Abstract: In one aspect of the invention, a preloaded stent graft delivery device includes a guidewire catheter having a proximal end, a distal end, and a guide wire lumen therethrough; a nose cone dilator at the proximal end of the guide wire catheter, the nose cone dilator comprising a distal end and a capsule on the distal end of the nose cone dilator; a handle assembly at the distal end of the guidewire catheter, the handle assembly comprising a first section and a second section releasably connected to the handle assembly and in communication with the capsule on the distal end of the nose cone dilator; a ratchet assembly disposed within an interior surface of the first section of the handle assembly; a pusher catheter extending from the handle assembly towards the nose cone dilator; and a sheath disposed coaxially over the pusher catheter.

Abstract: Example aspects of a deployment probe for deploying a stent, a pipe repair assembly, and a method for repairing a pipeline are disclosed. The deployment probe for deploying a stent can comprise a probe body defining an inner surface, an outer surface, and a slot extending from the inner surface to the outer surface, the inner surface defining a probe void, the probe void defining a probe axis, the slot extending in an axial direction relative to the probe axis; and a release mechanism comprising a retainer body received within the probe void and a stent retainer coupled to the retainer body, the stent retainer substantially aligned with the slot and configured to engage a stent.

Abstract: An iliac branch device has an external iliac body, a common iliac branch, and an internal iliac branch. A diameter of the proximal opening of the common iliac branch is greater than a diameter of a distal opening of the external iliac body. The iliac branch device is configured to be deployed without going up and over the aortic bifurcation and without using some form of supra-aortic antegrade access such as through brachial or axillary artery access. This simplifies the procedure and reduces procedure time thus maximizing the success rate of the procedure and allows the procedure to be performed on a broad patient population.

Abstract: A delivery system for endoluminal delivery of an expandable device comprising a catheter having a proximal end and an opposite distal end configured to support an expandable device, a primary sheath having a delivery position in which the primary sheath constrains the expandable device toward a collapsed configuration suitable for endoluminal delivery, and a handle including a first actuator that is actuatable to cause the expandable device to expand from the collapsed configuration, the handle further including a second actuator for operating one or more functions of the handle, wherein the second actuator is initially hidden to prevent actuation of the second actuator prior to the expandable device expanding and is configured to be revealed when the expandable device is expanded, the second actuator being actuatable once revealed.

Abstract: Delivery systems and catheters including lock and release connectors for implantable devices and methods for retaining, positioning, and deploying a medical device are disclosed. The lock and release connectors can include a body and at least one door engaged with the body, wherein the door is moveable from a first position to a second position. The lock and release connectors can further include at least one fastener connecting at least one end of the door to the body. The door can be integral with the body or connected and can comprise a shape memory material and/or other materials.

Abstract: A prosthesis is provided for implantation at a native semilunar valve of a native valve complex, the native valve complex having three semilunar sinuses and three native commissures. The prosthesis includes a valve prosthesis support, which comprises a support structure comprising exactly three engagement arms that meet one another at three respective junctures. The engagement arms are shaped so as define three peak complexes at the three respective junctures, and three trough complexes, each of which is between two of the peak complexes. Upon implantation of the prosthesis, each of the engagement arms is at least partially disposed within a respective one of the semilunar sinuses, such that each of the peak complexes is disposed distal to and in rotational alignment with a respective one of the native commissures, and each of the trough complexes is disposed at least partially within the respective one of the semilunar sinuses.

Abstract: A delivery system is provided for self-expanding medical devices, such as stents. The delivery system has a restraining sheath that maintains the stent in a compressed state prior to deployment. The restraining sheath terminates distally from the deployment handle, and a wire connects the restraining sheath to the deployment handle. The restraining sheath is withdrawn from the stent to deploy the stent by pulling the wires proximally at the deployment handle.

Abstract: A compact robotic device for driving movement of two or more elongate surgical tools configured for a telescopic arrangement when said two or more elongate surgical tools are at least partially received within said device, the device comprising: a housing comprising walls which define an inner volume including at least two inner pathways for accommodating the two or more elongate surgical tools; the housing encasing: a plurality of motors, and two or more tool actuation assemblies configured at a position of each of the two or more inner pathways; the actuation assemblies driven by the plurality of motors and configured to operably contact an elongate surgical tool at least partially received in the inner pathway to at least one of advance, retract and/or roll said elongate surgical tool.

Abstract: The techniques of this disclosure generally relate to a vector flush sizing catheter that is used initially to disperse contrast and measure a length of a main vessel using radiopaque measuring markers of the catheter. Subsequently, the vector flush sizing catheter is used to guide and introduce another endovascular device into the main vessel. By using the vector flush sizing catheter for both procedures, the exchange of catheters, the complexity of the procedure, and the associated risks are minimized.

Abstract: Medical devices and methods for making and using medical devices are disclosed. An example system for delivering an implantable medical device includes a handle member including a seal assembly, wherein the seal assembly includes an outer sheath seal assembly coupled to an outer sheath, the outer sheath including a curved portion, the outer sheath seal assembly being translatable relative to the handle. The seal assembly also includes a first fixed seal assembly fixed relative to the handle, the first fixed seal assembly including a first alignment surface and a compression shaft coupled to the first fixed seal assembly. Additionally, first alignment surface is designed to align the compression shaft with at least a portion of the outer sheath.

Abstract: Pinch devices and access systems that can be used to secure a prosthetic heart valve to a heart valve annulus and to treat valvular insufficiency. A pinch device can be a separate expandable element from the prosthetic heart valve that is first advanced to the annulus and deployed, after which an expandable prosthetic heart valve can be advanced to within the annulus and deployed. The two elements can clamp/pinch the heart valve leaflets to hold the prosthetic heart valve in place. The pinch device can have a flexible, expandable annular frame. A combined delivery system can deliver the pinch device and prosthetic heart valve with just a single access point and aid more accurate coaxial deployment. The pinch device can be mounted near distal end of an access sheath, and a catheter for delivering the prosthetic heart valve can be passed through a lumen of the same access sheath.

Abstract: A delivery catheter (12) for a stent valve (10), the delivery catheter having a distal portion (14) insertable into an anatomy, the distal portion comprising an accommodation region (18) for accommodating a stent-valve for delivery into the anatomy, the delivery catheter further comprising at least one sheath (20; 22) that is translatable between a closed position for at least partly closing the accommodation region and an open position for at least partly opening the accommodation region.

Abstract: Example medical device delivery systems are disclosed. An example delivery system for an implantable medical device includes an outer shaft having a distal end region, a proximal end region and a lumen extending therebetween. The delivery system also includes a handle coupled to the proximal end region of the outer shaft, wherein the handle includes a first actuator, a carriage and a housing. The delivery system also includes a selector coupled to the handle and a resistance member disposed along a portion of the selector. Further, the selector is configured to shift between a first configuration and a deployment configuration. Additionally, the carriage is free from the resistance member in the first configuration and the resistance member contacts the carriage in the deployment configuration.

Abstract: A delivery device according to principles described herein includes a catheter having three concentric shafts including an inner core, an outer sheath over the inner core and an outer support shaft at least partially extending over the inner core and the outer sheath. A timing belt having a plurality of belt teeth on a surface of the timing belt is coupled to an outer sheath over a medical device or stent on the inner core such that movement of the timing belt link causes movement of the outer sheath from its position over the medical device or stent. The delivery device is actuated by rotation of a thumbwheel a thumbwheel coupled to a barrel having a plurality of teeth such that rotation of the thumbwheel causes movement of the barrel such that the barrel teeth engage the belt teeth to cause movement of the timing belt causing movement of the outer sheath.

Abstract: In a particular embodiment, the present disclosure provides a delivery apparatus for delivering a medical device. The delivery apparatus includes an elongated component with an engagement portion and a disengagement portion. Rotating the elongated component in a first rotational direction moves the travelling component along the engagement portion in a first axial direction. When the travelling component is located within the disengagement portion, continued rotation of the elongated component in the first rotational direction does not cause further movement of the travelling component in the first axial direction. A biasing member is located proximate the disengagement portion and urges the travelling component to reengage the engagement portion. The delivery apparatus can reduce or prevent damage to the delivery apparatus, or a patient with whom the delivery apparatus is used, by reducing or eliminating torque transfer from the travelling component to an end of the elongated component.

Abstract: According to one representative embodiment, a method of treating aortic insufficiency comprises delivering a support structure to a position around the leaflets of a native heart valve. An expandable prosthetic heart valve can be advanced into the native heart valve and into the interior of the annular body. The prosthetic heart valve can be expanded into contact with the leaflets of the native valve, thereby causing the leaflets of the native valve to be frictionally secured between an inner surface of the annular body and an outer surface of the prosthetic heart valve. A delivery apparatus for delivering the support structure can include a first shaft that is allowed to move in a proximal direction relative to a second shaft, when the second shaft foreshortens as a result of an adjustment mechanism being actuated to increase the curvature of the second shaft.

Abstract: 2-manifold structures are structures having continuously curvilinear surfaces, with no kinks or sharp angles. Methods for building strong, lightweight 2-manifold structures include a computer implemented strength optimization process. The computer implemented process includes a structure optimization sub-routine in which a plurality of rod-like members, constituting an irregular scaffold, is constrained into a volume corresponding to the 2-manifold structure. The strength of the irregular scaffold is then optimized by application of an algorithm that maximizes strength as a function of variations in the ratio of the largest macroscopic dimension of the panel to the average length of the members; the aspect ratio of the members (diameter divided by length); the average or maximum number of times a member can contact another member; and the distribution of member lengths. Strength maximization can be simultaneous to minimization of total length of the members.

Abstract: Luminal organ sizing devices and methods. In a method of the present disclosure, the method includes performing a valve replacement procedure using a valve device positioned within a valve annulus or opening of a luminal organ while a system including a balloon configured for inflation is at least partially introduced into a luminal organ so that the balloon is adjacent to a valve annulus or opening.

Abstract: A balloon catheter having an elongated catheter shaft defining a fluid drainage lumen and a balloon inflation lumen. The balloon catheter includes a fluid drainage port disposed about the distal end of the catheter shaft in fluid communication with the fluid drainage lumen, and a balloon inflation port disposed about the distal end of the catheter shaft in fluid communication with the balloon inflation lumen. A balloon portion is disposed about the distal end of the catheter shaft in fluid communication with the balloon inflation port. A release device is disposed in fluid communication with the balloon portion and the fluid drainage lumen, and includes an activating member. A tether is attached to the activating member of the release device. Tension applied to the tether activates the release device, enabling fluid flow from the balloon portion into the fluid drainage lumen and out of the body.

Abstract: Medical device delivery systems and methods are disclosed. In various examples, the medical device delivery system (1000) includes an elongate element (1100) including an olive (1200). The olive (1200) includes an opening that exposes a lockwire (1300) extending through a lumen of the olive (1200) such that a linking element (1500) can be coupled to the portion of the lockwire (1300) exposed by the opening, wherein the linking element (1500) provides a coupling to a medical device (1400).

Abstract: Disclosed herein are devices and methods for providing embolic protection in a patient's vascular system. In particular, the devices detailed herein are supported by a flexible scaffold that is coupled to a filter. When deployed into the peripheral or coronary vasculature of a patient, the embolic protection devices of the present disclosure collect and remove embolic debris as a prophylactic measure to lessen the risk of embolic associated complications.

Abstract: A prosthetic heart valve includes a collapsible and expandable stent having a proximal end, a distal end, an annulus section adjacent the proximal end and an aortic section adjacent the distal end. The stent is formed of a plurality of struts. A cuff is coupled to the stent. The cuff has one or more features configured to reduce abrasion and/or perivalvular leakage.

Abstract: This document provides implantable intraluminal stent graft medical devices. In some embodiments, the stent graft devices provided herein are implantable in bodily conduits that have side branches, and the stent graft devices are operable to allow the flow of fluids between the conduit and the side branches. In some embodiments, the walls of the stent graft devices provided herein include compliant channels which allow for fluid communication between the interior and the exterior of the stent graft devices. In some embodiments, the compliant channels are configured to inhibit or reduce tissue ingrowth, tissue bridging, and/or endothelialization.

Abstract: Embodiments of the disclosure provide a method and an apparatus for generating a navigation guide. In one embodiment, the method comprises: obtaining a point cloud database corresponding to an object to be identified, the object having a respective product model; determining a target navigation position based on the point cloud database; obtaining data associated with a screenshot of the product model, the screenshot captured based on the target navigation position; and generating the navigation guide for the object to be identified based on the data associated with the screenshot.

Abstract: Aspects of the disclosure relate to “wet” transcatheter prosthetic heart valve or other implant packaging and assemblies in which a prosthetic heart valve or other implant is loaded into a first portion of a delivery device and positioned within a container in which sterilizing fluid is retained to sterilize inside of the container as well as provide moisture to prevent the implant from drying out. The disclosure also relates to methods of sterilizing the disclosed assemblies. Some disclosed methods include at least two sterilizing steps and adjustment of a shaft seal or formation of multiple seals maintaining sterilizing fluid within the container so that areas underneath the shaft seal(s) can also be sterilized.

Abstract: Several embodiments are set forth of devices, systems and methods for modifying an atrial appendage such as a left atrial appendage (LAA). In one embodiment, a medical device includes a frame member and a tissue growth member. The frame member includes a unitary, seamless central portion having a plurality of struts defining a multi-cellular structure and an anchoring system, the plurality of struts extending between and configured to self-expand and directly bias the anchor system to anchor the frame member at least partially within the LAA. With this arrangement, the tissue growth member is attached to the frame member to occlude the LAA.

Abstract: This disclosure relates to a catheter system for introducing a heart valve stent into the body of a patient. The catheter system includes a catheter tip having a seat portion for accommodating the stent in its collapsed state and a stent holder for releasably fixing the stent, wherein the seat portion is constituted by a first sleeve and a second sleeve, said sleeves being moveable relative to each other and relative to the stent holder, and a catheter shaft for connecting the catheter tip to a handle.

Abstract: An endoprosthesis delivery system includes an expandable endoprosthesis including a side branch portal, a first primary sleeve releasably constraining a proximal portion of the expandable endoprosthesis to a collapsed configuration, a second primary sleeve in parallel with the first primary sleeve, the second primary sleeve releasably constraining a distal portion of the expandable endoprosthesis to the collapsed configuration, and a secondary sleeve within the first primary sleeve. Upon release of the first primary sleeve, the secondary sleeve releasably constrains the proximal portion of the expandable endoprosthesis to a partially expanded configuration allowing access to the side branch portal via the partially expanded proximal portion of the expandable endoprosthesis.

Abstract: A delivery system for delivering a heart valve prosthesis includes a delivery catheter and a heart valve prosthesis. The delivery catheter includes an outer sheath, an inner shaft, a distal nosecone, and a deflecting segment. The inner shaft is slidably disposed within the outer sheath. A distal end of the inner shaft is coupled to a proximal end of the deflecting segment, and a distal end of the deflecting segment is coupled to the distal nosecone. The deflecting segment includes a delivery state with the deflecting segment and the distal nosecone having a combined first longitudinal length. The deflecting segment further includes a deflected state with the deflecting segment having a second longitudinal length that is less than the first longitudinal length. The heart valve prosthesis includes a radially collapsed configuration and a radially expanded configuration. The deflecting segment is shape-set to the deflected state.

Abstract: An endoscopic treatment tool includes a port, a sheath having a proximal region inserted into the port and a distal region continuing to the proximal region to extend to the outside of the port, a flap having a distal end in the distal region and a proximal end in the proximal region and extending in a longitudinal axis direction of the sheath from a distal end to a proximal end of the sheath, a notch surface formed in the sheath between the proximal end of the flap and the proximal end of the sheath to form a notch shape in the flap along the longitudinal axis, and a rotation preventing portion disposed between the notch surface and the internal surface of the port, wherein the rotation preventing portion has an inclined surface inclined from the opening toward the lumen and an engaging surface capable of engaging with the notch surface.

Abstract: The present disclosure describes treatment of the vasculature of a patient with an expandable implant. The implant is constrained to a reduced delivery diameter for delivery within the vasculature by at least one sleeve. The implant can be constrained to other diameters, such as an intermediate diameter. The sleeves can be expanded, allowing for expansion of the diameter of the expandable implant, by disengaging a coupling member from the sleeve or sleeves from outside of the body of the patient. The expandable implant can comprise a steering line or lines which facilitate bending and steering of the expandable implant through the vasculature of a patient.

Abstract: A device includes an elastic tubular stent including struts forming closed cells arranged in rows along a circumferential direction of the stent, with each cell having a first obtuse-angled corner on one end of the cell along a longitudinal direction of the stent and a second obtuse-angled corner on an opposing end of the cell along the longitudinal direction. The stent may be fabricated by cutting an array of quadrilateral cells in a nitinol hypotube to form a stent, with each cell having four corners with approximately equal angles. The stent may then be expanded radially such that each cell has a first obtuse-angled corner on one end of the cell along a longitudinal direction of the stent and a second obtuse-angled corner on an opposing end of the cell along the longitudinal direction, and heat treated to fix the shape of the stent.

Abstract: A vascular stent conveying system includes a housing, an outer cannula, a cleaning tube, an inner cannula, and a driving assembly. The outer cannula is located outside the housing and is connected to a first end of the housing. The cleaning tube is connected to a second end of the housing, a first end of the cleaning tube is located in the housing, and a second end of the cleaning tube extends out of the housing. A part of the inner cannula is located in the housing, a first end of the inner cannula extends into the outer cannula, and a second end of the inner cannula extends from the first end of the cleaning tube to a tube chamber of the cleaning tube. A part of the driving assembly is located in the housing, and operably engaged with a part of the inner cannula located in the housing.

Abstract: The present invention relates to a stent for splinting a nasal passage. The stent consists of a braided tubular support body which, in unloaded state, has a diameter of at least 4 mm and a length in the range of 25 to 120 mm and particularly of 25 to 100 mm. The stent may have a widened section at the proximal end for splinting of the nasal alar. It may alternatively or in combination have a fixation section at the proximal end of the stent for fixation of the stent in a nasal passage of a user. When fixed the fixation section protrudes from the nostril of the user and can be fixed outside of the nose.

Abstract: An assembly for replacing a native heart valve can have a prosthetic heart valve with an annular metal frame made from shape-memory material and a valve member disposed in an interior of the metal frame. The assembly can have a delivery apparatus with a handle, a shaft with a proximal end portion and a distal end portion. The proximal end portion can be coupled to the handle and the distal end portion can be releasably coupled to the prosthetic heart valve. The delivery apparatus can also have a delivery sheath and a hydraulic power source operatively connected to the delivery sheath. The prosthetic heart valve can be positioned within the delivery sheath in a radially compressed state. The hydraulic power source can be configured to move the delivery sheath longitudinally relative to the valve to allow the valve to self-expand from the radially compressed state to a radially expanded state.

Abstract: The invention relates to delivery system for deployment of a prosthetic valve, having a hypotube sheathed guidewire assembly having an outer sheath and an inner guidewire shaft that pushes against a guidewire collar on a tension arm of a compressed transcatheter valve to deliver the valve and position the valve to the RVOT or other location in the body.

Abstract: A handle for an implant deployment device converts rotational movement into longitudinal movement in order to provide controlled release of one or more trigger wires. The handle also allows the trigger wire to be withdrawn into the device so that it does not need to be separately removed. A preferred handle includes a rotatable portion and a slidable portion. Releasable locks ensure that the handle is used to carry out implant deployment steps in a specific order.

Abstract: A delivery system has a delivery capsule with a detachable portion including first and second open ends with a tapered wall extending therebetween to compress and guide a collapsible heart valve into the delivery capsule. The detachable portion may be detached from the delivery capsule after loading the collapsible heart valve to leave a smooth distal surface on the delivery capsule. Detachment of the detachable portion may occur by breaking or removing a frangible member interposed between the detachable portion and the delivery capsule.

Abstract: Hypo-tube based support catheter (1) for treating blood vessels, such as below the knee (BTK) blood vessels and other blood vessels (e.g., coronary, pediatric), which are partially or totally occluded. The tip of the support catheter (1) of the invention is shapeable to any desired shape before the insertion of the device into the blood vessel. The disclosed device enables improved angioplasty treatment of blood vessels, especially with a retrograde approach.

Abstract: A stent delivery system includes an expandable stent, a catheter, and a sheath. The expandable stent includes proximal and distal ends, and a first interlock structure. The catheter includes an elongated member having a second interlock structure displaceably arranged about an outer surface thereof for engaging the first interlock structure of the stent. The sheath is mounted on the elongated member and is positionable in a transport position in which the sheath covers the stent mounted on the elongated member and a deploy position in which the stent is exposed.

Abstract: A trans-aortic proximal aortic stent graft [TAPAS graft] for introducing into a blood vessel. A a tubular sheath which encases a folded self-expanding stent from the inside as well as from the outside such that a sheath outer wall of the sheath lies against the self-expanding stent from the outside and a sheath inner wall lies against the self-expanding stent from the inside and keeps the self-expanding stent folded. The self-expanding stent is surrounded by the sheath at the distal end in the transition from the sheath inner wall to the sheath outer wall, and the self-expanding stent is provided with an anchor at the proximal end. Also, a method for using a trans-aortic proximal aortic stent graft [TAPAS graft].

Abstract: An endovascular delivery device comprises an outer handle with a track; an inner handle moveable relative to the outer handle; a tip assembly slider mounted on the track; the tip assembly having a top cap and a retriever, the top cap comprising a mouth receiving a proximal portion of the endograft and closable by the retriever; a connector extending from the tip to the inner handle and including a distal portion slidably engaging the inner handle; a pusher catheter extending from the outer handle assembly; a guidewire catheter; a distal trigger wire operable to release the distal end of the endograft; a proximal trigger wire release slider mounted on the track and movable from an initial to a triggered position, wherein the tip assembly slider engages the trigger wire release slider to prevent distal movement until the trigger wire release slider is moved distally.

Abstract: Various features and associated advantages are described for diametrically adjustable support structures, adjustable valve structures, removable/replaceable valve structures, and associated systems and methods. Although some examples are directed toward prosthetic valve that is a conduit having a valve structure, or a “valved conduit” (e.g., used to replace a pulmonary valve and a portion of the corresponding pulmonary artery or an aortic valve and the aortic root), and other examples are directed toward prosthetic valves implanted native valve orifices (e.g., to replace an aortic or mitral valve), the features and advantages of the structures associated with those examples are interchangeable regardless of a particular application for which the examples are described.

Abstract: An implantation method of a stent system, and the implantation method including implanting a main stent; introducing a catcher; introducing a long sheath and a guiding catheter along a preset guide wire, so as to make the distal end of the long sheath and the distal end of the guiding catheter extend out from the distal end of the inner branch; the distal end of the long sheath and the distal end of the guiding catheter to respectively enter a target branch blood vessel; withdrawing the guiding catheter, and introducing a branch stent delivery along the long sheath to complete the implantation of the branch stent. The method greatly shortens the implantation time of the stent system by simplifying the path of the preset guide wire in the implantation process and fully utilizing the characteristics of the preset guide wire with double soft heads.

Abstract: Apparatus and methods are described including a valve frame configured to support a prosthetic valve within a native atrio-ventricular valve. The valve frame includes a frame body that includes an atrial portion configured to be positioned such that, when the valve frame is deployed, at least a portion of the atrial portion is disposed on an atrial side of the native atrio-ventricular valve, and a ventricular portion configured to be positioned such that, when the valve frame is deployed, at least a portion of the ventricular portion is disposed within a ventricle of the subject. At least one arm is configured to extend from the ventricular portion of the frame body. Other applications are also described.

Abstract: Methods, apparatuses and systems are described for stent delivery and positioning to cover an access site. A stent delivery system may include a tubular member configured to advance through an access site and a primary constrainment member configured to releasably couple the stent to the tubular member. The stent delivery system may further include a secondary constrainment member at least partially disposed around the primary constrainment member, the stent, and the tubular member. In some cases, the tubular member and the primary constrainment member may be configured to reposition the stent within the body lumen after removal of the secondary constrainment member such that at least a portion of the stent covers the access site after withdrawal of the tubular member, the primary constrainment member, and the secondary constrainment member from the body lumen through the access site.

Abstract: An interventional medical system (10) comprises an instrument (100) provided with a plug head (120) and a delivery cable (200) provided with a cable head (211), and further comprises a locking sleeve (300) movably sleeved onto the delivery cable (200). The cable head (211) comprises at least one resilient locking piece (123) extending approximately away from a central axis of the cable head (211). When under a radial restraint applied by the locking sleeve (300), the plug head (120) abuts the locking piece (123) such that the plug head (120) is connected to the cable head (211), and when the locking sleeve (300) has moved relative to the delivery cable (200) such that the locking piece (123) is no longer radially restrained, the locking piece (123) elastically moves away from the plug head (120) such that the instrument (100) is separated from the delivery cable (200).

Abstract: Disclosed herein are systems and methods for aiding a surgeon to perform a surgical procedure on an eye. The surgical procedure includes inserting an elongate probe from an opening into the eye across an anterior chamber to a target tissue region comprising a trabecular meshwork and a Schlemm's canal. Exemplary systems include an optical microscope for the surgeon to view the eye with a microscope image during the procedure; an optical coherence tomography (OCT) apparatus configured to perform an OCT scan of a target location in the target tissue region during the procedure; and an image processing apparatus configured to generate an augmented image by overlaying an OCT image of target location and a graphical visual element identifying the locations, wherein the graphical visual element is registered with the microscope image to aid the surgeon in advancing a distal end of the elongate probe to the target location.

Abstract: An implantable prosthetic device includes a spacer member configured to be disposed between leaflets of a native heart valve that is located between a first chamber and a second chamber of the heart. The prosthetic device further includes a plurality of anchor members coupled to the spacer member and configured to capture the leaflets between respective anchor members and the spacer member such that the prosthetic device is retained between the leaflets. The spacer member is configured to provide a flow path through the prosthetic device between the first chamber and the second chamber when the leaflets are captured between the anchor members and the spacer member such that blood can flow regurgitatively from the second chamber to the first chamber through the spacer member.

Abstract: A device for treating an aneurysm by releasing an implanted implant from a delivery system at a treatment site can include a braided implant attached to a releasing component that can be detachably engaged with a delivery tube and a pull wire. The releasing component can engage the delivery tube in a compressed configuration via friction fit and can disengage the delivery tube by expanding to a released or deployed configuration. The pull wire can have an extending portion that can engage the releasing component and an elongated portion that can be pulled to disengage the releasing component. The braided implant, once implanted, can be released from the delivery tube by disengaging the pull wire from the releasing component and disengaging the releasing component from the delivery tube.