One-of-a-kind bioelectric technology
Advanced Microcurrent Technology® (AMT) employs a matrix of embedded microcell batteries comprised of elemental silver and elemental zinc. When in direct contact with a conductive medium, chemical reactions occur involving the transfer of electrons from the zinc to the silver in a process known as oxidation-reduction or REDOX reaction.6 This generates an electric field on the dressing surface.
A conductive medium is any solution that permits the flow of electrons. Examples of highly conductive media are saline solution, hydrogels, and certain serums. Due to the high concentration of naturally occurring salt ions in the human body, bodily fluids such as sweat and wound exudate are also conductive media capable of activating AMT’s microcell batteries.7
AMT generates electricity that mimics the body's physiologic electric fields and may reduce the risk of infection2-5 while supporting the body's natural healing process.6
Inspired by the Body
Electricity is Essential to Healing
The body naturally creates and uses electrical energy to promote healing.1
Physiologic Electrical Currents in the Skin
Electric fields exist naturally in the skin, creating surface energy potential known as transepithelial potential (TEP).8-9,11
When skin is wounded, a change in electric potential occurs. The physiologic electric fields are essential to cellular migration and wound healing.10
Advanced Microcurrent Technology is designed to mimic the body's physiologic electric fields, harnessing the power of electricity to reduce the risk of infection while supporting the body's natural healing process.
Powered by Electricity
Designed to mimic the body's natural healing process
Employing a patented matrix of embedded microcell batteries, AMT wirelessly generates an electric field in the presence of a conductive medium.
- Moisture-activated microcell batteries comprised of elemental silver and elemental zinc are embedded in a substrate.
- Upon moisture activation, chemical reactions between the silver and zinc occur, involving the transfer of electrons from the zinc to the silver in a process known as oxidation-reduction or REDOX reaction, which wirelessly generates an electric field.
Energized by Results
Wound bioburden is associated with delayed healing and increases the chance for infectious complications.14 Independent, peer-reviewed, published, and standardized laboratory studies and data on file2-5 demonstrate that Vomaris’s antimicrobial wound dressing kills a broad-spectrum of harmful pathogens, including multi-drug resistant4 and biofilm-forming bacteria.2,5 This may reduce the risk of infection while supporting the body's natural healing process:
• Sustained broad-spectrum antimicrobial impact for up to seven days,3
• Bactericidal against gram-positive and gram-negative pathogens,4
• Electric field-induces antimicrobial impact.2
Prevention of Bacterial Growth
In vitro study of dressings embedded in agar demonstrates effectiveness against A. baumannii bacteria above Vomaris's antimicrobial dressing (see AMT picture), compared to diffuse bacterial growth above the silver and placebo control dressings at 24 hours.2
Antimicrobial Impact on Biofilm-Forming Bacteria
Live/dead fluorescence staining demonstrates killing of biofilm-forming P. aeruginosa bacteria within Vomaris’s antimicrobial dressing (see AMT picture), compared to silver and placebo control dressings at 24 hours.2
Results in Plain Sight
Improvement in rate of epithelialization vs. standard of care. Prospective case series; Skin Graft Donor Site Study (N=13).12