Abstract: A device 10 for gathering tissue of a heart valve leaflet 2 may include an outer tube 16 extending in an elongation direction, a capture tool 22 moveable in the outer tube between a contained position and a use position, and a tissue securing component 32 disposed at a distal end 17 of the outer tube and adapted to be applied to tissue 8 captured by the capture tool to hold the captured tissue in a gathered configuration. The capture tool may include a first element 20 and a second element 22 that are moveable relative to one another in the elongation direction. The first and second elements 20, 22 may be operable to capture tissue 8 of the heart valve leaflet 2 therebetween and to draw the captured tissue into the outer tube 16 in the gathered configuration.

Abstract: A connector for coupling a distal sheath to an inner shaft of a medical delivery device includes a wedge defining a lumen for accepting the inner shaft of the medical delivery device and a cylindrical ring sized to mate with the wedge. The wedge may be welded or otherwise fixed to the inner shaft. The wedge and the ring are configured to be pressed together and lock a portion of the distal sheath therebetween.

Abstract: A device 10 for gathering tissue of a heart valve leaflet 2 may include an outer tube 16 extending in an elongation direction, a capture tool 22 moveable in the outer tube between a contained position and a use position, and a tissue securing component 32 disposed at a distal end 17 of the outer tube and adapted to be applied to tissue 8 captured by the capture tool to hold the captured tissue in a gathered configuration. The capture tool may include a first element 20 and a second element 22 that are moveable relative to one another in the elongation direction. The first and second elements 20, 22 may be operable to capture tissue 8 of the heart valve leaflet 2 therebetween and to draw the captured tissue into the outer tube 16 in the gathered configuration.

Abstract: A connector for coupling a distal sheath to an inner shaft of a medical delivery device includes a wedge defining a lumen for accepting the inner shaft of the medical delivery device and a cylindrical ring sized to mate with the wedge. The wedge may be welded or otherwise fixed to the inner shaft. The wedge and the ring are configured to be pressed together and lock a portion of the distal sheath therebetween.

Abstract: A connector for coupling a distal sheath to an inner shaft of a medical delivery device includes a wedge defining a lumen for accepting the inner shaft of the medical delivery device and a cylindrical ring sized to mate with the wedge. The wedge may be welded or otherwise fixed to the inner shaft. The wedge and the ring are configured to be pressed together and lock a portion of the distal sheath therebetween.

Abstract: A connector for coupling a distal sheath to an inner shaft of a medical delivery device includes a wedge defining a lumen for accepting the inner shaft of the medical delivery device and a cylindrical ring sized to mate with the wedge. The wedge may be welded or otherwise fixed to the inner shaft. The wedge and the ring are configured to be pressed together and lock a portion of the distal sheath therebetween.

Abstract: A method and associated apparatus for topographically characterizing a workpiece. The workpiece is scanned with a scanning probe along a first directional grid, thereby scanning a reference surface and an area of interest subportion of the reference surface, at a variable pixel density including a first pixel density outside the area of interest and a second pixel density inside the area of interest to derive a first digital file characterizing topography of the workpiece. The workpiece is further scanned along the reference surface and the area of interest with the scanning probe along a second directional grid that is substantially orthogonal to the first directional grid and at a constant pixel density to derive a second digital file characterizing topography of the workpiece. A processor executes computer-readable instructions stored in memory that generate a topographical profile of the workpiece in relation to the first and second digital files.

Abstract: An apparatus and associated method for topographically characterizing a workpiece. A scanning probe obtains topographical data from the workpiece. A processor controls the scanning probe to scan a reference surface of the workpiece to derive a first digital file and to scan a surface of interest that includes at least a portion of the reference surface to derive a second digital file. Correlation pattern recognition logic integrates the first and second digital files together to align the reference surface with the surface of interest.

Abstract: A method and associated apparatus for topographically characterizing a workpiece. The workpiece is scanned with a scanning probe along a first directional grid, thereby scanning a reference surface and an area of interest subportion of the reference surface, at a variable pixel density including a first pixel density outside the area of interest and a second pixel density inside the area of interest to derive a first digital file characterizing topography of the workpiece. The workpiece is further scanned along the reference surface and the area of interest with the scanning probe along a second directional grid that is substantially orthogonal to the first directional grid and at a constant pixel density to derive a second digital file characterizing topography of the workpiece. A processor executes computer-readable instructions stored in memory that generate a topographical profile of the workpiece in relation to the first and second digital files.

Abstract: An apparatus and associated method for topographically characterizing a workpiece. A scanning probe obtains topographical data from the workpiece. A processor controls the scanning probe to scan a reference surface of the workpiece to derive a first digital file and to scan a surface of interest that includes at least a portion of the reference surface to derive a second digital file. Correlation pattern recognition logic integrates the first and second digital files together to align the reference surface with the surface of interest.