Inside an Individual’s Physiological Signature
Originally published in Medical Device & Technology
Originally published in Chicago Medical Magazine
This past week's policy guidance by the U.S. Food and Drug Administration (FDA) regarding non-invasive remote patient monitoring in the context of COVID-19 reflects the stark reality of an unprecedented challenge we now face:
Healthcare as we currently practice it is not equipped to manage this massive problem.
Our healthcare infrastructure faces some enormous challenges related to this crisis:
As the number of COVID-19 patients rapidly increases, the healthcare system must still care for the millions of chronically ill patients who require care and are at risk of clinical deterioration. The influx of COVID-19 patients overwhelm an already overworked healthcare system, forcing an almost unthinkable need to triage finite healthcare services and resources. Without bold and innovate thinking we will not be able to adequately address the challenges facing us in the management of our at-risk patient populations that includes the millions and millions of people with, for example, heart failure, pulmonary disease, and cancer. A quick review of the issues outlined above yield a logical common denominator:
In addition to the measures already being taken, there is an imperative to quickly and aggressively add continuous remote patient monitoring (CRPM) to our disease management paradigm.
Before the advent of clinical grade wearable sensors, the term “remote monitoring” was used to describe simple daily spot check vital signs like blood pressure or weight. This low data density offers limited utility in supporting the management of these at-risk patient populations.
However, over the past 5 years, there has been a quantum leap in our ability to continuously stream data from wearable sensors and apply artificial intelligence (AI) algorithms to provide clinicians with multi-dimensional clinical insight in near real time.
More specifically, we can now continuously stream every breath, every heartbeat, and every subtle movement using clinical grade disposable biosensors. This data set can then be combined with advanced AI-driven analytics that do the heavy lifting of data analysis to identify clinically relevant changes in health. From here, automated alerts to clinicians indicate who within the monitored population require medical attention. Such analytics help free the clinician from the need to manually process mountains of biosensor data and empowers them with the information they need to proactively care for deteriorating patients using subtle, often subclinical physiologic changes. Armed with this type of insight, clinicians can direct resources in a more informed, rational, effective and efficient way.
Continuous remote patient monitoring (cRPM) has enormous potential to help address the challenges outlined above in managing the current COVID-19 crisis and other resource challenges:
In practical terms, how can this be applied? There are several use cases where hospitals and health systems should explore using AI-enhanced continuous remote monitoring to improve care, protect patients and staff, and conserve resource utilization:
The current crisis requires that we think creatively in how we increase clinical capacity and care for at-risk patients. To be clear, there is no one magic solution or silver bullet. But the clinical world should know that, with AI and clinical grade wearables, they have an enormously powerful tool at their disposal. Big problems call for bold solutions.
Stephen L. Ondra, MD, is a seniors advisor to physIQ, Inc., and a board-certified neurological surgeon and national leader in medicine, medical policy, health information technology, and innovation. Dr. Ondra has held executive-level roles in health care reform, complex health care delivery systems, academe, and as member of the Obama administration. He previously served as the Senior Vice President and Enterprise Chief Medical Officer at the Health Care Service Corporation.
Originally published in Medical Device & Technology
Originally published in Pixel Scientia Labs
Originally published in Crain's Chicago