Abstract: A tool arrangement includes a tool management device with a body and a lid which, by a hinge connection, is configured pivotably relative to the body for selectively covering or releasing a receiving space of the body, and a receiving device for receiving tool elements. The receiving device is mounted or mountable in the receiving space of the body such that, by the hinge connection, the receiving device is co-pivoted when the lid is pivoted. The lid is detachable from the hinge connection, such that, after detaching the lid from the hinge connection, the receiving device is pivotable by actuating the hinge connection without the lid.

Abstract: A medical device and a manufacturing method for such medical device having an assembly comprising: an elongated solid housing with an outer surface and a maximum outer diameter, at least one electrical contact area at the outer surface of the housing, and a processor encapsulated within the housing, wherein the method comprises the following steps: providing the assembly and a tube consisting of a plastic and electrically insulating material, wherein an inner diameter of the tube is greater than the maximum outer diameter (108) of the assembly, accommodating the assembly within the tube such that at least one electrical contact area of the assembly is not covered, and applying a shrinking step to the tube such that the shrunken tube is firmly attached to the outer surface of the housing. The manufacturing method is cheaper and less time consuming than state-of-the-art methods, and also better suitable for automation.

Abstract: A support barrel for an electrical lead includes a first barrel end and a second barrel end opposite to the first barrel end in a circumferential direction. The first barrel end engages the second barrel end and forms a positive engagement acting in the circumferential direction.

Abstract: A support barrel for an electrical lead includes a first barrel end and a second barrel end opposite to the first barrel end in a circumferential direction. The first barrel end engages the second barrel end and forms a positive engagement acting in the circumferential direction.

Abstract: An electromedical implant, having a housing with three housing segments A, B and C. Segment A is joined to segment B, and segment B is joined to segment C, so that segment B is disposed between segments A and C. Segment A and segment C are at least partially made of electrically conducting material. Furthermore, an electronics module is disposed within housing segment A and has an electric circuit arrangement for picking up and further processing electrical signals, and at least one first and one second electrical conductor for measuring electrical potentials and/or for delivering electric pulses. Each conductor has a conductor start and a conductor end, and each conductor start is connected to the electric circuit arrangement. An electrical feedthrough is at least partially made of electrically insulating material, and segment B is formed by portions of the feedthrough.

Abstract: An electromedical implant, having a housing with three housing segments A, B and C. Segment A is joined to segment B, and segment B is joined to segment C, so that segment B is disposed between segments A and C. Segment A and segment C are at least partially made of electrically conducting material. Furthermore, an electronics module is disposed within housing segment A and has an electric circuit arrangement for picking up and further processing electrical signals, and at least one first and one second electrical conductor for measuring electrical potentials and/or for delivering electric pulses. Each conductor has a conductor start and a conductor end, and each conductor start is connected to the electric circuit arrangement. An electrical feedthrough is at least partially made of electrically insulating material, and segment B is formed by portions of the feedthrough.

Abstract: A feedthrough of an implantable electronic medical device, including a housing, an insulating body, a feedthrough flange surrounding the insulating body, and at least one connecting element penetrating the insulating body for externally connecting an electric or electronic component of the device, in particular multiple connecting elements, wherein a low-temperature hard solder connection or soft solder connection is provided between the insulating body and the feedthrough flange and/or between the insulating body and the, or at least one, connecting element and/or between the insulating body and the housing, the connection being formed in particular at a temperature of 900° C. or less, preferably less than 450° C., and still more preferably less than 400° C.

Abstract: A spring sleeve for an electrical contact element, in particular for a medical implant, including a connector bore for receiving an electrical mating contact in an insertion direction; at least one spring accommodating region, which is disposed around the connector bore, at least in regions, and is open, at least in regions, toward the connector bore, said spring accommodating region being provided to receive a spring element for the electrical contacting of the electrical mating contact, wherein an open space is provided in the spring accommodating region such that a properly inserted spring element can deflect into the open space when the mating contact is inserted. Furthermore, an electrical contact element comprising a spring sleeve is proposed, as well as a method for producing a contact element.

Abstract: An electrical contact element, in particular for a medical implant, including a spring sleeve with a bushing for receiving an electrical mating contact in a direction of insertion, at least one groove that is arranged transversely around the bushing at least in areas and that is open to the bushing at least in areas; at least one spring element, arranged in the groove, for electrically contacting the electrical mating contact. Here, at least one feed-through channel is provided to feed the spring element into the peripheral groove and leads from an outer face of the spring sleeve to the at least one groove. The invention further relates to a method for producing a contact element and also to a device for carrying out the method.

Abstract: An electrical contact element, in particular for a medical implant, including a spring sleeve with a bushing for receiving an electrical mating contact in a direction of insertion, at least one groove that is arranged transversely around the bushing at least in areas and that is open to the bushing at least in areas; at least one spring element, arranged in the groove, for electrically contacting the electrical mating contact. Here, at least one feed-through channel is provided to feed the spring element into the peripheral groove and leads from an outer face of the spring sleeve to the at least one groove. The invention further relates to a method for producing a contact element and also to a device for carrying out the method.

Abstract: A new hermetically-sealed contact feedthrough for cardiac pacemakers and defibrillators for the connection between internal device electronics and external components, a flat ceramic disk (1) being used as an insulating main carrier, in which openings (3) are situated, into which various electrode embodiments (4, 5, 6, 7) may be inserted as through contacts. Using a metal flange or metal-plated vapor deposition zone (2), the ceramic disk may be soldered directly onto the implant housing (11). In addition, active and passive auxiliary components (8) may be applied directly to the ceramic. The main carrier may be implemented as a multilayer ceramic (9), so that rewiring levels and shielding components (10) may be integrated in the feedthrough. The feedthrough according to the present invention allows novel construction variants, above all things having orientation to multipolar systems, through use of standardized ceramic semifinished products.

Abstract: Housing for medical implant, such as cardiac pacemaker, defibrillator, cardioverter, etc. Housing including hollow housing and terminal body attached to hollow housing, which has electrical terminal(s), situated in an externally accessible cavity of the terminal body, for connecting an electrode line, and terminal body including a base body made of electrically insulating plastic, connected to hollow housing and carries electrical supply lines and electrical contacts, which are electrically connected thereto, for the electrical terminal so that the contacts are connected via the electrical supply lines to electrical components in the interior of the hollow housing, electrical supply lines being welded to the electrical contacts and the electrical supply lines and electrical contacts, which are welded to one another, being embedded in the base body and thus fixed in their final position, and the base body being glued to the hollow housing using an adhesive between hollow housing and terminal body.

Abstract: Housing for medical implant, such as cardiac pacemaker, defibrillator, cardioverter, etc. Housing including hollow housing and terminal body attached to hollow housing, which has electrical terminal(s), situated in an externally accessible cavity of the terminal body, for connecting an electrode line, and terminal body including a base body made of electrically insulating plastic, connected to hollow housing and carries electrical supply lines and electrical contacts, which are electrically connected thereto, for the electrical terminal so that the contacts are connected via the electrical supply lines to electrical components in the interior of the hollow housing, electrical supply lines being welded to the electrical contacts and the electrical supply lines and electrical contacts, which are welded to one another, being embedded in the base body and thus fixed in their final position, and the base body being glued to the hollow housing an adhesive between hollow housing and terminal body.

Abstract: The present invention relates to an electrical connection between the individual components of active medical implants, in particular between a voltage source and an electrical consumer. The voltage source is electrically connected to the electrical consumer via a spring contact block. The electrical connection between the voltage source and the electrical consumer is produced by the spring contact block, in that the contacting face of the spring contact rests on a counter contact face of the consumer or the voltage source and a pressure force generated by the spring restoring force of the spring contact is exerted on the counter contact face, the counter contact face being implemented as essentially level and situated parallel to the surface, to which it is fastened.

Abstract: A new hermetically-sealed contact feedthrough for cardiac pacemakers and defibrillators for the connection between internal device electronics and external components, a flat ceramic disk (1) being used as an insulating main carrier, in which openings (3) are situated, into which various electrode embodiments (4, 5, 6, 7) may be inserted as through contacts. Using a metal flange or metal-plated vapor deposition zone (2), the ceramic disk may be soldered directly onto the implant housing (11). In addition, active and passive auxiliary components (8) may be applied directly to the ceramic. The main carrier may be implemented as a multilayer ceramic (9), so that rewiring levels and shielding components (10) may be integrated in the feedthrough. The feedthrough according to the present invention allows novel construction variants, above all things having orientation to multipolar systems, through use of standardized ceramic semifinished products.

Abstract: A housing for a medical implant, such as a cardiac pacemaker, defibrillator, cardioverter, or the like, the housing having a hollow housing and a terminal body attached to the hollow housing, which has at least one electrical terminal, situated in an externally accessible cavity of the terminal body, for connecting an electrode line, and the terminal body comprising a base body made of electrically insulating plastic, which is connected to the hollow housing and carries electrical supply lines and electrical contacts, which are electrically connected thereto, for the electrical terminal in such a way that the contacts are to be connected via the electrical supply lines to electrical components in the interior of the hollow housing, electrical supply lines being welded to the electrical contacts and the electrical supply lines and electrical contacts, which are welded to one another, being embedded in the base body and thus fixed in their final position, and the base body being glued to the hollow housing an a

Abstract: A housing for a medical implant, such as a cardiac pacemaker, defibrillator, cardioverter, or the like, the housing having a hollow housing and a terminal housing attached to the hollow housing, which has at least one electrical terminal, which is situated in an externally accessible cavity of the terminal housing, for connecting an electrode line. The terminal housing is glued to the hollow housing using an adhesive, the plastic of the terminal housing containing polyurethane and/or polycarbonate and the adhesive being an epoxide or polyurethane.

Abstract: The invention concerns an electromedical implant for intracardial coronary therapy comprising an implant housing in which functional component parts of the implant, namely a circuit, a battery and the like, are disposed. It is characterized in that the battery (10) has a flat side (10.2), an underside (10.3) and a peripherally extending narrow side (10.1) and the battery (10) is arranged with its underside (10.3) on an internal base surface (18.1) of the implant housing (18) and the circuit (22) is arranged in adjacent relationship with a flat side (10.2) of the battery (10).

Abstract: The invention concerns an electromedical implant for intracardial coronary therapy comprising an implant housing in which functional component parts of the implant, namely a circuit, a battery and the like, are disposed. It is characterized in that the battery (10) has a flat side (10.2), an underside (10.3) and a peripherally extending narrow side (10.1) and the battery (10) is arranged with its underside (10.3) on an internal base surface (18.1) of the implant housing (18) and the circuit (22) is arranged in adjacent relationship with a flat side (10.2) of the battery (10).