We use cookies to understand how you use our site and to improve your experience. This includes personalizing content and advertising. To learn more, click here. By continuing to use our site, you accept our use of cookies. Cookie Policy.

HospiMedica

Download Mobile App
Recent News AI Critical Care Surgical Techniques Patient Care Medical Imaging Health IT Point of Care Business Focus

AI Algorithm Non-Invasively Measures Intracranial Pressure in ICU Patients Following Traumatic Brain Injury

By HospiMedica International staff writers
Posted on 24 Jul 2024
Image: The accuracy of ABP, PPG and ECG data surpasses other methodologies in determining intracranial pressure (Photo courtesy of Shutterstock)
Image: The accuracy of ABP, PPG and ECG data surpasses other methodologies in determining intracranial pressure (Photo courtesy of Shutterstock)

Intracranial pressure (ICP) is a critical physiological parameter that may increase dangerously due to conditions like acute brain injury, stroke, or obstructions in cerebrospinal fluid flow. Symptoms of high ICP include headaches, blurred vision, vomiting, behavioral changes, and a reduced level of consciousness, posing serious health risks. Traditional ICP monitoring methods are highly invasive, involving the insertion of devices such as external ventricular drains (EVD) or intraparenchymal brain monitors (IPM) directly into the brain through the skull. These methods, while effective, carry significant risks including catheter misplacement, infection, and hemorrhaging, occurring in approximately 15.3%, 5.8%, and 12.1% of cases respectively. Additionally, they require surgical expertise and specialized equipment not always available in many medical settings, highlighting the need for less invasive monitoring techniques.

Now, researchers at Johns Hopkins University School of Medicine (Baltimore, MD, USA) have proposed a novel, less invasive method for monitoring ICP. Published in the July 12 journal of Computers in Biology and Medicine, their research explores the correlation between ICP waveforms and three commonly measured physiological signals in the ICU: invasive arterial blood pressure (ABP), photoplethysmography (PPG), and electrocardiography (ECG). By employing these data points, researchers trained various deep learning algorithms, achieving a predictive accuracy for ICP that is comparable or superior to existing methods. This research indicates the possibility of a new, noninvasive technique for ICP monitoring, potentially transforming patient care in critical settings.

“ICP is universally accepted as a critical vital sign - there is an imperative need to measure and treat ICP in patients with serious neurological disorders, yet the current standard for ICP measurement is invasive, risky, and resource-intensive,” said researcher Robert Stevens, MD., MBA. “Here we explored a novel approach leveraging Artificial Intelligence which we believed could represent a viable noninvasive alternative ICP assessment method.”

Related Links:
Johns Hopkins University School of Medicine

Gold Member
12-Channel ECG
CM1200B
Radiology Monitor
MDNC-6121 Barco Nio Color 5.8MP
Syringe Pump
SP50 Series
Tourniquet System
heidi– mein Tourniquet

Channels

Artificial Intelligence

view channel
Image: Artificial intelligence (AI) standalone performance and reader performance with versus without AI assistance. (A) Receiver operating characteristics (ROC) curve for AI standalone performance in the US dataset (AUC 0.899, 95% CI 0.858 to 0.939). (B) ROC curve for AI standalone performance in the Korean dataset (AUC 0.963, 95% CI 0.946 to 0.975). (C) Pooled reader ROC without (AUC 0.718) versus with (AUC 0.852) AI assistance in the Korean dataset; P<0.001. AUC, area under the receiver operating characteristics curve. (Leonard Sunwoo et al., Journal of NeuroInterventional Surgery (2026). DOI: 10.1136/jnis-2026-025339)

AI Improves Non-Contrast CT Interpretation for Time-Sensitive Stroke Assessment

Acute ischemic stroke occurs when a blood vessel in the brain becomes blocked, requiring rapid diagnosis to enable timely reperfusion therapy. Emergency departments often use computed tomography angiography... Read more

Surgical Techniques

view channel
Image: Associate Professor Menglin Chen studies how the light-sensitive nanoparticles affect living cells. The screen shows calcium being released inside a cell after nanoparticles taken up by the cell are exposed to blue light. Calcium plays an important role in cellular signaling, and the experiment helps the researchers understand how the nanoparticles can translate light into biological activity. (Photo courtesy of Aarhus University, Johanne Holm Jensen)

Light-Activated Nanoparticles May Offer New Approach to Retinal Prostheses

Retinitis pigmentosa is a degenerative retinal disorder in which photoreceptors progressively die, reducing visual signals to the brain while leaving surviving inner retinal circuits underused.... Read more

Point of Care

view channel
Image Credit: 123RF

Continuous Glucose Monitoring Identifies Cardiometabolic Risk in Adults Without Diabetes

Dysglycemia—abnormal blood glucose regulation—can fluctuate throughout the day and often escape conventional screening. Clinicians typically rely on fasting plasma glucose and hemoglobin A1c, which offer... Read more

Business

view channel
Image: LigaSure RAS Maryland, designed for the Valleylab FT10 platform on Hugo RAS, seals and cuts vessels, tissue, and lymphatics up to 7 mm in diameter (Photo courtesy of Medtronic)

Medtronic Receives FDA Clearance for Vessel-Sealing Instrument for Robotic Surgery

As robotic-assisted surgery expands across U.S. hospitals, teams increasingly seek energy instruments with the familiarity and performance of tools used in open and laparoscopic procedures.... Read more