A method of soft tissue treatment of a patient includes placing an applicator onto a surface of the soft tissue, with the applicator including an electrode and a dielectric material vacuum cup. The soft tissue is heated via the electrode. Vacuum is applied to the vacuum cup. The electrode may be at least partially covered by a dielectric material of variable thickness.

A device for transcutaneous electrical stimulation is provided. The device comprises circuitry configured to generate transcutaneous stimulation signals. The device also comprises a first signal output component for electrically connecting to a first electrode connector to deliver generated transcutaneous stimulation signals. The first signal output component comprises a first four-pole electrical connector part. The device further comprises a second signal output component for electrically connecting to a second electrode connector to deliver generated transcutaneous stimulation signals. The second signal output component comprises a second four-pole electrical connector part. The device further comprises a controller to selectively control output of the stimulation signals to selected pairs of poles across the first and second four-pole electrical connector parts. Each selected pair of poles comprises one pole from the first four-pole electrical connector part and one pole from the second four-pole electrical connector part.

A system and method for the transcutaneous stimulation of various nerves such as the phrenic, hypoglossal, and vagal nerves is provided. The stimulation elicits a corresponding muscle response without reported pain.

Radiopaque markers represent that a lead is suitable for a particular medical procedure such as a magnetic resonance image scan and are added to the lead or related device. The markers may be added after implantation of the lead in various ways including suturing, gluing, crimping, or clamping a radiopaque tag to the lead or to the device. The markers may be added by placing a radiopaque coil about the lead, and the radiopaque coil may radially contract against the lead to obtain a fixed position. The markers may be added by placing a polymer structure onto the lead where the polymer structure includes a radiopaque marker within it. The polymer structure may include a cylindrical aperture that contracts against the lead to fix the position of the polymer structure. The polymer structure may form a lead anchor that includes suture wings that can be sutured to the lead.

An electrical stimulation lead includes a lead body insertable into a patient. Electrodes are disposed along the lead body. The electrodes include at least two sets of segmented electrodes. Each set of segmented electrodes includes a first segmented electrode and a second segmented electrode radially spaced apart from one another around a circumference of the lead body. A tab is disposed on the first segmented electrode of each set of segmented electrodes. The tabs extend into the lead body. A guide feature is disposed on the tabs. The guide features are each radially aligned with one another along the length of the lead body. Conductors extend along the length of the lead body from a proximal end to the electrodes. Each of the conductors is electrically coupled to at least one of the electrodes. At least one of the conductors extends through the radially-aligned guide features of the tabs.

The present invention relates to electrocardiography and to electrode arrangements used in electrocardiographic monitoring devices, and is more particularly related to a pad or patch containing said electrodes which may be used to passively and non-invasively monitor electrical activity generated by a patient's heart from the surface of that patient's chest, and to a connector which allows for fast and simple connection between the pad containing said electrodes and the devices and equipment typically used to monitor and view electrocardiographic information.

An EMS stimulation current transmission element for an EMS garment includes a planar current transmission region of an EMS electrode for transmitting EMS stimuli to the living body, which contains a number of two-dimensionally arranged linear current conductor strand sections and is connected, via a further number of linear current conductor strand sections, to a connection point that is in particular spaced apart from the current transmission region, at which connection point the EMS stimulation current transmission element can be connected to an EMS stimulation current production unit, in order to load the current transmission region with an EMS stimulation current shaped by the EMS stimulus current production unit from a current drawn from a current source to form a pulse sequence and/or to form an alternating current. The current transmission region has a single linear current conductor strand section. An EMS garment has an EMS stimulation current transmission element.

The subject of the invention is a microprobe for selective electroporation comprising at least two metal electrodes (A) immersed in a glass rod (E), characterised in that the glass rod (E) made of a primary glass is 50 μm to 2 mm in diameter, preferably 50 μm to 500 μm, the metal electrodes (A) made of a metal alloy are formed as rods with diameter of 1 μm to 100 μm, preferably 20 μm to 30 μm, wherein endings of those rods are exposed, wherein the primary glass and the metal alloy are matched in such manner that dilatometric softening temperature DTM of the primary glass is highly similar to the temperature of melting for the metal alloy.
The invention also includes a method of manufacturing of such a microprobe.

A patch for a therapeutic electrical stimulation device includes a shoe connected to the first side of the patch, the shoe including a body extending in a longitudinal direction from a first end to a second end, and having first and second surfaces, the first end of the shoe defining at least two ports, and the first surface of the shoe defining a connection member. The patch also includes at least one conductor positioned in the ports of the first end of the shoe. The shoe is configured for sliding insertion into a receptacle defined by a controller so that the conductor is connected to the controller to deliver electrical current from the controller, through the conductor, and to the electrodes, and the connection member is at least partially captured by a detent defined by the controller in the receptacle to retain the shoe within the receptacle.

The present disclose relates to slurry electrodes that can deliver direct current (DC) nerve conduction block to neural tissue. Such slurry electrodes can include an ionically conductive membrane having a first side and a second side. Slurry electrodes can also include a mechanism that is configured to encapsulate a slurry against the first side of the ionically conductive membrane. The slurry can include an ionically conductive material and a plurality of electrically conducting high surface area particles. The mechanism and the first side of the ionically conductive membrane make up a housing for the slurry. Slurry electrodes can also include a connector configured to establish an electrical connection between the slurry and the DC generator.