New Issue: Orbital Catastrophe Ahead? Read Now

Electronic Skin Moves Us Closer to Cyborgs

The filmlike patches can keep track of brain activity, medication needs, wound healing and more

Join Our Community of Science Lovers!

“Electronic skin” is blurring the lines between biological tissue and electronics. These filmlike patches, introduced in 2011, contain incredibly thin circuits, sensors and other electronic components and mount onto the skin with all the flexibility and stretchiness of a temporary tattoo. Within the past few months scientists have demonstrated numerous practical applications for the devices, setting the stage for a revolution in health care monitoring.

Electronic skin can keep tabs on:

The Brain
When placed on the forehead, it can read the electrical activity of the brain and provide electroencephalographic data just as well as conventional wired devices while being far more comfortable and less motion-restrictive—a boon for neonatal intensive care units.


On supporting science journalism

If you're enjoying this article, consider supporting our award-winning journalism by subscribing. By purchasing a subscription you are helping to ensure the future of impactful stories about the discoveries and ideas shaping our world today.


Wounds
By measuring temperature changes near a surgical wound, it can spot early signs of inflammation and infection. It can also gauge how well a cut is healing by measuring hydration levels (proper recovery requires moisture).

Motion
When integrated with an accelerometer, it can collect body-motion data throughout the day. This information is vital to understanding how a patient with Parkinson's disease, for instance, responds to new treatments.

Medication Needs
With memory, physiological sensors and onboard prescription drugs, it can store diagnostic information and then deliver the correct drug dosage when a patient needs it.

The Heart
Applied surgically, large electronic-skin membranes can envelope the heart to fully oversee cardiac activity or possibly to function as low-energy pacemakers or implantable cardioverter defibrillators (devices that help to control irregular heartbeats) in the future.

Subscribe to Support Independent Journalism

Great science journalism requires human expertise, time, effort and creativity. And it costs money. That’s why I and the journalists here at Scientific American hope you’ll join our community.

When you subscribe, you are supporting staff and freelance journalists who are passionate about telling science stories that are true, important and compelling. Our editors and reporters are often experts in their fields, which means they understand the nuances of big discoveries and can untangle the breakthroughs from the hype. With a subscription, you are also supporting rigorous fact-checking to ensure the words we publish are precise and accurate. And you’re supporting original illustrations, graphics and photos that bring you closer to an advanced laboratory, an ice sheet in Antarctica or a space mission in orbit. You’re helping us craft other types of high-quality journalism as well: Our newsletters are carefully written, edited and curated by staffers you have or will come to know and love. Our Science Quickly podcast is based on original reporting, collaboration with editors and scientists and exacting production.

Subscriptions keep this engine running so we can continue to deliver thoughtful, rigorous and independent science journalism to you. In an era of viral misinformation, this work is crucial. If you value what we do, I hope you’ll consider joining us as a subscriber

Thank you,

Jeanna Bryner, Editor in Chief, Scientific American

Subscribe