Abstract: A catheter delivery device for a self-expanding stent is described. The delivery device includes a distal catheter component and a distal sheath that releases the stent by moving proximally relative to the distal catheter component and the stent. A proximal catheter shaft including a tube and a pull wire within a lumen of the tube may be provided, the pull wire being attached to the distal sheath such that pulling the pull wire proximally relative to the tube pulls the distal sheath proximally to release the stent progressively. A casing tube may be provided to surround the catheter shaft, the casing tube having a distal end that receives telescopically a proximal end of the distal sheath. A method of making a delivery device for implantation of a self-expanding stent is also described.

Abstract: The present invention relates to a vascular closure device, comprising a self-expanding tubular vascular closure element, a retaining element surrounding the vascular closure element, the retaining element being arranged to hold the vascular closure element in the lumen of the retaining element in a configuration where the vascular closure element is not fully self-expanded, a tether that is threaded through the lumen of the retaining element, the tether being arranged so that, upon application of a first force to the tether which is greater than a threshold force, the tether disintegrates the retaining element so as to allow the vascular closure element to freely expand. It also relates to a system for delivering such a vascular closure device and to a method of closing a vascular access hole using a corresponding device.

Abstract: An active operating module comprising an operating lever that is pivotably mounted about at least one pivot axis and for each of the at least one pivot axis at least one first active actuating force module, which generates a torque acting on the operating lever, against which a user has to deflect the operating lever out of a rest position. The at least one first active actuating force module is arranged below the at least one pivot axis and is effectively connected directly to the operating lever by a transmission. The active operating module further comprises at least two first active actuating force modules, wherein these comprise in particular a conical region and are arranged at a 90° angle to one another.

Abstract: An active operating module comprising an operating lever that is pivotably mounted about at least one pivot axis and for each pivot axis at least one first active actuating force module, which generates a torque acting on the operating lever, against which a user has to deflect the operating lever out of a rest position. The at least one first active actuating force module is arranged below the at least one pivot axis and is effectively connected directly to the operating lever by a transmission. The active operating module further comprises at least two first active actuating force modules, wherein these comprise in particular a conical region and are arranged at a 90° angle to one another.

Abstract: The present invention relates to a vascular closure device, comprising a self-expanding tubular vascular closure element, a retaining element surrounding the vascular closure element, the retaining element being arranged to hold the vascular closure element in the lumen of the retaining element in a configuration where the vascular closure element is not fully self-expanded, a tether that is threaded through the lumen of the retaining element, the tether being arranged so that, upon application of a first force to the tether which is greater than a threshold force, the tether disintegrates the retaining element so as to allow the vascular closure element to freely expand. It also relates to a system for delivering such a vascular closure device and to a method of closing a vascular access hole using a corresponding device.

Abstract: A catheter delivery device for a self-expanding stent is described. The delivery device includes a distal catheter component and a distal sheath that releases the stent by moving proximally relative to the distal catheter component and the stent. A proximal catheter shaft including a tube and a pull wire within a lumen of the tube may be provided, the pull wire being attached to the distal sheath such that pulling the pull wire proximally relative to the tube pulls the distal sheath proximally to release the stent progressively. A casing tube may be provided to surround the catheter shaft, the casing tube having a distal end that receives telescopically a proximal end of the distal sheath. A method of making a delivery device for implantation of a self-expanding stent is also described.

Abstract: A delivery assembly includes a console including a vial containment region and a vial engagement mechanism extending from the console within the vial containment region. The engagement mechanism is configured to engage a vial assembly. The delivery assembly further includes a sled assembly removably coupled to the console at the vial containment region and a safety shield removably coupled to the console over the vial containment region such that the vial engagement mechanism and the sled assembly are encapsulated within the safety shield when the safety shield is coupled thereto. The sled assembly, the vial assembly, and the safety shield are configured to inhibit radioactive emissions from within the vial containment region.

Abstract: A catheter delivery device for a self-expanding stent is described. The delivery device includes a distal catheter component and a distal sheath that releases the stent by moving proximally relative to the distal catheter component and the stent. A proximal catheter shaft including a tube and a pull wire within a lumen of the tube may be provided, the pull wire being attached to the distal sheath such that pulling the pull wire proximally relative to the tube pulls the distal sheath proximally to release the stent progressively. A casing tube may be provided to surround the catheter shaft, the casing tube having a distal end that receives telescopically a proximal end of the distal sheath.

Abstract: Methods and systems for determination of flow parameters of administered fluid from a radioembolization delivery device may include translationally moving a device delivery arm of the radioembolization delivery device in a translational direction, wherein the device delivery arm is coupled to a syringe holder such that move in the translational direction one of proximally or distally advances the syringe holder; sensing, via one or more pattern sensors, a corresponding movement of a pattern associated with the translational device delivery arm movement as a sensed pattern movement; generating, via the one or more pattern sensors, one or more output signals based on the sensed pattern movement; and generating, via a processor, a flow rate of the administered fluid, a flow amount of the administered fluid, and/or the translational direction of movement of the device delivery arm with respect to the syringe holder based on the one or more

Abstract: A stent device delivery system and method of making. The stent device delivery system includes a stent device and an outer sheath overlaying the stent device in a radially compact, delivery configuration of the stent device. The system also includes a pull member for pulling proximally on to retract the outer sheath, wherein a portion of the outer sheath is heat shrunk radially onto a relatively heat shrink resistant support member in order to capture a distal portion of the pull member radially between the outer sheath and the heat shrink resistant support member.

Abstract: A catheter device having a shaft that extends from a proximal end to a distal end to carry on its distal end a self-expanding implant for intraluminal advance on a guidewire and delivery of the implant to an implant site by proximal withdrawal of a sheath that lies radially outside the implant in the catheter, the catheter including a first shaft element to pull the sheath proximally and a second shaft element to push the implant distally to prevent the implant moving proximally with the sheath when the sheath is pulled proximally, wherein the second shaft element comprises a pusher-guider tube having a wall thickness with a plurality of discrete slits, the slits extending through the wall thickness of the pusher-guider tube.

Abstract: A method of loading a self-expanding stent into a delivery sheath configured to retain the stent in a radially compressed pre-deployment configuration, including the steps of radially compressing the stent from a relaxed outside diameter d0 to a compressed outside diameter d1, providing a loading sheath with an inner diameter d2, where d0>d2>d1, translating the stent relative to the sheath, whereby the stent is accommodated within the lumen of the loading sheath, providing a delivery sheath with an inner diameter d3, where d0>d3>d2, advancing the loading sheath, containing the stent, into the lumen of the delivery sheath, and deploying the stent into the lumen of the delivery sheath.

Abstract: A catheter delivery device for a self-expanding stent is described. The delivery device includes a distal catheter component and a distal sheath that releases the stent by moving proximally relative to the distal catheter component and the stent. A proximal catheter shaft including a tube and a pull wire within a lumen of the tube may be provided, the pull wire being attached to the distal sheath such that pulling the pull wire proximally relative to the tube pulls the distal sheath proximally to release the stent progressively. A casing tube may be provided to surround the catheter shaft, the casing tube having a distal end that receives telescopically a proximal end of the distal sheath.

Abstract: A catheter delivery device for a self-expanding stent is described. The delivery device includes a distal catheter component and a distal sheath that releases the stent by moving proximally relative to the distal catheter component and the stent. A proximal catheter shaft including a tube and a pull wire within a lumen of the tube may be provided, the pull wire being attached to the distal sheath such that pulling the pull wire proximally relative to the tube pulls the distal sheath proximally to release the stent progressively. A casing tube may be provided to surround the catheter shaft, the casing tube having a distal end that receives telescopically a proximal end of the distal sheath.

Abstract: A stent device delivery system and method of making. The stent device delivery system includes a stent device, an outer sheath overlaying the stent device in a radially compact, delivery configuration of the stent device, and a pull member. The outer sheath may include a first layer and a reinforcement layer that are laminated together, a portion of the pull member captured radially between the first layer and the reinforcement layer. At least a partial length of the captured portion of the pull member may be formed with a varying radial profile.

Abstract: There is disclosed herein a method of loading a self-expanding stent (10) into a delivery sheath (12) that is by itself strong enough to preserve the stent in a radially compressed pre-deployment configuration, comprising the steps of: (i) compressing the stent (10) to a relatively small diameter; (ii) providing a loading sheath (18) with an inner diameter d1; (iii) with the stent (10) exhibiting an outside diameter of d2, where d2<d1, providing relative translational movement between the stent (10) and the loading sheath (18), whereby the stent is accommodated within the lumen of the loading sheath (18); (iv) advancing the loading sheath (18), containing the stent (10), into the lumen (16) of the delivery sheath (12); and {v} deploying the stent into the lumen (16) of the delivery sheath (12), by withdrawing the loading sheath (18) while restraining the stent (10) from axial movement out of the lumen (16) of the delivery sheath (12).

Abstract: A stent device includes a first graft member, a second graft member and a stent frame defining a central axis. The frame has an abluminal surface engaged with the first graft member and a luminal surface engaged with the second graft member such that the first graft member and the second graft member encapsulates the stent frame along the length of the central axis. The stent frame includes a configuration where the stent frame is disposed on a curvature such that the abluminal surface has a radius of curvature of approximately 20 millimeters about a center of the curvature and the luminal surface defines a substantially constant effective cross-sectional area at any portion generally transverse to the central axis of the stent frame disposed about the curvature.

Abstract: A device for moving an elongate member relative to an elongate body through which it extends, the device including a housing, a mover, and a pre-mover. The housing is connectable to the elongate body. The mover is associated with the housing and is connectable to the elongate member for moving the elongate member relative to the housing. The pre-mover is associated with the housing and is connectable to the elongate member for adjusting the elongate member in preparation for moving the elongate member with the mover.

Abstract: This invention relates to an elongate medical device, with a distal end to be advanced into the body of a patient and then withdrawn from the body, and an elongate shaft connecting the distal end with a proximal end that remains outside the body, the shaft extending in use through a hole in the skin of the body characterized by a slider, captivated on a portion of the length of the shaft, which is capable of lining the said hole, as the shaft is advanced and withdrawn relative to said hole and the slider in the hole, said slider having a maximum outer diameter that is substantially the same as or less than a maximum outer diameter of the distal end.

Abstract: A method of moving a stent device into an outer sheath of a stent: device delivery system is disclosed. The stent device (4) is Crimped into a collapsed configuration onto the loading mandrel (6). The loading mandrel is pushed towards the outer sheath as the engaging surfaces (10) resist relative longitudinal movement between the stent device and the loading mandrel to move the stent device into the outer sheath (16). Upon entering the outer sheath, the stent device expands radially until radially constrained by the outer sheath.