Focal Ultrasound Regenerates Alzheimer's Patients’ Brains
|
By MedImaging International staff writers Posted on 22 Jan 2020 |

Image: Clinical sonication can help reverse Alzheimer’s disease (Photo courtesy of Storz Medical)
A new navigated ultrasound focal brain therapy can activate neurons to help regenerate brain functions in Alzheimer's disease (AD), claims a new study.
Developed at the Medical University of Vienna (MedUni; Austria), Storz Medical (Tägerwilen, Switzerland), the Center for Movement Disorders (Bad Krozingen, Germany), transcranial pulse stimulation (TPS) is a clinical sonication technique based on ultrashort ultrasound pulses which markedly differ from existing focused ultrasound techniques, as the pulse emitted by the ultrasound device is 3-5 mm wide, and approximately three cm long. An accurate "map" is first of all made of the patient's brain using magnetic resonance imaging (MRI).
The TPS pulse causes short-term membrane changes in the brain cells, affecting the concentration of transmitters and other biochemical substances. This results in activation of brain neurons and the development of compensatory networks that improve brain function. In a clinical pilot study involving 35 patients with AD, neuropsychological scores improved significantly after TPS treatment, and the improvement lasted up to three months, correlating with an upregulation of the memory network, as evidenced by functional MRI (fMRI) data. The study was published on December 23, 2019, in Advanced Science.
“For the first time in the world, TPS enables us to penetrate into all areas of the brain by means of an ultrasound pulse delivered directly to the skull in a non-invasive, painless procedure, during which the patient is fully conscious, and to specifically target particular areas of the brain and stimulate them,” said lead author Roland Beisteiner, MD, of MEdUni. “It is like starting up an old engine again. Those neurons that are still activatable show marked improvements after the procedure. The decline in performance is slowed down.”
TPS was delivered using the Storz Neurolith system using an ergonomic handpiece that minimizes hand fatigue, facilitating treatment when working directly on the patient. A coupling surface adapts to any shape of head, making the treatment with focused pulses simple and efficient. Biological effects of TPS include increased cell permeability, stimulation of mechanosensitive ion channels, release of nitric oxide (which leads to vasodilation), increased metabolic activity, stimulation of vascular growth factors (VEGF 3 and 4).
Related Links:
Medical University of Vienna
Storz Medical
Center for Movement Disorders
Developed at the Medical University of Vienna (MedUni; Austria), Storz Medical (Tägerwilen, Switzerland), the Center for Movement Disorders (Bad Krozingen, Germany), transcranial pulse stimulation (TPS) is a clinical sonication technique based on ultrashort ultrasound pulses which markedly differ from existing focused ultrasound techniques, as the pulse emitted by the ultrasound device is 3-5 mm wide, and approximately three cm long. An accurate "map" is first of all made of the patient's brain using magnetic resonance imaging (MRI).
The TPS pulse causes short-term membrane changes in the brain cells, affecting the concentration of transmitters and other biochemical substances. This results in activation of brain neurons and the development of compensatory networks that improve brain function. In a clinical pilot study involving 35 patients with AD, neuropsychological scores improved significantly after TPS treatment, and the improvement lasted up to three months, correlating with an upregulation of the memory network, as evidenced by functional MRI (fMRI) data. The study was published on December 23, 2019, in Advanced Science.
“For the first time in the world, TPS enables us to penetrate into all areas of the brain by means of an ultrasound pulse delivered directly to the skull in a non-invasive, painless procedure, during which the patient is fully conscious, and to specifically target particular areas of the brain and stimulate them,” said lead author Roland Beisteiner, MD, of MEdUni. “It is like starting up an old engine again. Those neurons that are still activatable show marked improvements after the procedure. The decline in performance is slowed down.”
TPS was delivered using the Storz Neurolith system using an ergonomic handpiece that minimizes hand fatigue, facilitating treatment when working directly on the patient. A coupling surface adapts to any shape of head, making the treatment with focused pulses simple and efficient. Biological effects of TPS include increased cell permeability, stimulation of mechanosensitive ion channels, release of nitric oxide (which leads to vasodilation), increased metabolic activity, stimulation of vascular growth factors (VEGF 3 and 4).
Related Links:
Medical University of Vienna
Storz Medical
Center for Movement Disorders
Latest Ultrasound News
- AI Model Accurately Detects Placenta Accreta in Pregnancy Before Delivery
- Portable Ultrasound Sensor to Enable Earlier Breast Cancer Detection
- Portable Imaging Scanner to Diagnose Lymphatic Disease in Real Time
- Imaging Technique Generates Simultaneous 3D Color Images of Soft-Tissue Structure and Vasculature
- Wearable Ultrasound Imaging System to Enable Real-Time Disease Monitoring
- Ultrasound Technique Visualizes Deep Blood Vessels in 3D Without Contrast Agents
- Ultrasound Probe Images Entire Organ in 4D

- Disposable Ultrasound Patch Performs Better Than Existing Devices
- Non-Invasive Ultrasound-Based Tool Accurately Detects Infant Meningitis
- Breakthrough Deep Learning Model Enhances Handheld 3D Medical Imaging
- Pain-Free Breast Imaging System Performs One Minute Cancer Scan
- Wireless Chronic Pain Management Device to Reduce Need for Painkillers and Surgery
- New Medical Ultrasound Imaging Technique Enables ICU Bedside Monitoring
- New Incision-Free Technique Halts Growth of Debilitating Brain Lesions
- AI-Powered Lung Ultrasound Outperforms Human Experts in Tuberculosis Diagnosis
- AI Identifies Heart Valve Disease from Common Imaging Test
Channels
Radiography
view channel
Routine Mammograms Could Predict Future Cardiovascular Disease in Women
Mammograms are widely used to screen for breast cancer, but they may also contain overlooked clues about cardiovascular health. Calcium deposits in the arteries of the breast signal stiffening blood vessels,... Read more
AI Detects Early Signs of Aging from Chest X-Rays
Chronological age does not always reflect how fast the body is truly aging, and current biological age tests often rely on DNA-based markers that may miss early organ-level decline. Detecting subtle, age-related... Read moreMRI
view channel
New Material Boosts MRI Image Quality
Magnetic resonance imaging (MRI) is a cornerstone of modern diagnostics, yet certain deep or anatomically complex tissues, including delicate structures of the eye and orbit, remain difficult to visualize clearly.... Read more
AI Model Reads and Diagnoses Brain MRI in Seconds
Brain MRI scans are critical for diagnosing strokes, hemorrhages, and other neurological disorders, but interpreting them can take hours or even days due to growing demand and limited specialist availability.... Read moreMRI Scan Breakthrough to Help Avoid Risky Invasive Tests for Heart Patients
Heart failure patients often require right heart catheterization to assess how severely their heart is struggling to pump blood, a procedure that involves inserting a tube into the heart to measure blood... Read more
MRI Scans Reveal Signature Patterns of Brain Activity to Predict Recovery from TBI
Recovery after traumatic brain injury (TBI) varies widely, with some patients regaining full function while others are left with lasting disabilities. Prognosis is especially difficult to assess in patients... Read moreNuclear Medicine
view channel
Radiopharmaceutical Molecule Marker to Improve Choice of Bladder Cancer Therapies
Targeted cancer therapies only work when tumor cells express the specific molecular structures they are designed to attack. In urothelial carcinoma, a common form of bladder cancer, the cell surface protein... Read more
Cancer “Flashlight” Shows Who Can Benefit from Targeted Treatments
Targeted cancer therapies can be highly effective, but only when a patient’s tumor expresses the specific protein the treatment is designed to attack. Determining this usually requires biopsies or advanced... Read moreGeneral/Advanced Imaging
view channel
AI Tool Offers Prognosis for Patients with Head and Neck Cancer
Oropharyngeal cancer is a form of head and neck cancer that can spread through lymph nodes, significantly affecting survival and treatment decisions. Current therapies often involve combinations of surgery,... Read more
New 3D Imaging System Addresses MRI, CT and Ultrasound Limitations
Medical imaging is central to diagnosing and managing injuries, cancer, infections, and chronic diseases, yet existing tools each come with trade-offs. Ultrasound, X-ray, CT, and MRI can be costly, time-consuming,... Read moreImaging IT
view channel
New Google Cloud Medical Imaging Suite Makes Imaging Healthcare Data More Accessible
Medical imaging is a critical tool used to diagnose patients, and there are billions of medical images scanned globally each year. Imaging data accounts for about 90% of all healthcare data1 and, until... Read more
Global AI in Medical Diagnostics Market to Be Driven by Demand for Image Recognition in Radiology
The global artificial intelligence (AI) in medical diagnostics market is expanding with early disease detection being one of its key applications and image recognition becoming a compelling consumer proposition... Read moreIndustry News
view channel
Nuclear Medicine Set for Continued Growth Driven by Demand for Precision Diagnostics
Clinical imaging services face rising demand for precise molecular diagnostics and targeted radiopharmaceutical therapy as cancer and chronic disease rates climb. A new market analysis projects rapid expansion... Read more







