Abstract: Systems and methods for native heart valve repair includes an anchor. The anchor includes an anchor body configured to transition from a first configuration, in which the anchor body is straightened for transvascular delivery to the native heart valve, to a second configuration comprising at least two turns for implanting at the native heart valve. Two or more of the at least two turns in the second configuration have a diameter smaller than a major axis of the native heart valve.

Abstract: Systems and methods are provided involving various medical monitoring and/or diagnostic systems. The monitoring and diagnostic systems may involve one or more connected devices (e.g., a smart watch and/or other sensor device) and may continuously monitor an individual and analyze physiological and other data to determine a medical diagnosis, condition or event has occurred. The monitoring and diagnostic systems may be a guided self-examination system for determining a medical diagnosis, condition or event. The medical monitoring and diagnostic systems may even be specific to a family or individuals in a certain geographic location. The systems may determine treatment based on a medical diagnosis or event and may cause the treatment to be delivered to a location of the user or a medical facility.

Abstract: Systems and methods are provided involving various medical monitoring and/or diagnostic systems. The monitoring and diagnostic systems may involve one or more connected devices (e.g., a smart watch and/or other sensor device) and may continuously monitor an individual and analyze physiological and other data to determine a medical device, condition or event has occurred. The monitoring and diagnostic systems may be a guided self-examination system for determining a medical diagnosis, condition or event. The medical monitoring and diagnostic systems may even be specific to a family or individuals in a certain geographic location.

Abstract: Systems and methods for mitral valve repair having a docking station and a valve implant. The docking station is an anchoring device having a helix structure. The valve implant is made of an expandable frame and a valve, and is radially expandable to a diameter that is at least the same as an expanded diameter of the anchoring device. The method of delivering the docking station and valve implant is performed by inserting the components through device delivery catheters.

Abstract: Methods and systems are provided for diagnosis and/or treatment of microvascular dysfunction, such as microvascular obstruction (MVO) by injecting volumetric flows into a vessel using an infusion system to arrest or reverse native antegrade flow, such that an equipoise value of volumetric flow rate and corresponding pressure may be determined, which in turn enables calculation of MVO, absolute hydrodynamic resistance, fractional flow reserve, coronary flow reserve, and other physiologic parameters in real-time or near real time.

Abstract: Systems and methods for mitral valve repair having a docking station and a valve implant. The docking station is an anchoring device having a helix structure. The valve implant is made of an expandable frame and a valve, and is radially expandable to a diameter that is at least the same as an expanded diameter of the anchoring device. The method of delivering the docking station and valve implant is performed by inserting the components through device delivery catheters.

Abstract: Systems and methods for mitral valve repair having a docking station and a valve implant. The docking station is an anchoring device having a helix structure. The valve implant is made of an expandable frame and a valve, and is radially expandable to a diameter that is at least the same as an expanded diameter of the anchoring device. The method of delivering the docking station and valve implant is performed by inserting the components through device delivery catheters.

Abstract: Systems and methods for mitral valve repair having a docking station and a valve implant. The docking station is an anchoring device having a helix structure. The valve implant is made of an expandable frame and a valve, and is radially expandable to a diameter that is at least the same as an expanded diameter of the anchoring device. The method of delivering the docking station and valve implant is performed by inserting the components through device delivery catheters.

Abstract: An intervalvular implant for a mitral valve having a frame and a membrane covering the frame is provided. The frame includes an elongated base portion formed by two curved or chevron branches connected to two connection areas of the implant for connecting to the annulus of the mitral valve. The frame further includes a longitudinal hoop extending in a plane substantially perpendicular to the plane in which the elongated base portion extends. The membrane is flexible and extends from one branch to the other branch while passing around the longitudinal hoop. The membrane may be connected to the branches without being stretched between the branches and the hoop so that the membrane forms lateral portions on each side of the implant that are able to transition between an outwardly convex, concave shape, and an outwardly concave, recessed shape.

Abstract: The invention relates to a system for the sequential intranasal administration of at least one active ingredient selected from a DR group having at least one side effect of respiratory depression and at least one active ingredient selected from an ADR group that counteracts the respiratory depression that may be induced by the active ingredients of the DR group. The invention also relates to a portable sequential intranasal administration device comprising an intranasal administration system according to the principles of the invention.

Abstract: Devices and methods for sequential aerosolized administration of pharmaceutical agents. A portable device may be used to administer an initial dose of an active formulation comprising at least one first pharmaceutical agent and a subsequent dose of an active formulation comprising at least one second pharmaceutical agent that may have the effect of countering, enhancing, or mitigating the first pharmaceutical agent.

Abstract: Systems and methods for mitral valve repair having a docking station and a valve implant. The docking station is an anchoring device having a helix structure. The valve implant is made of an expandable frame and a valve, and is radially expandable to a diameter that is at least the same as an expanded diameter of the anchoring device. The method of delivering the docking station and valve implant is performed by inserting the components through device delivery catheters.

Abstract: A prosthetic valve assembly for use in replacing a deficient native valve comprises a replacement valve supported on an expandable valve support. If desired, one or more anchor may be used. The valve support, which entirely supports the valve annulus, valve leaflets, and valve commissure points, is configured to be collapsible for transluminal delivery and expandable to contact the anatomical annulus of the native valve when the assembly is properly positioned. The anchor engages the lumen wall when expanded and prevents substantial migration of the valve assembly when positioned in place. The prosthetic valve assembly is compressible about a catheter, and restrained from expanding by an outer sheath. The catheter may be inserted inside a lumen within the body, such as the femoral artery, and delivered to a desired location, such as the heart.

Abstract: Systems and methods for mitral valve repair having a docking station and a valve implant. The docking station is an anchoring device having a helix structure. The valve implant is made of an expandable frame and a valve, and is radially expandable to a diameter that is at least the same as an expanded diameter of the anchoring device. The method of delivering the docking station and valve implant is performed by inserting the components through device delivery catheters.

Abstract: Systems and methods for mitral valve repair having a docking station and a valve implant. The docking station is an anchoring device having a helix structure. The valve implant is made of an expandable frame and a valve, and is radially expandable to a diameter that is at least the same as an expanded diameter of the anchoring device. The method of delivering the docking station and valve implant is performed by inserting the components through device delivery catheters.

Abstract: A prosthetic heart valve comprises a collapsible and expandable support frame comprising a longitudinal axis. The frame comprises a first circumferential undulating structure defining an outflow end of the frame, and a second circumferential undulating structure spaced apart from the first circumferential undulating structure. The frame also comprises a plurality of struts longitudinally aligned with the longitudinal axis of the frame, and connecting the first circumferential undulating structure to the second circumferential undulating structure. Each strut of the plurality of struts comprises a first end terminating at a trough of the first circumferential undulating structure, and a second end terminating at a peak of the second circumferential undulating structure. The prosthetic heat valve also comprises a biological tissue valve coupled to the frame.

Abstract: A prosthetic valve assembly for use in replacing a deficient native valve comprises a replacement valve supported on an expandable prosthesis frame. If desired, one or more expandable anchors may be used. The prosthesis frame, which entirely supports the valve annulus, valve leaflets, and valve commissure points, is configured to be collapsible for transluminal delivery and expandable to contact the anatomical annulus of the native valve when the assembly is properly positioned. Portions of the prosthesis frame may expand to a preset diameter to maintain coaptivity of the replacement valve and to prevent occlusion of the coronary ostia. The prosthesis frame is compressible about a catheter, and restrained from expanding by an outer sheath. The catheter may be inserted inside a lumen within the body, such as the femoral artery, and delivered to a desired location, such as the heart.

Abstract: Systems and methods for mitral valve repair having a docking station and a valve implant. The docking station is an anchoring device having a helix structure. The valve implant is made of an expandable frame and a valve, and is radially expandable to a diameter that is at least the same as an expanded diameter of the anchoring device. The method of delivering the docking station and valve implant is performed by inserting the components through device delivery catheters.

Abstract: This implant (1) has a frame (2) and a membrane (3) covering this frame; —the frame (2) has: —an elongated base portion (5) formed by two curved or chevron branches being connected to connecting areas (7) of the implant (1) for connecting to the annulus of the mitral valve (100); —a longitudinal hoop (8) extending in a plane substantially perpendicular to the plane in which extends said base portion; —the membrane (3) is flexible and extends from one branch to the other while passing near the hoop (8), this membrane being connected to said branches without being stretched between these branches and this hoop so that the two thereby formed lateral portions (3a) of the membrane (3) on both sides of the implant are able to adopt either a concave shape, outwardly convex, or a recessed shape, outwardly concave.

Abstract: Apparatus and methods for repairing a cardiac valve, e.g., a mitral valve, are provided. The apparatus may include an expandable frame defining a curved structure in the expanded deployed state and a membrane coupled to the expandable frame. The membrane may curve around a native leaflet, e.g., the posterior leaflet, in a first plane and curve around another leaflet, e.g., the anterior leaflet, in an orthogonal plane. The membrane may be adapted to be suspended in the flow path of the cardiac valve such a first surface of the membrane abuts the native leaflet during systole and a second surface of the membrane abuts the other native leaflet during systole, thereby reducing cardiac valve regurgitation.