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.

Features Partner Sites Information LinkXpress hp
Sign In
Advertise with Us

Download Mobile App




Automated AI Reads Electronic Health Records

By HospiMedica International staff writers
Posted on 22 Sep 2021
A new study shows how an artificial intelligence (AI)-based algorithm can read electronic health record (EHR) data to identify certain diseases.

The Phe2vec algorithm, developed by researchers at the Icahn School of Medicine at Mount Sinai (MSSM; New York, NY, USA) and the University of Potsdam (Germany), uses unsupervised machine learning (ML) to derive conceptual relationships between EHR data and a host of known diseases. More...
The algorithm relies on embedding previous algorithms, developed by other researchers (such as linguists), to study word networks in various languages.

To test its performance, Phe2vec attempted to identify the diagnoses of nearly two million patients whose data was stored in the MSSM EHR. Results showed that for nine out of ten diseases tested, the system was as effective as, or even slightly better than, the gold standard manual phenotyping process, correctly identifying diagnoses of dementia, multiple sclerosis, and sickle cell anemia, among others. The study was published on September 2, 2021, in Patterns.

“There continues to be an explosion in the amount and types of data electronically stored in a patient’s medical record. Disentangling this complex web of data can be highly burdensome,” said senior author Benjamin Glicksberg, PhD, of the MSSM Hasso Plattner Institute for Digital Health (HPIMS). “Phe2vec aims to contribute to the next generation of clinical systems that use machine learning to offer a more holistic way to examine disease complexity and to improve clinical practice and medical research.”

Currently, scientists rely on a system called the Phenotype Knowledgebase (PheKB) to mine medical records for new information. To study a disease, researchers first have to comb through reams of medical records looking for pieces of data, such as certain lab tests or prescriptions, which are uniquely associated with the disease. They then program an algorithm to search for patients who have those disease-specific pieces of data (the phenotype). Each time researchers want to study a new disease, they have to restart this process from scratch.

Related Links:

Icahn School of Medicine at Mount Sinai
University of Potsdam


Gold Member
Neonatal Heel Incision Device
Tenderfoot
Radiology Monitor
MDNC-6121 Barco Nio Color 5.8MP
Patient Monitoring System
AlarmSense
Syringe Pump
SP50 Series
Read the full article by registering today, it's FREE! It's Free!
Register now for FREE to HospiMedica.com and get access to news and events that shape the world of Hospital Medicine.
  • Free digital version edition of HospiMedica International sent by email on regular basis
  • Free print version of HospiMedica International magazine (available only outside USA and Canada).
  • Free and unlimited access to back issues of HospiMedica International in digital format
  • Free HospiMedica International Newsletter sent every week containing the latest news
  • Free breaking news sent via email
  • Free access to Events Calendar
  • Free access to LinkXpress new product services
  • REGISTRATION IS FREE AND EASY!
Click here to Register








Channels

Critical Care

view channel
Image Credit: Adobe Stock

Emergency Department Campaign Reduces CT Use Without Identified Missed Injuries

Unnecessary head and cervical spine computed tomography (CT) in low-risk trauma patients exposes them to avoidable radiation, prolongs emergency department stays, and increases healthcare costs.... Read more

Surgical Techniques

view channel
Image: Researchers developed a handheld photothermal mid-infrared spectroscopic imaging (MIRSI) system that measures just 8 square inches. Probe light from a visible (red) diode laser and pump light from a modulated quantum cascade laser (QCL) are coupled into optical fibers and delivered to a flexible, handheld imager (blue dashed box). The beams are combined at a short-pass dichroic mirror and focused onto the sample using an off-axis parabolic mirror (OAP). (Image Credit:Rohith Reddy, University of Houston)

Handheld Infrared Imaging Device Supports Tumor Margin Assessment During Surgery

Accurately determining tumor margins during surgery remains challenging. Frozen-section pathology takes time and can miss residual disease, potentially leading to repeat surgery and delayed therapy.... 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
Copyright © 2000-2026 Globetech Media. All rights reserved.