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
RANDOX LABORATORIES

Download Mobile App




Cutting-Edge Bioelectronic Device Offers Drug-Free Approach to Managing Bacterial Infections

By HospiMedica International staff writers
Posted on 31 Oct 2024
Print article
mage: The electroceutical epidermal patch is designed to inhibit bacterial growth (Photo courtesy of Saehyun Kim/University of Chicago)
mage: The electroceutical epidermal patch is designed to inhibit bacterial growth (Photo courtesy of Saehyun Kim/University of Chicago)

Antibiotic-resistant infections pose an increasing threat to patient safety and healthcare systems worldwide. Recent estimates indicate that drug-resistant infections may rise by 70% by 2050, highlighting the urgent need for innovative strategies to combat these infections to protect public health and ensure effective infection control in a world where microbial resistance is on the rise. Staphylococcus epidermidis is a common bacterium known for causing hospital-acquired infections and contributing to the problem of antibiotic resistance. In an exciting breakthrough in the battle against bacterial infections, researchers have created an advanced bioelectronic device that harnesses the natural electrical activity of specific skin bacteria, potentially leading to a drug-free method of infection management.

This groundbreaking study, published in Device, was conducted by researchers from the University of Chicago (Chicago, IL, USA) and the University of California San Diego (San Diego, CA, USA), and demonstrates how programmable electrical stimulation can effectively mitigate the harmful effects of Staphylococcus epidermidis. The device consists of a flexible electroceutical patch that emits gentle electrical signals to bacteria at specific skin pH levels, inducing temporary behavioral changes and inhibiting biofilm formation—clusters of bacteria that can result in serious infections. The device specifically triggers bacterial responses in acidic environments, akin to those found on healthy skin. This electrical stimulation significantly decreases the expression of harmful genes in bacteria and limits their growth without the need for antibiotics. This technology enables targeted treatment, minimizing the side effects often linked to conventional antibiotic therapies.

In preclinical trials, the electroceutical patch showed impressive results, achieving nearly a tenfold reduction in bacterial colonization on pig skin. This research represents a notable advancement in bioelectronic medicine, and researchers are hopeful that this device could soon be utilized in clinical environments, especially for patients with chronic wounds or those with medical implants. By leveraging the natural properties of bacteria, scientists can develop more effective and personalized treatment options for individuals facing opportunistic infections. Healthcare professionals are encouraged to consider the implications of this research for infection control and to keep abreast of future developments in bioelectronic therapies.

“We discovered action potentials in bacterial biofilms almost ten years ago and since then we have worked to show that bacteria, which are typically not thought of as excitable, are indeed excitable and even perform functions similar to neurons in the brain,” said Süel, a professor in the UC San Diego School of Biological Sciences. "Our collaboration integrated our biological insights with the incredible technical and scientific expertise of the Tian group. Together we show that an important opportunistic pathogen is ‘selectively excitable,’ and the Tian group developed a wearable device that can treat biofilm infections on the skin through electroceutical therapy, without the need for any antibiotics.”

Gold Member
Disposable Protective Suit For Medical Use
Disposable Protective Suit For Medical Use
Flocked Fiber Swabs
Puritan® patented HydraFlock®
New
Anterior Cervical Plate System
XTEND
New
Prenatal Risk Calculation System
PRISCA

Print article
Radcal

Channels

Surgical Techniques

view channel
Image: Conceptual schematic showing microgrippers (µ-grippers) operating as biopsy tools in the upper urinary tract (Photo courtesy of Wangqu Liu, Yan Wan/Gracias Lab, Johns Hopkins University)

Microgrippers For Miniature Biopsies to Create New Cancer Diagnostic Screening Paradigm

The standard diagnosis of upper urinary tract cancers typically involves the removal of suspicious tissue using forceps, a procedure that is technically challenging and samples only a single region of the organ.... Read more

Patient Care

view channel
Image: The portable biosensor platform uses printed electrochemical sensors for the rapid, selective detection of Staphylococcus aureus (Photo courtesy of AIMPLAS)

Portable Biosensor Platform to Reduce Hospital-Acquired Infections

Approximately 4 million patients in the European Union acquire healthcare-associated infections (HAIs) or nosocomial infections each year, with around 37,000 deaths directly resulting from these infections,... Read more

Health IT

view channel
Image: First ever institution-specific model provides significant performance advantage over current population-derived models (Photo courtesy of Mount Sinai)

Machine Learning Model Improves Mortality Risk Prediction for Cardiac Surgery Patients

Machine learning algorithms have been deployed to create predictive models in various medical fields, with some demonstrating improved outcomes compared to their standard-of-care counterparts.... Read more

Point of Care

view channel
Image: The acoustic pipette uses sound waves to test for biomarkers in blood (Photo courtesy of Patrick Campbell/CU Boulder)

Handheld, Sound-Based Diagnostic System Delivers Bedside Blood Test Results in An Hour

Patients who go to a doctor for a blood test often have to contend with a needle and syringe, followed by a long wait—sometimes hours or even days—for lab results. Scientists have been working hard to... Read more
Copyright © 2000-2024 Globetech Media. All rights reserved.