Procellera Antimicrobial Wound Dressings are powered by V.Dox™ Technology. Employing a patented matrix of moisture-activated microcell batteries, they generate electricity designed to mimic the skin’s physiologic electrical energy. V.Dox Technology has been shown to kill a broad spectrum of bacteria (including several multi-drug resistant and biofilm-forming strains), while supporting the body’s natural healing process.
Vomaris’s core technology powers the only non-antibiotic antimicrobial technology that is inspired by the body’s natural electrical healing process. It employs embedded microcell batteries that generate an electric field designed to mimic the body’s physiologic electric fields, which are essential for cell migration and wound healing. It is a new generation solution for wound and incisional care with demonstrated antimicrobial impact against a broad spectrum of microbes including antibiotic-resistant and biofilm-forming bacteria.
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.
In vitro study of dressings embedded in agar demonstrates effectiveness against A. baumannii bacteria absence of bacterial growth above Vomaris’s antimicrobial dressing (see V.Dox Technology picture), compared to diffuse bacterial growth above the silver and placebo control dressings at 24 hours.2
Live/dead fluorescence staining demonstrates killing of biofilm-forming P. aeruginosa bacteria within Vomaris’s antimicrobial dressing (see V.Dox Technology picture), compared to silver and placebo control dressings at 24 hours.
The body naturally creates and uses electrical energy to promote healing.
Employing a patented matrix of embedded microcell batteries, V.Dox Technology wirelessly generates an electric field in the presence of a conductive medium.
Indicated for management of wounds to provide a moist wound environment and is indicated for:
Do not use on individuals with sensitivity or allergy to silver, zinc, or other dressing components
Frequent or prolonged use of this product may result in temporary discolouration of skin.
A PROSPECTIVE, RANDOMIZED, CONTROLLED STUDY TO EVALUATE THE EFFECTIVENESS OF A FABRIC-BASED WIRELESS ELECTROCEUTICAL DRESSING COMPARED TO STANDARD OF CARE TREATMENT AGAINST ACUTE TRAUMA AND BURN WOUND BIOFILM INFECTION
BIOELECTRIC DRESSING ON SKIN GRAFT DONOR SITES: A PILOT CLINICAL TRIAL
A MICROCURRENT DRESSING REDUCES CUTIBACTERIUM ACNES COLONIZATION IN PATIENTS UNDERGOING SHOULDER ARTHROPLASTY OR ARTHROSCOPY: A PROSPECTIVE CASE SERIES
BIOELECTRIC SILVER-ZINC DRESSING EQUALLY EFFECTIVE TO CHLORHEXIDINE IN REDUCING SKIN BACTERIAL LOAD IN HEALTHY VOLUNTEERS
HUMAN ACELLULAR DERMAL MATRIX PAIRED WITH SILVER-ZINC COUPLED ELECTROCEUTICAL DRESSING RESULTS IN RAPID HEALING OF COMPLICATED DIABETIC WOUNDS OF MIXED ETIOLOGY: A NOVEL CASE SERIES
WIRELESS MICROCURRENT-GENERATING ANTIMICROBIAL WOUND DRESSING IN PRIMARY TOTAL KNEE ARTHROPLASTY: A SINGLE-CENTER EXPERIENCE
A WIRELESS ELECTROCEUTICAL DRESSING LOWERS COST OF NEGATIVE PRESSURE WOUND THERAPY
DEMONSTRATION OF A MICROCURRENT-GENERATING WOUND CARE DEVICE FOR WOUND HEALING WITHIN A REHABILITATION CENTER PATIENT POPULATION
THE USE OF BIOELECTRIC DRESSINGS IN SKIN GRAFT HARVEST SITES: A PROSPECTIVE CASE SERIES
ELECTROCEUTICAL FABRIC LOWERS ZETA POTENTIAL AND ERADICATES CORONAVIRUS INFECTIVITY UPON CONTACT
ELECTRIC FIELD BASED DRESSING DISRUPTS MIXED-SPECIES BACTERIAL BIOFILM INFECTION AND RESTORES FUNCTIONAL WOUND HEALING
ANTIMICROBIAL ACTIVITY OF A BIOELECTRIC DRESSING USING AN IN VITRO WOUND PATHOGEN COLONY DRIP-FLOW REACTOR BIOFILM MODEL
ELECTRICAL FIELD LANDSCAPE OF TWO ELECTROCEUTICALS
SILVER-ZINC REDOX-COUPLED ELECTROCEUTICAL WOUND DRESSING DISRUPTS BACTERIAL BIOFILM
ANTIBIOFILM EFFICACY EVALUATION OF A BIOELECTRIC DRESSING IN MONO- AND MULTI-SPECIES BIOFILMS
MEASUREMENT OF A MICROELECTRIC POTENTIALS IN A BIOELECTRICALLY-ACTIVE WOUND CARE DEVICE IN THE PRESENCE OF BACTERIA
IMPROVEMENT OF HUMAN KERATINOCYTE MIGRATION BY A REDOX ACTIVE BIOELECTRIC DRESSING
ANTIBACTERIAL EFFICACY TESTING OF A BIOELECTRIC WOUND DRESSING AGAINST CLINICAL WOUND PATHOGENS
BIOELECTRIC DRESSING SUPPORTS COMPLEX WOUND HEALING IN SMALL ANIMAL PATIENTS
A NOVEL BIOELECTRIC DEVICE ENHANCES WOUND HEALING: AN EQUINE CASE SERIES
EFFICACY OF A BIO-ELECTRIC DRESSING IN HEALING DEEP, PARTIAL-THICKNESS WOUNDS USING A PORCINE MODEL
ELECTROCEUTICAL MANAGEMENT OF BACTERIAL BIOFILMS AND SURGICAL INFECTION
THE IMPACT OF CONTINUOUS ELECTRICAL MICROCURRENT ON ACUTE AND HARD-TO-HEAL WOUNDS: A SYSTEMATIC REVIEW
AN OVERVIEW OF THE EFFICACY OF A NEXT GENERATION OF ELECTROCEUTICAL WOUND CARE DEVICE
EFFECTS AND MECHANISMS OF A MICROCURRENT DRESSING ON SKIN WOUND HEALING: A REVIEW
ELECTRICAL STIMULATION TECHNOLOGIES FOR WOUND HEALING
ELECTRICAL STIMULATION THERAPY AND WOUND HEALING: WHERE ARE WE NOW?
Procellera Antimicrobial Wound Dressings are powered by V.Dox™ Technology. Employing a patented matrix of moisture-activated microcell batteries, they generate electricity designed to mimic the skin’s physiologic electrical energy. V.Dox Technology has been shown to kill a broad spectrum of bacteria (including several multi-drug resistant and biofilm-forming strains), while supporting the body’s natural healing process.
Contact UsVomaris’s core technology powers the only non-antibiotic antimicrobial technology that is inspired by the body’s natural electrical healing process. It employs embedded microcell batteries that generate an electric field designed to mimic the body’s physiologic electric fields, which are essential for cell migration and wound healing. It is a new generation solution for wound and incisional care with demonstrated antimicrobial impact against a broad spectrum of microbes including antibiotic-resistant and biofilm-forming bacteria.
MICROCELL BATTERIES | CONDUCTIVE MEDIUM | ELECTRICITY |
---|---|---|
V.Dox™ Technology 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. 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 V.Dox Technology’s microcell batteries. | V.Dox Technology generates electricity designed to mimic the skin’s physiologic electrical energy and may reduce the risk of infection while supporting the body’s natural healing process. |
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.
In vitro study of dressings embedded in agar demonstrates effectiveness against A. baumannii bacteria absence of bacterial growth above Vomaris’s antimicrobial dressing (see V.Dox Technology picture), compared to diffuse bacterial growth above the silver and placebo control dressings at 24 hours.2
Live/dead fluorescence staining demonstrates killing of biofilm-forming P. aeruginosa bacteria within Vomaris’s antimicrobial dressing (see V.Dox Technology picture), compared to silver and placebo control dressings at 24 hours.
The body naturally creates and uses electrical energy to promote healing.
Employing a patented matrix of embedded microcell batteries, V.Dox Technology wirelessly generates an electric field in the presence of a conductive medium.
Indicated for management of wounds to provide a moist wound environment and is indicated for:
Do not use on individuals with sensitivity or allergy to silver, zinc, or other dressing components
Frequent or prolonged use of this product may result in temporary discolouration of skin.
A PROSPECTIVE, RANDOMIZED, CONTROLLED STUDY TO EVALUATE THE EFFECTIVENESS OF A FABRIC-BASED WIRELESS ELECTROCEUTICAL DRESSING COMPARED TO STANDARD OF CARE TREATMENT AGAINST ACUTE TRAUMA AND BURN WOUND BIOFILM INFECTION
BIOELECTRIC DRESSING ON SKIN GRAFT DONOR SITES: A PILOT CLINICAL TRIAL
A MICROCURRENT DRESSING REDUCES CUTIBACTERIUM ACNES COLONIZATION IN PATIENTS UNDERGOING SHOULDER ARTHROPLASTY OR ARTHROSCOPY: A PROSPECTIVE CASE SERIES
BIOELECTRIC SILVER-ZINC DRESSING EQUALLY EFFECTIVE TO CHLORHEXIDINE IN REDUCING SKIN BACTERIAL LOAD IN HEALTHY VOLUNTEERS
HUMAN ACELLULAR DERMAL MATRIX PAIRED WITH SILVER-ZINC COUPLED ELECTROCEUTICAL DRESSING RESULTS IN RAPID HEALING OF COMPLICATED DIABETIC WOUNDS OF MIXED ETIOLOGY: A NOVEL CASE SERIES
WIRELESS MICROCURRENT-GENERATING ANTIMICROBIAL WOUND DRESSING IN PRIMARY TOTAL KNEE ARTHROPLASTY: A SINGLE-CENTER EXPERIENCE
A WIRELESS ELECTROCEUTICAL DRESSING LOWERS COST OF NEGATIVE PRESSURE WOUND THERAPY
DEMONSTRATION OF A MICROCURRENT-GENERATING WOUND CARE DEVICE FOR WOUND HEALING WITHIN A REHABILITATION CENTER PATIENT POPULATION
THE USE OF BIOELECTRIC DRESSINGS IN SKIN GRAFT HARVEST SITES: A PROSPECTIVE CASE SERIES
ELECTROCEUTICAL FABRIC LOWERS ZETA POTENTIAL AND ERADICATES CORONAVIRUS INFECTIVITY UPON CONTACT
ELECTRIC FIELD BASED DRESSING DISRUPTS MIXED-SPECIES BACTERIAL BIOFILM INFECTION AND RESTORES FUNCTIONAL WOUND HEALING
ANTIMICROBIAL ACTIVITY OF A BIOELECTRIC DRESSING USING AN IN VITRO WOUND PATHOGEN COLONY DRIP-FLOW REACTOR BIOFILM MODEL
ELECTRICAL FIELD LANDSCAPE OF TWO ELECTROCEUTICALS
SILVER-ZINC REDOX-COUPLED ELECTROCEUTICAL WOUND DRESSING DISRUPTS BACTERIAL BIOFILM
ANTIBIOFILM EFFICACY EVALUATION OF A BIOELECTRIC DRESSING IN MONO- AND MULTI-SPECIES BIOFILMS
MEASUREMENT OF A MICROELECTRIC POTENTIALS IN A BIOELECTRICALLY-ACTIVE WOUND CARE DEVICE IN THE PRESENCE OF BACTERIA
IMPROVEMENT OF HUMAN KERATINOCYTE MIGRATION BY A REDOX ACTIVE BIOELECTRIC DRESSING
ANTIBACTERIAL EFFICACY TESTING OF A BIOELECTRIC WOUND DRESSING AGAINST CLINICAL WOUND PATHOGENS
BIOELECTRIC DRESSING SUPPORTS COMPLEX WOUND HEALING IN SMALL ANIMAL PATIENTS
A NOVEL BIOELECTRIC DEVICE ENHANCES WOUND HEALING: AN EQUINE CASE SERIES
EFFICACY OF A BIO-ELECTRIC DRESSING IN HEALING DEEP, PARTIAL-THICKNESS WOUNDS USING A PORCINE MODEL
ELECTROCEUTICAL MANAGEMENT OF BACTERIAL BIOFILMS AND SURGICAL INFECTION
THE IMPACT OF CONTINUOUS ELECTRICAL MICROCURRENT ON ACUTE AND HARD-TO-HEAL WOUNDS: A SYSTEMATIC REVIEW
AN OVERVIEW OF THE EFFICACY OF A NEXT GENERATION OF ELECTROCEUTICAL WOUND CARE DEVICE
EFFECTS AND MECHANISMS OF A MICROCURRENT DRESSING ON SKIN WOUND HEALING: A REVIEW
ELECTRICAL STIMULATION TECHNOLOGIES FOR WOUND HEALING
ELECTRICAL STIMULATION THERAPY AND WOUND HEALING: WHERE ARE WE NOW?