Abstract:
A socket module for an electrosurgical device has a housing (10), at least two connectors (11, 12) each having two contacts (11a, 11b, 12a, 12b). A first connection member (13) electrically connects a first contact (11a) of the first connector (11) to a first contact (12a) of the second connector (12). The first connection member (13) has two contact regions (13a, 13b), of which a first contact region (13a) is connected to the first contact (11a) of the first connector (11) and a second contact region (13b) is connected to the first contact (12a) of the second connector (12). A printed circuit board (15) is arranged in the housing (10) and electrically connected to the first connector. (11) The printed circuit board (15) supports a third contact region (15a, 15b) which connects the first connector (11) to the printed circuit board (15).
Abstract:
A spring contact component for a plug socket of an electromedical implant, with a coil surrounding the outer periphery of a plug opening. A simpler, more cost effective and automatable design of a plug socket module can be achieved in that at least one end of the coil is electrically and mechanically connected directly to a connector pin via a wire-shaped and/or strip-shaped element. The invention also relates to a corresponding plug socket module, a modular header, and a method for producing a spring contact component of this type.
Abstract:
A coaxial cable may include an inner conductor, an outer conductor coaxially disposed about the inner conductor, and a proximal end sized and shaped for insertion into a connector. The proximal end may have an outer conductor contact coupled electrically to the outer conductor, and an extended section of the inner conductor that extends axially beyond the outer conductor contact. The extended section may include an inner conductor contact having an electrically conductive material disposed at least partially around the inner conductor, and an insulated area positioned to isolate electrically the outer conductive contact from the inner conductive contact, and having an electrically insulating material disposed at least partially around the inner conductor.
Abstract:
A connection facility for connecting an electrocardiogram electrode to a data acquisition and/or transfer facility includes a signal line and a connecting element for connecting the signal line to the electrocardiogram electrode. The connecting element has a clamping body with two clamping jaws connected by an elastic reset element between a front and a rear end of the clamping body, and a contact element for making contact with the electrocardiogram electrode arranged at the front end of the clamping body and connected in an electrically conducting manner to the signal line. The connecting element has a grip region, in which the jaw width is wider than the jaw width at the front end. The contact element is arranged centrally in the jaw width of the clamping jaws and has an extension in the direction of the jaw width, which is smaller than the jaw width at the front end.
Abstract:
An electronic device includes a casing, first and second batteries and a conductive plate. The first and second batteries are disposed in a battery slot of the casing. The conductive plate is clamped between the first and second batteries, and has a mounting portion that is mounted pivotally into a mounting groove of the casing such that the conductive plate is pivotable between a clamped position where a conductive body of the conductive plate is clamped between the first and second batteries, and an unclamped position where the conductive body is spaced apart from the first and second batteries for removal and installment of one of the first and second batteries.
Abstract:
A screwless quick connection system for connecting a lead connector to a generator of an active implantable medical device is shown and described. The connector head includes a housing receiving a plug of a lead connector. A mechanism for locking the plug into the housing is provided by a U-folded leaf spring. Each branch of the U is provided with a respective hole sized so that the plug passes through the holes on both branches when it is inserted into the housing. The blade is deformable between a free state, in the absence of plug, and a deformed state, with the plug inserted therein. In the free state, both holes are misaligned, while in the deformed state they are aligned. In this way, an edge of both holes exerts by reaction a radial stress force against the smooth outer surface of the plug inserted therein.
Abstract:
Various embodiments of this disclosure concern a lead end having an inner support. Such a lead can include a first end, a second end, a main body, and a plurality of exposed electrical elements on each of the lead ends. A metal support can be contained within the first end, the metal support comprising a plurality of longitudinal members and a plurality of cross members between the longitudinal members, the metal support having an interior space. The first lead end can further include polymer fill within the interior space of the metal support and encapsulating at least a substantial portion of the metal support, the polymer fill defining at least some of the exterior surface of the first end between the exposed electrical elements of the first end.
Abstract:
A lead connector assembly for an Implantable Medical Device (IMD) is disclosed. The lead connector assembly includes a rigid elongated connector core having a core opening along its long axis. An alternating series of elastomer seals and header contacts are inserted into the core opening along the long axis and meet with an end stop to hermetically self-align the header contacts with contact openings along the sides of the core. A connector block can be inserted into an opening in the connector core, and sealed with an adhesive. Once the connector core, header contacts, seals, and connector block are subassembled, the connector core subassembly may be hermitically tested, and thereafter affixed to other subassemblies by affixing means on the connector cores. Feedthrough pins can then be connected to the header contacts through the contact openings, and overmolded with a header to the IPG's case.
Abstract:
A surgical instrument including a handle assembly, a first endoscopic portion, a motor, and a first end effector is disclosed. The first endoscopic portion is selectively connectable to a distal portion of the handle assembly and defines a longitudinal axis. The first endoscopic portion includes a housing adjacent its proximal portion and includes an actuation member. The motor is disposed in mechanical cooperation with the housing of the first endoscopic portion and is operatively connected to the actuation member for moving the actuation member substantially along the longitudinal axis. The first end effector is selectively connectable to a distal portion of the first endoscopic portion and is configured to perform a first stapling function.