Abstract: A guidance system for guiding an intervention device such as a needle to a target location such as a vessel while remaining within a field of view of an imaging device such as an ultrasound. The guidance system may include an attachment mechanism for removable attachment to a specific ultrasound probe or which is adaptable to multiple different probes. A guidance mechanism may extend outwardly from the attachment mechanism for guiding the angle and depth of the intervention device. The guidance mechanism may include a plurality of openings through which the intervention device may be selectively inserted, with each opening being configured for a different angle and/or depth. Alternatively, the guidance mechanism may include a single opening that is adjustable along an arcuate path. A release mechanism may be included to allow the intervention device to be safely removed from the guidance mechanism without undue movement of the intervention device.

Abstract: A guidance system for guiding an intervention device such as a needle to a target location such as a vessel while remaining within a field of view of an imaging device such as an ultrasound. The guidance system may include an attachment mechanism for removable attachment to a specific ultrasound probe or which is adaptable to multiple different probes. A guidance mechanism may extend outwardly from the attachment mechanism for guiding the angle and depth of the intervention device. The guidance mechanism may include a plurality of openings through which the intervention device may be selectively inserted, with each opening being configured for a different angle and/or depth. Alternatively, the guidance mechanism may include a single opening that is adjustable along an arcuate path. A release mechanism may be included to allow the intervention device to be safely removed from the guidance mechanism without undue movement of the intervention device.

Abstract: A guidance system for guiding an intervention device such as a needle to a target location such as a vessel while remaining within a field of view of an imaging device such as an ultrasound. The guidance system may include an attachment mechanism for removable attachment to a specific ultrasound probe or which is adaptable to multiple different probes. A guidance mechanism may extend outwardly from the attachment mechanism for guiding the angle and depth of the intervention device. The guidance mechanism may include a plurality of openings through which the intervention device may be selectively inserted, with each opening being configured for a different angle and/or depth. Alternatively, the guidance mechanism may include a single opening that is adjustable along an arcuate path. A release mechanism may be included to allow the intervention device to be safely removed from the guidance mechanism without undue movement of the intervention device.

Abstract: A battery module having a plurality of battery cells and a first housing element (21) and a second housing element (22) is disclosed. The housing elements together form an interior space (9) in which the plurality of battery cells is accommodated, and are each formed from a metal material, the first housing element (21) having a projection (31) and the second housing element (22) having an indentation (32), the projection (31) engaging in the indentation (32). On a side facing away from the interior space, the first housing element (21) has a first weld region (41) and the second housing element (22) has a second weld region (42), the first weld region (41) and the second weld region (42) being connected to one another by welding.

Abstract: A guidance system for guiding an intervention device such as a needle to a target location such as a vessel while remaining within a field of view of an imaging device such as an ultrasound. The guidance system may include an attachment mechanism for removable attachment to a specific ultrasound probe or which is adaptable to multiple different probes. A guidance mechanism may extend outwardly from the attachment mechanism for guiding the angle and depth of the intervention device. The guidance mechanism may include a plurality of openings through which the intervention device may be selectively inserted, with each opening being configured for a different angle and/or depth. Alternatively, the guidance mechanism may include a single opening that is adjustable along an arcuate path. A release mechanism may be included to allow the intervention device to be safely removed from the guidance mechanism without undue movement of the intervention device.

Abstract: A guidance system for guiding an intervention device such as a needle to a target location such as a vessel while remaining within a field of view of an imaging device such as an ultrasound. The guidance system may include an attachment mechanism for removable attachment to a specific ultrasound probe or which is adaptable to multiple different probes. A guidance mechanism may extend outwardly from the attachment mechanism for guiding the angle and depth of the intervention device. The guidance mechanism may include a plurality of openings through which the intervention device may be selectively inserted, with each opening being configured for a different angle and/or depth. Alternatively, the guidance mechanism may include a single opening that is adjustable along an arcuate path. A release mechanism may be included to allow the intervention device to be safely removed from the guidance mechanism without undue movement of the intervention device.

Abstract: A battery pack (1) includes a housing (2) and an array of electrochemical cells (80) disposed in the housing (2). The housing (2) includes a container (3) and a lid (30) that closes an open end of the container (3). The container (3) has a base (4), a sidewall (8) that surrounds the base (4), and a spring plate (110) disposed inside the sidewall (8) between the cells (80) and the sidewall (8). The spring plate (110) is free standing within the container (3) and applies a spring force to the cell array that restrains the cells (80) along an axis normal to the surface of the spring plates (110). The lid (30) includes inwardly-protruding pins (50, 60) that further restrain the cells (80) within the housing (2).

Abstract: A battery system (100) which comprises a metallic battery housing (200) and a metallic component housing (300), wherein at least one battery module (10) having at least one battery cell (12) and a control unit (20) for controlling and monitoring the at least one battery module (10) are arranged in the battery housing (200) and wherein at least one electrical component (80) is arranged in the component housing (300), which electrical component is electrically connected to the at least one battery module (10).

Abstract: A battery module having a plurality of battery cells and a first housing element (21) and a second housing element (22) is disclosed. The housing elements together form an interior space (9) in which the plurality of battery cells is accommodated, and are each formed from a metal material, the first housing element (21) having a projection (31) and the second housing element (22) having an indentation (32), the projection (31) engaging in the indentation (32). On a side facing away from the interior space, the first housing element (21) has a first weld region (41) and the second housing element (22) has a second weld region (42), the first weld region (41) and the second weld region (42) being connected to one another by welding.

Abstract: A battery module element with a housing element (2) of a battery module on which an electrical circuit board (3) is arranged on a first side (21) of the housing element (2), wherein an inductor (6) is arranged on the electrical circuit board (3) in such a mechanical manner that at least one end (71) of a coil winding (7) of the inductor (6) is arranged running through the electrical circuit board (3) and is connected to the housing element (2) in a thermally conductive manner, and wherein the housing element (2) comprises a temperature control structure (5), around which temperature control fluid can flow, on a second side (22) opposite the first side (21), so that heat can be transferred from the coil winding (7) to the temperature control fluid.

Abstract: A battery pack (1) includes a housing (2) and an array (40) of electrochemical cells (80) disposed in the housing (2). The housing (2) includes a container (3) and a lid (30) that closes an open end of the container (3). The container (3) has a base (4), a sidewall (8) that surrounds the base (4), and a spring plate (110) disposed inside the side wall (8) between the cells (80) and the sidewall (8). The spring plate (110) is free standing within the container (3) and applies a spring force to the cell array (40) that restrains the cells (80) along an axis normal to the surface of the spring plates (110). The lid (30) includes inwardly-protruding pins (50, 60) that further restrain the cells (80) within the housing (2).

Abstract: A battery system (100) which comprises a metallic battery housing (200) and a metallic component housing (300), wherein at least one battery module (10) having at least one battery cell (12) and a control unit (20) for controlling and monitoring the at least one battery module (10) are arranged in the battery housing (200) and wherein at least one electrical component (80) is arranged in the component housing (300), which electrical component is electrically connected to the at least one battery module (10).

Abstract: A service device for a multi-component insulating gas for use during maintenance of electrical switchgear systems comprising a compressor with a downstream condenser, a storage container, the service device is connected to a system space, and the compressor compresses the insulating gas during removal from the system space, all components of the insulating gas remain in the compressor in a gaseous state, the condenser is controlled by a controller so a condensation of the insulating gas occurs first in the storage container, a storage heating device is provided for the storage container, during filling of the system space the storage heating device heats the insulating gas to a temperature above the critical temperature of the insulating gas, wherein, a line heating device is provided which at least partially heats the pipeline between the storage container and the system space and/or heats elements in the pipeline.

Abstract: A battery pack(1) includes a housing (2) and an array of electrochemical cells (80) disposed in the housing (2). The housing (2) includes a container (3) and a lid (30) that closes an open end of the container (3). The container (3) has a base (4), a sidewall (8) that surrounds the base (4), and a spring plate (110) disposed inside the sidewall (8) between the cells (80) and the sidewall (8). The spring plate (110) is free standing within the container (3) and applies a spring force to the cell array that restrains the cells (80) along an axis normal to the surface of the spring plates (110). The lid (30) includes inwardly-protruding pins (50, 60) that further restrain the cells (80) within the housing (2).

Abstract: A battery pack (1) includes a housing (2) and an array (40) of electrochemical cells (80) disposed in the housing (2). The housing (2) includes a container (3) and a lid (30) that closes an open end of the container (3). The container (3) has a base (4), a sidewall (8) that surrounds the base (4), and a spring plate (110) disposed inside the side wall (8) between the cells (80) and the sidewall (8). The spring plate (110) is free standing within the container (3) and applies a spring force to the cell array (40) that restrains the cells (80) along an axis normal to the surface of the spring plates (110). The lid (30) includes inwardly-protruding pins (50, 60) that further restrain the cells (80) within the housing (2).

Abstract: A service device for a multi-component insulating gas for use during maintenance of electrical switchgear systems comprising a compressor with a downstream condenser, a storage container, the service device is connected to a system space, and the compressor compresses the insulating gas during removal from the system space, all components of the insulating gas remain in the compressor in a gaseous state, the condenser is controlled by a controller so a condensation of the insulating gas occurs first in the storage container, a storage heating device is provided for the storage container, during filling of the system space the storage heating device heats the insulating gas to a temperature above the critical temperature of the insulating gas, wherein, a line heating device is provided which at least partially heats the pipeline between the storage container and the system space and/or heats elements in the pipeline.

Abstract: The invention relates to an electrolyte battery electrode component having a layer having a surface adjoined by electrolyte in the battery and provided with a fluid-conducting channel structure. In this context, it is envisaged that through the fluid-conducting structure has channels having channel depths in the range from 10 to 200 ?m and/or at least 50% of the thickness of the active layer.

Abstract: The invention relates to an electrolyte battery electrode component having a layer having a surface adjoined by electrolyte in the battery and provided with a fluid-conducting channel structure. In this context, it is envisaged that through the fluid-conducting structure has channels having channel depths in the range from 10 to 200 ?m and/or at least 50% of the thickness of the active layer.

Abstract: A circuit package includes a substrate having an opening and a single unitary heat sink adapted to effectively dissipate heat is positioned in the opening to expose top and bottom surfaces which are respectively coplanar with top and bottom surfaces of the substrate. Selective plating includes applying first and second metal patterns to a substrate surface, creating a potential voltage difference between the first metal pattern and a metal source, and plating the first metal pattern by attracting a first metal type to the voltage potential of the first metal pattern. The voltage potential of the first metal pattern is less than the voltage potential of the metal source.

Abstract: A method and apparatus for minimally invasive total joint replacement. The method involves sculpting the articular surface of a second bone that normally articulates with a first bone by attaching a bone sculpting tool directly or indirectly to the first bone with the tool in bone sculpting engagement with the articular surface of the second bone, and then sculpting the articular surface of the second bone with the joint reduced and moving one bone with respect to the other. An implant is placed to replace the articular surface of the second bone using an impaction device directly or indirectly attached to the first bone.