Boston Scientific Scimed, Inc.

Scimed Life Systems, Inc.

University of Minnesota

Boston Scientific Corporation

Kenneth M Merdan

David M Flynn

Gregory Ernest Ostenson

Benjamin Bidne

Jan Weber

Arthur Guy Erdman

Lixiao Wang

Derek C Sutermeister

Dane M Coffey

Daniel F Keefe

Vitaliy N Shapovalov

Eric A Ware

Robbie L Halvorson

Chi-Lun Lin

Pu Zhou

Anthony Ciro Vrba

Jay T Rassat

Dachuan Yang

Peter Skujins

Brice Lee Shireman

Vitaly N Shapovalov

Matthew Shedlov

Matt Shedlov

Brian K Balzum

Matthew S Shedlov

Jeffrey P Boodry

Luke W Lundquist

James K Hitchcock

James M Faucher

Daniel J Gregorich

David Gilbert

Todd Messal

Mark M Wright

Timothy Ehr

A computer-implemented medical visualization method includes identifying a three-dimensional model of an anatomical item of a particular mammal; displaying a moving animation of the three-dimensional model, the moving animation created from multiple frames from imaging of the anatomical item over a short time period to capture movement of the anatomical item; displaying one or more non-moving views of the three-dimensional model while the moving animation is being displayed; and in response to receiving inputs from a user, changing the displayed moving animation and the one or more non-moving views automatically in coordination with each other.

Comparative analysis of anatomical items

A computer-implemented method for medical device modeling includes accessing an electronic definition for a model of a three-dimensional item and an electronic definition of a three-dimensional spline relating to an internal anatomical volume; determining, with a computer-based finite element analysis system and using the electronic definitions, stresses created by the three-dimensional item along the three-dimensional spline, for different points along the three-dimensional spline; and displaying stress data generated by the finite element analysis system with a visualization system, the display of the stress data indicating levels of stress on portions of the three-dimensional item at particular locations along the three-dimensional spline.

Material analysis of anatomical items

Embodiments herein relate to distributed interactive medical visualization systems with primary/secondary interaction features and related methods. In an embodiment, a distributed interactive medical visualization system is included. The system can include a first video processing circuit and a first central processing circuit in communication with the first video processing circuit. The system can also include a first communications circuit. The system can also include a primary user interface generated by the first video processing circuit. The primary user interface can include a three-dimensional model of at least a portion of a subject's anatomy from a first perspective, the first perspective configured to be controlled by a primary user. The primary user interface can include a command interface object, wherein engagement can cause a secondary user interface to begin mirroring the perspective of the primary user on the three-dimensional model of the subject's anatomy. Other embodiments are also included herein.

Distributed interactive medical visualization system with primary/secondary interaction features

Embodiments herein relate to distributed interactive medical visualization systems including user interface features and related methods. In an embodiment, a distributed interactive medical visualization system is included having a first video processing circuit, a first central processing circuit in communication with the first video processing circuit, a first communications circuit in communication with the first central processing circuit, and a first user interface generated by the first video processing circuit. The first user interface can include a three-dimensional model of at least a portion of a subject's anatomy from a first perspective, the first perspective configured to be controlled by a first user. The first user interface can further include one or more user representations representing one or more other users, the user representations superimposed within the three-dimensional model, wherein each of the one or more user representations are visually distinct from one another. Other embodiments are also included herein.

Distributed interactive medical visualization system with user interface features

A computer-implemented medical visualization method includes identifying a three-dimensional model of an anatomical item of a particular mammal; automatically identifying an open path in three-dimensional space through the anatomical item; fitting a smooth curve to the open path; and displaying the anatomical item and a visual representation of the smooth curve to a user on a three-dimensional imaging system.

Computer visualization of anatomical items

A system and method for processing a tubular member comprises a hollow tubular member, a laser and a media flow. The laser is constructed and arranged to transmit laser energy to the tubular member. The laser energy is transmitted to the tubular member through a fluid column according to a predetermined pattern. The media flow is injected into the lumen of the hollow tubular member.

Tubular cutting process and system

A stent manufacturing device and methods for making intravascular stents and other medical devices. The stent manufacturing device may include a base, a laser or other cutting device coupled to the base, a horizontal motor coupled to the base, and a rotary motor coupled to the horizontal motor. A workpiece can be attached to the cutting device, for example adjacent the rotary motor, and the workpiece can be cut with the cutting device.

Inverted stent cutting process

A system and method for processing a tubular member for producing a medical device, wherein the tubular member is oriented in a longitudinally vertical position during processing.

Vertical stent cutting process

A dynamic bushing and/or gripper mechanism comprises an apparatus for retaining a tubular member in a position during processing so that the tube does not move transverse to the longitudinal axis of the bushing, but wherein the tube may be rotated within the confines of the bushing and/or in the case of the gripper mechanism the tube may be moved longitudinally within the confines of the gripper.

Dynamic bushing for medical device tubing

Devices and methods for coupling guidewire system components are disclosed. A guidewire system includes a first wire having a first end and a second wire having a second end which may be selectively coupled to the first end of the first wire. Such guidewire systems are useful as guidewire extension systems.

Guidewire extension system

A system for processing a work piece comprises a laser jet mechanism having a laser and a fluid source. The laser is constructed and arranged to transmit laser energy to the work piece and the fluid source is constructed and arranged to direct a fluid stream to the work piece. The laser energy is transmitted to the work piece through the fluid stream. The fluid stream comprises at least one processing solution selected from the group consisting of: at least one etchant, at least one abrasive, at least one polish, at least one cleaner, at least one detergent and any combination thereof. The fluid stream optionally comprises water.

Combination laser cutter and cleaner

A method of determining whether a substrate has been subjected to an energy source. In one embodiment, the method includes the steps of providing a polymeric surface, providing a light emitting material having a specified emission spectrum that changes upon exposure to an energy source on the surface or embedded in said substrate and applying said energy source to said surface with said light emitting material. This method can be particularly useful for detecting the bond quality in medical devices.

Light emitting markers for use with substrates

Growing community of inventors

Greenfield, MN, United States of America

Kenneth M Merdan