Abstract:
A pain relief device is provided. The pain relief device includes: (i) a body portion including a contact region configured for contacting a subject; and (ii) a monopolar transmitter including a single electrical pole for providing an electrical signal to the body portion for treatment of the subject.
Abstract:
The present invention relates to a skin treatment device comprising a substrate and a plurality of discrete galvanic couples provided on said substrate, each discrete galvanic couple comprising a first conductive electrode that is an anode and a second conductive electrode that is a cathode, wherein the anode of each galvanic couple comprises a first metal and the cathode of each discrete galvanic couple comprises a second metal, different from the first metal, the first and second metal having a different standard potential.
Abstract:
Devices and methods to deliver microcurrent stimulation therapy to the human body, when connected to a micro-stimulation current-generating apparatus. The method of applying microcurrent stimulation therapy to key points around the eye for treatment of problems such as macular degeneration, retinitis pigmentosa, glaucoma, optic neuritis and other eye-related or nerve-related conditions, as well as other diseases, such as Bell's Palsy, requiring localized stimulation to the eyes and/or on other body parts.
Abstract:
The device of the invention includes dressings having a cathode and an anode, each forming an electrical half-cell, and a conductive treatment gel containing HADSCC media.The treatment gel may also contain human adipose-derived stem cells. The method includes providing a treatment gel and a dressing, applying the treatment gel to the skin or to the dressing, and applying the dressing to the skin. Other embodiments include bandages combining sterile dressings with a composition including a conditioned medium. The conditioned medium may be nanoencapsulated or may be dispersed in an emollient base and applied to the sterile dressing.
Abstract:
An electrode for use with a therapeutic current delivery system can include a flexible, water vapor-permeable, conductive adhesive material; a current dispersing element in contact with the conductive adhesive material; and a non-conductive, flexible, water vapor-permeable, electrically-insulating top layer provided in contact with the current dispersing element. The current dispersing element can be conductive at least laterally along a plane of the electrode. The conductive adhesive material can be conductive in a direction substantially orthogonal to the plane of the electrode and semi-conductive in a direction substantially lateral to the plane of the electrode.
Abstract:
An electrode assembly includes a first surface to be placed adjacent a person's skin and a second surface including a plurality of reservoirs of conductive gel. The plurality of reservoirs of conductive gel are disposed on sections of the electrode assembly that are at least partially physically separated and may move at least partially independently of one another to conform to contours of a body of a patient. The electrode assembly is configured to dispense an amount of the electrically conductive gel onto the first surface in response to an activation signal and to provide for a defibrillating shock to be applied to the patient through the amount of the electrically conductive gel.
Abstract:
Described herein are polymer formulations for facilitating electrical stimulation of nasal or sinus tissue. The polymer formulations may be hydrogels that are prepared by a UV cross-linking process. The hydrogels may be included as a component of nasal stimulator devices that electrically stimulate the lacrimal gland to improve tear production and treat dry eye. Additionally, devices and methods for manufacturing the nasal stimulators, including shaping of the hydrogel, are described herein.
Abstract:
The present disclosure relates to various methods for determining a neuromuscular blockade status and systems suitable for performing such methods. The present disclosure further relates to electro-stimulation electrodes for stimulating a muscle of a patient, optionally in the context of at least some of the mentioned methods. The present disclosure still further relates to hybrid air-signal connectors for use in an electro-stimulation cuff which can be used in the context of at least some of the cited methods. The present disclosure also relates to electro-stimulation circuits comprising an electrode portion and a track portion suitable for pressure cuffs for electro¬ stimulation, and to pressure cuffs configured to be arranged around a limb of a patient and comprising an active electro-stimulation electrode and a passive electro-stimulation electrode. These electro-stimulation circuits and pressure cuffs may also be used in the context of at least some of the mentioned methods.
Abstract:
The present disclosure relates to a body electrode (14) comprising a body-facing layer (22), a conductive layer (24) and a conductive body (26). The conductive layer (24) comprises a first material composition and the conductive body (26) comprises a second material composition. The second material composition has a lower electrical resistance than the first material composition. The conductive body (26) is located within and/or on the conductive layer (24). The body electrode (14) comprises a plurality of fluid transport passages (30) extending through both of the body-facing layer (22) and the conductive layer (24).
Abstract:
A circumferential electrode includes a moisture-containing layer comprising a first side and an electrically conductive layer on the moisture-containing layer, the electrically conductive layer including a second side and a third side opposite the second side, the third side of the electrically conductive layer contacting the first side of the moisture-containing layer. The circumferential electrode further includes a barrier layer on the electrically conductive layer, the barrier layer including a fourth side adjacent to the second side of the electrically conductive layer. The circumferential electrode further includes a bulk region and a border region, the border region completely surrounding the bulk region, and the electrically conductive layer is in the bulk region but is not in the border region. The circumferential electrode can be part of an electrotherapy system which can be used to apply various current waveforms to patients in order to treat a variety of ailments and conditions.