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List of Medical Devices AI Built-In

4 min read · Updated

List of Medical Devices AI Built-In

LIST OF MEDICAL DEVICES AI BUILT IN

Here are several types of AI-integrated medical devices that are being used in diagnostics, monitoring, and treatment across healthcare settings:

AI-ENHANCED IMAGING DEVICES

o MRI and CT Scanners: AI aids in image reconstruction, analysis, and anomaly detection, supporting faster image review.

o Ultrasound Machines: AI-guided ultrasound helps with automated measurements, assists with positioning, and enhances image quality, supporting clinicians during examinations.

o X-Ray Devices: AI algorithms help flag possible abnormalities like fractures, infections, or tumors, assisting radiologists in prioritizing and reviewing studies.

SMART ENDOSCOPES AND OTOSCOPES

o AI Otoscopes: Devices equipped with AI to flag possible signs of ear infection, useful for general practitioners and remote healthcare.

o Endoscopes with AI: Used in gastroenterology to help endoscopists detect polyps and other abnormalities in real time during procedures.

2. Wearable Health Monitors

o ECG Monitors: AI-powered ECG devices detect arrhythmias and other heart irregularities, alerting users and healthcare providers to potential issues.

o Continuous Glucose Monitors (CGMs): Devices that use AI to predict blood glucose trends and provide insights for diabetes management.

o Blood Pressure Monitors: AI-enabled monitors that predict hypertension risks by analyzing patterns over time.

AI-DRIVEN DIAGNOSTIC TOOLS

o Dermatoscopes: AI-powered dermatoscopes can analyze skin lesions to support clinicians in assessing suspicious lesions such as possible melanoma.

o Retinal Scanners: AI models analyze retina images to screen for signs of diabetic retinopathy and other eye diseases.

o Digital Stethoscopes: These devices, equipped with AI, record heart and lung sounds and can flag possible abnormalities like murmurs.

ROBOTIC SURGERY SYSTEMS

o Surgical Robots with AI Assistance: Robotic surgical systems are increasingly incorporating software and AI features to assist surgeons with precision tasks.

o Orthopedic Surgery Devices: Some systems use AI to help plan joint replacement surgeries based on individual patient anatomy.

AI-ENABLED VITAL SIGNS MONITORING

o Multiparameter Monitors: These systems use AI to detect trends in vital signs like heart rate, oxygen saturation, and respiration rate, potentially identifying deterioration early.

o Remote Patient Monitoring (RPM): AI-integrated devices for at-home monitoring of chronic conditions, which can alert healthcare providers to changes.

SMART DIAGNOSTIC KIOSKS

o Health-Check Kiosks: Equipped with AI, these kiosks perform basic measurements (like temperature, blood pressure, and oxygen levels) and guide patients on necessary follow-up steps.

3. AI-Powered Autoclaves and Sterilization Systems

o Autoclaves with Predictive Maintenance: AI in autoclaves monitors usage patterns, predicts maintenance needs, and monitors sterilization conditions, helping reduce downtime.

AI IN RESPIRATORY CARE

o Ventilators with AI: Some ventilators offer automated, closed-loop adjustment of selected settings under clinician supervision, supporting respiratory management for critical care patients.

o Nebulizers and Inhalers: AI algorithms help track usage patterns and adherence, providing feedback to patients with conditions like asthma.

CONNECTED DRUG DELIVERY DEVICES

  • Automated Insulin Delivery Systems: These systems link a continuous glucose monitor, an insulin pump and a control algorithm that adjusts insulin delivery automatically within limits set by the care team. The FDA has created device categories, such as interoperable automated glycemic controllers, for the software that coordinates these components.
  • Connected Injectors and Smart Pens: Pens and auto-injectors with sensors record when a dose was taken and share the log with a companion app, helping patients and clinicians review adherence.
  • Smart Inhaler Add-Ons: Sensors attached to inhalers record usage time and, in some cases, technique, so patterns can be reviewed with a clinician.

SOFTWARE AS A MEDICAL DEVICE AND DIGITAL THERAPEUTICS

Not every AI medical device is a piece of hardware. Software as a Medical Device (SaMD) performs a medical function on its own, running on a smartphone, a computer or a cloud server and often analyzing data from other devices. Examples include image analysis software that helps radiologists prioritize studies, smartphone apps that analyze photos or recordings, and prescription digital therapeutics that deliver structured behavioral programs for specific conditions. These products are regulated by their intended use, just like hardware devices, and their AI features are designed to support clinicians rather than replace their judgment.

WHAT IS DRIVING AI INTO MEDICAL DEVICES

  • More capable processors: Low-power chips with built-in AI accelerators allow analysis to run on the device itself, even without a network connection.
  • Smaller sensors: Miniaturized sensors make continuous, unobtrusive monitoring possible in wearables and patches.
  • Better connectivity: Reliable Wi-Fi, cellular and Bluetooth Low Energy links support remote monitoring and timely data sharing with care teams.
  • Shift toward care at home: Remote patient monitoring and patient-facing devices let people take a more active role in managing chronic conditions between visits.

HOW TO CHECK A DEVICE'S FDA STATUS

Marketing materials do not always describe regulatory status accurately. Before relying on an AI-enabled device in the United States, verify it directly with public FDA sources:

  • FDA AI-Enabled Medical Devices list: the FDA publishes and periodically updates a list of AI-enabled devices that have been authorized for marketing in the United States.
  • 510(k) and De Novo databases: search by company or device name. A 510(k) device is "cleared" and a De Novo device is "authorized"; only devices that go through premarket approval (PMA) are "approved".
  • Product labeling: read the indications for use. They define exactly what the device is cleared or authorized to do and for which patients, which may be narrower than marketing claims.
  • Other markets: a CE mark in Europe or approval elsewhere does not mean a device is available or authorized in the United States.

For news on newly authorized devices, FDA announcements, medical device trade publications and industry conferences are useful starting points.

These AI-driven devices are designed to streamline clinical workflows, support clinicians' decisions, and provide insights for patient care. Check each product's FDA status before use. Many of them also support remote and real-time monitoring, which has become especially relevant for telemedicine and chronic care management.