Boston Scientific Scimed, Inc.

Stryker Corporation

Precision Vascular Systems, Inc.

Stryker European Holdings I LLC

Stryker European Operations Limited

Stryker Nv Operations Limited

Trebor International, Inc.

Clay Northrop

Ted W Layman

Stephen C Jacobsen

Clark C Davis

Edward J Snyder

Todd H Turnlund

D Kent Backman

Kevin T Olson

Virgil F Voeller

James Paul

Mark L Adams

Brent C Gerberding

Justin M Crank

Stephen Christopher Porter

David P Marceau

Hong Doan

Michael R Dunn

Hanh Doan

Justin Vo

Melyssa Lewis

A method of making a medical device includes: obtaining an assembly having a tubular structure, a polymeric tube, and a stretched rod, wherein the stretched rod is inside a lumen of the polymeric tube, and wherein the polymeric tube is between the tubular structure and the stretched rod; and expanding the stretched rod to urge the polymeric tube radially outward towards an inner surface of the tubular structure.

Medical devices with tubular reinforcement

A catheter includes: a tube having a distal end, a proximal end, and a tube body extending between the distal end and the proximal end, the tube having a tube wall and a first channel in the tube wall; a first elongated element located in the first channel of the tube, the first elongated element slidably moveable in the first channel relative to the tube wall; and a suction port configured to apply suction in the first channel; wherein a first part of the tube wall is configured to deform to apply a first force against the first elongated element in response to the suction in the first channel.

Catheters with shape locking mechanisms

A medical device includes: an elongated tube having a wall defining a lumen for the elongated tube, wherein the wall of the elongated tube comprises a first opening; and a first actuating element coupled directly or indirectly to the wall of the elongated tube; wherein at least a part of the first actuating element and the first opening of the wall are located at a same longitudinal position with respect to a longitudinal axis of the elongated tube; and wherein the first actuating element is configured to change size to induce stress and/or displacement at the wall of the elongated tube to cause the elongated tube to bend.

Actuating elements for bending medical devices

A method of forming a fenestrated tubular support member includes determining a first iso-stiffness curve corresponding to a first function of beam length versus ring width for the first stiffness; determining a second iso-stiffness curve corresponding to a second function of beam length versus ring width for the second stiffness; determining an iso-volume curve corresponding to a third function of beam length versus ring width for a given fenestration volume; identifying a first intersection point where the iso-volume curve intersects the first iso-stiffness curve; and identifying a second intersection point where the iso-volume curve intersects the second iso-stiffness curve. The first section ring width and first section beam length are determined from the first intersection point, and the second section ring width and second section beam length are determined from the second intersection point.

Medical devices and methods of manufacturing same

A multilayer stent configured for implantation in a body lumen, including a tubular outer layer comprising a first plurality of struts defining an outer layer mesh pattern extending between first and second ends of the outer layer, and a tubular inner layer comprising a second plurality of struts defining an inner layer mesh pattern extending between first and second ends of the inner layer. The inner-layer is at least partially disposed within the outer layer, wherein at least a portion of the inner layer is attached to, or integrally formed with, at least a portion of the outer layer.

Multilayer stent

A tubular support member located in a distal portion of an elongate flexible medical device is provided with a plurality of wall openings, e.g., axially-spaced, substantially transverse slots, formed therein to thereby increase a flexibility of the support member. A layer of sealing material overlays an outer surface the support member so as to provide a sealed portion of the support member including the wall openings, the sealing material having respective flexible invaginations formed therein overlaying the wall openings in the support member so that the sealing material does not substantially impede flexibility of the support member.

Coated tubular support members and methods of manufacturing same

Medical devices and methods for making and using the same. An example medical devices includes a core member and a tubular member disposed over a portion of the core member. The tubular member has a plurality of slots formed therein.

Cut tubular members for a medical device and methods for making and using the same

Medical devices and methods for making and using the same are disclosed. An example medical device may include a guidewire. The guidewire may include a core wire having a distal portion. A tubular member may be disposed over the distal portion. The tubular member may have a plurality of slots formed therein. The tubular member may have a distal section with a heat transfer region and a heat sink region. A solder tip member may be attached to the tubular member. The solder tip member may include a portion extending through the heat transfer region of the tubular member to the heat sink region.

Medical devices with a heat transfer region and a heat sink region and methods for manufacturing medical devices

Medical devices for navigation through anatomy, including guidewires, which may have a core wire, a slotted tubular member, or both. Embodiments may have coils, including non-circular cross-section edge-wound marker coils, extended coil tips, and soldered or glued mesial joint coils. Core wires may have a step, ridge, or taper at the joints to the tubular member, and may be flattened at the distal tip. Radiopaque material may be located inside the tubular member, and the distal tip may be heat treated to make it shapeable. Additional tubular members or coils may be used concentrically or in line and may enhance flexibility, provide radiopacity, reduce friction, or reduce material or manufacturing cost. Tubular members may be chamfered or tapered continuously or incrementally. Slots may be arranged in groups, such as groups of three, and may be equal in depth or unequal in depth to provide a steerable or compressible tip.

Medical device for navigation through anatomy and method of making same

Medical devices for navigation through anatomy, including guidewires, which may have a core wire, a slotted tubular member, or both. Embodiments may have coils, including non-circular cross-section edge-wound marker coils, extended coil tips, and soldered or glued mesial joint coils. Core wires may have a step, ridge, or taper at the joints to the tubular member, and may be flattened at the distal tip. Radiopaque material may be located inside the tubular member, and the distal tip may be heat treated to make it shapeable. Additional tubular members or coils may be used concentrically or in line and may enhance flexibility, provide radiopacity, reduce friction, or reduce material or manufacturing cost. Tubular members may be chamfered or tapered continuously or incrementally. Slots may be arranged in groups, such as groups of tree, and may be equal in depth or unequal in depth to provide a steerable or compressible tip.

Growing community of inventors

Salt Lake City, UT, United States of America

Clay Northrop