved the quality of life for humanity immensely. We live longer and healthier lives today than ever before. This is the direct result of gaining a better understanding of disease and biology by way of continuous research being conducted in universities, hospitals and research facilities around the world. More than ever, researchers rely heavily on imaging tools to visualize and acquire important data to be able to succeed in their research. Of all the imaging modalities available today for studying the nature of disease, ultra high-frequency (UHF) ultrasound is one of the most innovative and effective ways to acquire high resolution images and robust data. FUJIFILM VisualSonics was the first to introduce UHF ultrasound for human use in 2016. High resolution ultrasound imaging of the first 3cm below the skin is extremely useful for a variety of applications. Photoacoustic imaging combines UHF ultrasound and laser light to deliver multi-modal imaging. With the fusion of these technologies, FUJIFILM VisualSonics enables researchers to acquire anatomical, functional and molecular data, in vivo. Visualize multiple components simultaneously such as blood, exogenous contrast agents, and genetic reporters. Seeing More Matters in Preclinical Research Seeing More Matters in Clinical Research Ground-breaking applications Below are ways UHF ultrasound is impacting research projects around the world today: Delivering high-resolution images and robust data to advance research + Diagnosing the response of a healthy temporal artery as compared to an inflamed one in patients. – Sweden + Allowing for crystal clear visualization of tiny magnetic controlled robots that may someday be used to travel through your body to deliver drugs or repair minor/major organ dysfunctions. – Germany + Imaging spinal cord injuries in mice and rats to assist researchers in discovering treatments and therapies to improve outcomes and quality of life for patients. – USA + Imaging submillimeter sized neuro sarcomas (Elephant Man’s Disease) in patients in 3D before and after photodynamic therapy to study the effects as surgery is not an option in most cases. – USA + Enhancing the reproductive success of endangered species like the olms of Moulis, increasing knowledge of wildlife species to contribute to their conservation. – Germany Study high speed events such as blood flow and cardiac function as it happens in living organisms. Visualize anatomical function in high resolution; detail like you've never seen before using ultrasound. UHF ultrasound is a more cost-effective imaging solution when compared with other modalities like MRI/PET. Monitor the disease in the same subject over time with longitudinal imaging, in vivo. No negative side effects. UHF ultrasound supports the 3Rs of animal use: replacement, reduction and refinement. HIGH RESOLUTION IN VIVO, IN REAL TIME SAFE AND NON-INVASIVE COST-EFFICIENT LONGITUDINAL MOLECULAR IMAGING Track cells, drug distribution and microdistribution of biomarkers in high resolution CANCER Detect lesions early, monitor tumor development and assess response to therapy NEUROBIOLOGY Visualize anatomy and functional processes including stroke and cancer; conduct delivery of drugs, stem cells or other agents DEVELOPMENTAL Perform in vivo developmental and pregnancy research at any gestational time point WHOLE BODY Innovations in accessories allows for flexibility. Image the whole body or specific organs. SEE THE DIFFERENCE Image small arteries and veins. Measure intima-media thickness (IMT) down to the submillimeter NEONATOLOGY Visualize tiny structures and vessels in high-risk premature newborn infants SMALL PARTS See minute anatomy like nerves, lymph nodes, thyroid and glands CARDIOVASCULAR Perform robust cardiac analysis including systolic, diastolic and valvular function CONVENTIONAL ULTRASOUND 200-300 μm resolution Conventional Ultrasound ULTRA HIGH-FREQUENCY ULTRASOUND 30 μm resolution 3–15 MHz 20cm human fetus 15-50 MHz 3cm mouse fetus Animals typically used in preclinical imaging DID YOU KNOW? Ultra high-frequency ultrasound technology was developed by Dr. Stuart Foster at Sunnybrook Hospital back in 1999! In the last 20 years, FUJIFILM VisualSonics Inc, based in Toronto, Canada has taken UHF ultrasound technology from a little known innovation to a modality that is now used worldwide in a multitude of research projects across both preclinical and clinical applications. Today, with over 2500 publications citing the use of a VisualSonics imaging system, UHF ultrasound technology, the silent hero, continues to evolve while advancing human health, globally. Photoacoustics The use of contrast agents allows the visualization of cellular and molecular processes when using multi-modal imaging. Contrast agents UHF ultrasound works by emitting sound waves from a transducer at a much higher frequency than conventional ultrasound into living organisms. As the sound waves propagate through tissue, they are reflected back, creating an image. With a variety of transducers ranging in frequencies from 15 to 70 MHz, it is possible to detect structures as small as 30μm. How does it work? Microbubbles are a powerful tool for evaluating the differences between normal and pathological tissues. Non-targeted microbubbles improve visualization of blood flow with respect to the surrounding tissues. Targeted microbubbles can bind a variety of antibodies to allow for more specific visualization within the body. Microbubbles 4D image of heart Brain Mouse fetus Umbilical cord Fetus Placenta Median Nerve VASCULAR Trace blood flow in arteries using pulsed-wave doppler Right Radial Artery Artery — using UHF ultrasound Spinal cord (Infant — 4 weeks) Tumor Hindlimb Images shown have been acquired using the Vevo ® MD Images shown have been acquired using the Vevo ® 3100 and Vevo ® LAZR-X 1 mm 2 mm 1 mm

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Page 1: ULTRA HIGH-FREQUENCY ULTRASOUND: THE 20 YEARS ......Conventional clinical ultrasound (human fetus) 200-300 µm resolution 20cm, 3-15MHz Micro-ultrasound (mouse fetus) 30 µm resolution

Conventional clinical ultrasound(human fetus)

200-300 µm resolution20cm, 3-15MHz

Micro-ultrasound(mouse fetus)

30 µm resolution3cm, 15cm-50MHz

FEBRUARY

JANUARY

20 YEARS OF INNOVATIONULTRA HIGH-FREQUENCY ULTRASOUND:

THEIN RESEARCH

It’s no secret that scientific research has improved the quality of life for humanity immensely. We live longer and healthier lives today than ever before. This is the direct result of gaining a better understanding of disease and biology by way of continuous research being conducted in universities, hospitals and research facilities around the world.

More than ever, researchers rely heavily on imaging tools to visualize and acquire important data to be able to succeed in their research.

Of all the imaging modalities available today for studying the nature of disease, ultra high-frequency (UHF) ultrasound is one of the most innovative and effective ways to acquire high resolution images and robust data.

FUJIFILM VisualSonics was the first to introduce UHF ultrasound for human use in 2016. High resolution ultrasound imaging of the first 3cm below the skin is extremely useful for a variety of applications.

Photoacoustic imaging combines UHF ultrasound and laser light to deliver multi-modal imaging. With the fusion of these technologies, FUJIFILM VisualSonics enables researchers to acquire anatomical, functional and molecular data, in vivo.

Visualize multiple components simultaneously such as blood, exogenous contrast agents, and genetic reporters.

Seeing More Matters in Preclinical Research

Seeing More Matters in Clinical Research

Ground-breaking applicationsBelow are ways UHF ultrasound is impacting research projects around the world today:

Delivering high-resolution images and robust data to advance research

+ Diagnosing the response ofa healthy temporal artery ascompared to an inflamed onein patients. – Sweden

+ Allowing for crystal clearvisualization of tiny magneticcontrolled robots that maysomeday be used to travelthrough your body to deliverdrugs or repair minor/majororgan dysfunctions. – Germany

+ Imaging spinal cord injuriesin mice and rats to assistresearchers in discoveringtreatments and therapies toimprove outcomes and quality oflife for patients. – USA

+ Imaging submillimeter sizedneuro sarcomas (ElephantMan’s Disease) in patients in 3Dbefore and after photodynamictherapy to study the effects assurgery is not an option in mostcases. – USA

+ Enhancing the reproductivesuccess of endangeredspecies like the olms of Moulis,increasing knowledge ofwildlife species to contributeto their conservation. – Germany

Study high speed events such as blood flow and cardiac function as it happens in living organisms.

Visualize anatomical function in high resolution; detail like you've never seen before using ultrasound.

UHF ultrasound is a more cost-effective imaging solution when compared with other modalities like MRI/PET.

Monitor the disease in the same subject over time with longitudinal imaging, in vivo.

No negative side effects. UHF ultrasound supports the 3Rs of animal use: replacement, reduction and refinement.

HIGHRESOLUTION

IN VIVO,IN REAL TIME

SAFE AND NON-INVASIVE COST-EFFICIENTLONGITUDINAL

MOLECULAR IMAGINGTrack cells, drug distribution

and microdistribution of biomarkers in high resolution

CANCERDetect lesions early,

monitor tumor development and assess response to therapy

NEUROBIOLOGYVisualize anatomy and functional

processes including strokeand cancer; conduct delivery ofdrugs, stem cells or other agents

DEVELOPMENTALPerform in vivo developmental

and pregnancy research atany gestational time point

WHOLE BODYInnovations in accessories allows

for flexibility. Image the whole bodyor specific organs.

SEE THE DIFFERENCEImage small arteries and veins.

Measure intima-mediathickness (IMT) down to the submillimeter

NEONATOLOGYVisualize tiny structures and

vessels in high-risk prematurenewborn infants

SMALL PARTSSee minute anatomy like nerves,lymph nodes, thyroid and glands

CARDIOVASCULAR Perform robust cardiac

analysis including systolic, diastolic and valvular function

CONVENTIONAL ULTRASOUND

200-300 µm resolution

ConventionalUltrasound

ULTRA HIGH-FREQUENCYULTRASOUND

30 µm resolution

3–15 MHz20cm human fetus

15-50 MHz3cm mouse fetus

Animals typically used in preclinical imaging

DID YOU KNOW?Ultra high-frequency ultrasound technology was developed by Dr. Stuart Foster at Sunnybrook Hospital back in 1999!

In the last 20 years, FUJIFILM VisualSonics Inc, based in Toronto, Canada has taken UHF ultrasound technology from a little known innovation to a modality that is now used worldwide in a multitude of research projects across both preclinical and clinical applications.

Today, with over 2500 publications citing the use of a VisualSonics imaging system, UHF ultrasound technology, the silent hero, continues to evolve while advancing human health, globally.

Photoacoustics

The use of contrast agents allows the visualization of cellular and molecular processes when using multi-modal imaging.

Contrast agentsUHF ultrasound works by emitting sound waves from a transducer at a much higher frequency than conventional ultrasound into living organisms. As the sound waves propagate through tissue, they are reflected back, creating an image.

With a variety of transducers ranging in frequencies from15 to 70 MHz, it is possible to detect structures as small as30μm.

How does it work?

Microbubbles are a powerful tool for evaluating the differences between normal and pathological tissues.

Non-targeted microbubbles improve visualization of blood flow with respect to the surrounding tissues. Targeted microbubbles can bind a variety of antibodies to allow for more specific visualization within the body.

Microbubbles

4D image of heart Brain Mouse fetus

Umbilical cord

Fetus

Placenta

Median Nerve

VASCULARTrace blood flow in arteriesusing pulsed-wave doppler

Right Radial Artery

Artery — using UHF ultrasound

Spinal cord(Infant — 4 weeks)

TumorHindlimb

Images shown have been acquired using the Vevo® MD

Images shown have been acquired using the Vevo® 3100 and Vevo® LAZR-X

1 mm

2 mm

1 mm