Abstract: A leadless pacing device may include a housing having a proximal end and a distal end, and one or more electrodes supported by the housing. The housing may include a body portion and a header. A distal extension may extend distally from the header of the housing, the distal extension including one or more electrodes. The header may include a guide wire port and a guide wire lumen may extend from the guide wire port through the header of the housing and through the distal extension. A fixation member may extend from the header of the housing. The header may be formed from an over mold process.

Abstract: A system may include a leadless cardiac pacing device including a body, a proximal hub, and a helical fixation member opposite the proximal hub; and a first elongate shaft having a lumen extending from a distal end of the elongate shaft proximally into the elongate shaft and a transverse member extending transversely across the lumen. The proximal hub may include a transverse channel extending into the proximal hub, the transverse channel being configured to engage the transverse member.

Abstract: A leadless pacing device may include a housing having a proximal end and a distal end, and one or more electrodes supported by the housing. The housing may include a body portion and a header. A distal extension may extend distally from the header of the housing, the distal extension including one or more electrodes. The header may include a guide wire port and a guide wire lumen may extend from the guide wire port through the header of the housing and through the distal extension. A fixation member may extend from the header of the housing. The header may be formed from an over mold process.

Abstract: An implantation and/or retrieval device for a leadless cardiac pacing device may include a first elongate shaft including a lumen; a second elongate shaft slidably disposed within the lumen of the first elongate shaft; an end cap assembly fixedly attached to a distal end of the first elongate shaft; and a plurality of wires attached to the second elongate shaft and extending distally from the end cap assembly, the plurality of wires being movable relative to the end cap assembly. The plurality of wires is configured to engage a proximal hub of the leadless cardiac pacing device. The plurality of wires forms a plurality of wire loops extending distally from the end cap assembly.

Abstract: A leadless pacing device may include a housing having a proximal end and a distal end, and one or more electrodes supported by the housing. The housing may include a body portion and a header. A distal extension may extend distally from the header of the housing, the distal extension including one or more electrodes. The header may include a guide wire port and a guide wire lumen may extend from the guide wire port through the header of the housing and through the distal extension. A fixation member may extend from the header of the housing. The header may be formed from an over mold process.

Abstract: An implantation and/or retrieval device for a leadless cardiac pacing device may include a first elongate shaft including a lumen; a second elongate shaft slidably disposed within the lumen of the first elongate shaft; an end cap assembly fixedly attached to a distal end of the first elongate shaft; and a plurality of wires attached to the second elongate shaft and extending distally from the end cap assembly, the plurality of wires being movable relative to the end cap assembly. The plurality of wires is configured to engage a proximal hub of the leadless cardiac pacing device. The plurality of wires forms a plurality of wire loops extending distally from the end cap assembly.

Abstract: A system may include a leadless cardiac pacing device including a body, a proximal hub, and a helical fixation member opposite the proximal hub; and a first elongate shaft having a lumen extending from a distal end of the elongate shaft proximally into the elongate shaft and a transverse member extending transversely across the lumen. The proximal hub may include a transverse channel extending into the proximal hub, the transverse channel being configured to engage the transverse member.

Abstract: A leadless pacing device may include a housing having a proximal end and a distal end, and one or more electrodes supported by the housing. The housing may include a body portion and a header. A distal extension may extend distally from the header of the housing, the distal extension including one or more electrodes. The header may include a guide wire port and a guide wire lumen may extend from the guide wire port through the header of the housing and through the distal extension. A fixation member may extend from the header of the housing. The header may be formed from an over mold process.

Abstract: A leadless pacing device may include a housing having a proximal end and a distal end, and one or more electrodes supported by the housing. The housing may include a body portion and a header. A distal extension may extend distally from the header of the housing, the distal extension including one or more electrodes. The header may include a guide wire port and a guide wire lumen may extend from the guide wire port through the header of the housing and through the distal extension. A fixation member may extend from the header of the housing. The header may be formed from an over mold process.

Abstract: Certain exemplary aspects of the present disclosure are directed towards an apparatus including a base deck forming a sealed cavity. A filter coupled to a surface of the base deck within the cavity filters particulate from a flow of gas in the cavity. The recirculation filter including a protrusion extending over a surface of a storage medium within the cavity that diverts gas from a surface of the storage medium toward the filter. A bypass channel, defined by a portion of the cavity and a portion of the filter, in conjunction with the protrusion forms a pressure differential that draws a first portion of the diverted gas through the filter by bypassing the filter with a second portion of the diverted gas.

Abstract: Certain exemplary aspects of the present disclosure are directed towards an apparatus including a base deck forming a sealed cavity. A filter coupled to a surface of the base deck within the cavity filters particulate from a flow of gas in the cavity. The recirculation filter including a protrusion extending over a surface of a storage medium within the cavity that diverts gas from a surface of the storage medium toward the filter. A bypass channel, defined by a portion of the cavity and a portion of the filter, in conjunction with the protrusion forms a pressure differential that draws a first portion of the diverted gas through the filter by bypassing the filter with a second portion of the diverted gas.

Abstract: Apparatus and method for mitigating impedance changes in a microactuator conductive joint. In accordance with some embodiments, a microactuating element has a conductive input junction, the junction having dissimilar metals in contact with one another. The microactuating element is adapted to mechanically deform to displace a control object responsive to a micractuation control signal that is applied to the junction. A control circuit applies a bi-directional transition signal to the conductive input junction to reduce an increased impedance of the junction.

Abstract: A method and combination for mitigating turbulent air flow across an actuator of a data storage device. The combination includes a base deck having a retention cam surface adjacent a mounting pin, and an air diverter having a mounting aperture and a spring portion with a cam follower. The air diverter is confined adjacent the base deck in an operating position by executing the steps of the method to form the combination. The method includes the steps of; providing the base deck, disposing the air diverter onto the mounting pin, attaching a spindle motor with a disc to the base deck, securing an actuator supporting a read/write head to the base deck and affixing a top cover to the base deck, which places the air diverter under a compressive load between the top cover and the base deck thereby fixing the air diverter in the operating position.

Abstract: A method and combination for mitigating turbulent air flow across an actuator of a data storage device. The combination includes a base deck having a retention cam surface adjacent a mounting pin, and an air diverter having a mounting aperture and a spring portion with a cam follower. The air diverter is confined adjacent the base deck in an operating position by executing the steps of the method to form the combination. The method includes the steps of; providing the base deck, disposing the air diverter onto the mounting pin, attaching a spindle motor with a disc to the base deck, securing an actuator supporting a read/write head to the base deck and affixing a top cover to the base deck, which places the air diverter under a compressive load between the top cover and the base deck thereby fixing the air diverter in the operating position.

Abstract: A method and combination for mitigating turbulent air flow across an actuator of a data storage device. The combination includes a base deck having a retention cam surface adjacent a mounting pin, and an air diverter having a mounting aperture and a spring portion with a cam follower. The air diverter is confined adjacent the base deck in an operating position by executing the steps of the method to form the combination. The method includes the steps of, providing the base deck, disposing the air diverter onto the mounting pin, attaching a spindle motor with a disc to the base deck, securing an actuator supporting a read/write head to the base deck and affixing a top cover to the base deck, which places the air diverter under a compressive load between the top cover and the base deck thereby fixing the air diverter in the operating position.

Abstract: An automobile hinge for pivotally mounting a panel component to a vehicle body includes a panel attachment plate adapted to be secured to the panel of a vehicle, a body attachment plate securable to the vehicle body, and an intermediate member pivotably attached between the body attachment plate and the panel attachment plate. The automobile hinge includes a fastener element at the intermediate member with the fastener element being configured to receive a fastener to secure the intermediate member to the body attachment plate. The fastener element may include one or more securing elements to impede or limit movement of the fastener insert relative to the intermediate member.

Abstract: An apparatus provides improved positional control for an access element moveable adjacent a rotatable surface, such as a data transducing head adjacent a data recording surface of a data storage device. A circumferentially extending windage plate is adapted for placement adjacent the rotatable surface. The plate includes an edge surface configured to extend adjacent a movement path of an access element across the rotatable surface. The edge surface supports a ramp structure adapted to receivingly support the access element at a position away from the rotatable surface.

Abstract: An enclosure is provided defining an annular shroud adapted for receivingly engaging a rotatable data storage media. A method is provided for managing fluid flow created by a moving data storage medium, the method comprising circumscribing an annular shroud adjacent to an edge of the medium. A data storage device is provided comprising a rotatable data storage disc, and a fluid flow conditioner for minimizing excitation imparted to the disc by steps for managing fluid flow surrounding the disc.

Abstract: An apparatus which provides improved fluidic control includes a circumferentially extending windage plate adapted for placement adjacent a rotatable disc surface. The plate operates to direct fluidic currents established by rotation of the surface. One or more snubber members are supported by the plate to prevent localized contact between the plate and the surface as a result of deflection induced by application of a mechanical shock. Preferably, an access element is moveable along a movement path adjacent the rotatable surface. An air dam comprising a localized increased thickness portion of the plate at a leading or trailing edge of the plate preferably further directs the fluidic flow, and the snubber member-further prevents contact between the air dam and the rotatable surface. The rotatable surface preferably comprises a data recording surface and the access element preferably comprises a data transducing head.

Abstract: An apparatus provides improved positional control for an access element moveable adjacent a rotatable surface, such as a data transducing head adjacent a data recording surface of a data storage device. A circumferentially extending windage plate is adapted for placement adjacent the rotatable surface. The plate includes an edge surface configured to extend adjacent a movement path of an access element across the rotatable surface. The edge surface supports a ramp structure adapted to receivingly support the access element at a position away from the rotatable surface.