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New non-invasive technique controls size of molecules penetrating the blood-brain barrier

Researchers at Columbia University School of Engineering and Applied Science have developed a new non-invasive technique using acoustic pressure to control the size of molecules penetrating the blood-brain barrier. This breakthrough may help improve localized brain drug delivery for treatment of central nervous system diseases like Par...

SourceColumbia University School of Engineering and Applied Science·JournalJournal of Cerebral Blood Flow & Metabolism·DateAug 14, 2014

New information on transcranial ultrasound therapy

The study found that skull-base heating can result in hazardous temperature elevations when sonications are performed close to the skull-base. Three new methods to counteract this phenomenon were developed. Additionally, the formation of standing-waves is greatly reduced with specifically designed large-area ultrasound transducers.

SourceUniversity of Eastern Finland·JournalPhysics in Medicine and Biology·DateAug 4, 2014

Sports medicine physical of the future could help athletes 'ESCAPE' sudden cardiac death

A new focused ultrasound exam has been shown to accurately identify athletes with undetected cardiovascular conditions, reducing the risk of sudden cardiac death. The Early Screening for Cardiovascular Abnormalities With Preparticipation Echocardiography (ESCAPE) protocol could become the sports medicine physical of the future.

SourceBoston Children's Hospital·JournalJournal of Ultrasound in Medicine·DateJan 23, 2014

Designing an acoustic diode

Researchers in China's Nanjing University have designed a novel acoustic diode that could provide brighter and clearer ultrasound images by eliminating acoustic disturbances. The device, which uses a near-Zero Index Metamaterial, achieves one-way transmission of sound waves, crucial for medical ultrasound applications.

SourceAmerican Institute of Physics·JournalApplied Physics Letters·DateNov 1, 2013

Ultrasound patch heals venous ulcers in human trial

A new ultrasound patch has been shown to significantly accelerate healing in patients with venous ulcers, a type of chronic wound that affects millions. The patch, developed by researchers at Drexel University, delivers low-frequency ultrasound directly to wounds and was found to reduce wound size in just four weeks.

SourceNIH/National Institute of Biomedical Imaging & Bioengineering·JournalThe Journal of the Acoustical Society of America·DateAug 1, 2013

Quantum of sonics: Bonded, not stirred

Researchers at McGill University have discovered a method to join nanoparticles together using ultrasound, forming strong agglomerates without changing their useful properties. This discovery could lead to the development of new hybrid materials with various everyday applications, such as improving catalytic converters in car exhausts.

SourceMcGill University·JournalAdvanced Materials·DateJul 26, 2013

Good vibrations: Mediating mood through brain ultrasound

University of Arizona researchers have discovered that ultrasound waves applied to specific areas of the brain can alter patients' moods. The study, led by Dr. Stuart Hameroff, found improvements in mood for up to 40 minutes following treatment with brain ultrasound, compared to no difference when the machine was switched off.

SourceUniversity of Arizona·JournalBrain Stimulation·DateJul 18, 2013

First-ever presentation using holograms conducted by Dr. Sengupta at the ASE's 2013 24th Annual Scientific Sessions

Dr. Partho Sengupta presented the first-ever hologram presentation at the ASE's 2013 24th Annual Scientific Sessions, utilizing 3D digital images and expert interview recordings to analyze cardiovascular system structure, function, and flow patterns. This innovative presentation format was made possible through collaborative efforts of...

Using microbubbles to improve cancer therapy

Researchers developed phase shift nanoemulsions that produce tiny microbubbles, which accumulate in tumors and amplify the effects of ultrasound. This reduces treatment time and power needed to destroy tumor tissue by over half, showing promise for improving cancer therapy.

SourceBMC (BioMed Central)·JournalJournal of Therapeutic Ultrasound·DateApr 24, 2013