Medtronic, Inc.

Volcano Corporation

Philips Image Guided Therapy Corporation

Nancy Perry Pool

Vincent J Burgess

Blair D Walker

Jon D Klingensmith

John Louis Sommer

Eric H Bonde

Mark A Christopherson

William Russell Kanz

Duane De Jong

Timothy K Glynn

Stephen M Fry

Ed Oliver

Rahul Mehra

Michael R Ujhelyi

Nirav Vijay Sheth

Richard Scott Huennekens

R Scott Huennekens

Gregory John Haubrich

Michael F Hess

Michael Thomas Lee

Mark Brecht

Edwin Marcum Pearce, Jr

Kenneth M Riff

Chester Gary Nelson

Nelson Au

Henrick K Gille

Thomas P Crowley

Marja Pauliina Margolis

John M Kruse

Edward Anthony Oliver

Charles R Stomberg

David L Karshmer

Richard M Powell

Marion Buchenau

Elisha Tal

Nick Oakley

Mary Wesolowski Leadholm

Clifton W Owens

Patrick M Mahoney

Craig M Housworth

Randall Kent Hanson

A componentized intravascular ultrasound system is disclosed that flexibly integrates with a catheter lab infrastructure for acquisition and display of intravascular information in a catheter lab environment. The system includes a patient interface module (PIM) adapted to hold a catheter having an imaging probe located near a distal end, a control panel, a monitor for displaying images and patient data, and a processing unit. The processing unit is communicatively coupled to the PIM, the control panel, and the monitor. Furthermore the processing unit adapted to: coordinate operation of the PIM, the control panel, and the monitor; and generate images from image data provides by the PIM. The PIM, control panel and monitor are independently positionable with regard to one another.

Component-based catheter lab intravascular ultrasound system

A system and method for providing a vascular image are disclosed wherein a single composite display simultaneously provides a first view of a patient including an angiogram image and a second view including an intravascular image rendered from information provided by an imaging probe mounted on a distal end of a flexible elongate member. A cursor, having a position derived from image information provided by a radiopaque marker proximate the imaging probe, is displayed within the angiogram image to correlate the position of the imaging probe to a presently displayed intravascular image and thus provide an easily discernable identification of a position within a patient corresponding to a currently displayed intravascular image. The resulting composite display simultaneously provides: an intravascular image that includes information about a vessel that is not available from an angiogram and a current location within a vessel of a source of intravascular image data from which the intravascular image is rendered.

Vascular image co-registration

A touchpad controller for a componentized intravascular ultrasound system is disclosed for acquisition and display of intravascular information in a catheter lab environment. The system includes a patient interface module (PIM) adapted to hold a catheter having an imaging probe located near a distal end, a control panel, a monitor for displaying images and patient data, and a processing unit. The touchpad controller facilitates use beneath a sterile drape and sensitivity to gloved touch. Furthermore, the touchpad controller is sized for handheld use during an imaging session. A rail mount facilitates easy attachment of the touchpad controller alongside a patient table.

Controller user interface for a catheter lab intravascular ultrasound system

A method and system are disclosed for creating, in a coordinated manner, graphical images of a body including vascular features from a combination of image data sources. The method includes initially creating an angiographic image of a vessel segment. The angiographic image is, for example, either a two or three dimensional image representation. Next, a vessel image data set is acquired that is distinct from the angiographic image data. The vessel image data set comprises information acquired at a series of positions along the vessel segment. An example of such vessel image data is a set of intravascular ultrasound frames corresponding to circumferential cross-section slices taken at various positions along the vessel segment. The angiographic image and the vessel image data set are correlated by comparing a characteristic rendered independently from both the angiographic image and the vessel image data at positions along the vessel segment.

Three dimensional co-registration for intravascular diagnosis and therapy

The invention is directed to lead configurations for sensors that allow for less invasive sensor replacement procedures. In one configuration, a sensor lead assembly includes an outer lead body and an inner lead including a sensor such as an electrochemical glucose sensor. The inner lead can be positioned in an inner conduit of the outer lead body. The outer lead body may be substantially permanently implanted in the patient, and the inner lead can be implanted through the inner conduit of the outer lead body. Once the sensor of the inner lead has worn out or otherwise exhausted its useful life, the inner lead can be removed, and a new inner lead can be implanted in place of the old inner lead.

Atraumatic sensor lead assemblies

An external programmer module adapted for physical and electrical connection to existing clinical monitoring and/or therapy instrumentation is provided for achieving bi-directional communication with an implantable medical device (IMD). The programmer module includes telemetry circuitry necessary for communicating with an IMD and a connector that allows electrical connection to a clinical instrument such as a patient monitor or external defibrillator. The connector is adapted to connect the programmer module with the power supply of the clinical instrument and may connect the programmer module with one or more features or subsystems of the clinical instrument, such as, a central processing system, a printer, an electronic storage medium, a user interface, a communications interface, or graphical display. The programmer module is enclosed in a housing adapted for physical mating with the clinical instrument, either on the outside of the clinical instrument or within an open bay designed to receive auxiliary devices.

Implantable medical device programmer module for use with existing clinical instrumentation

A method and system facilitates the access by a patient of implanted medical device related data for patient participation in their own clinical care and therapy. In an example embodiment, the method includes establishing a communications link between an implanted medical device and a data processor via an implanted medical device interface. Access to a secured database is obtained via the implanted device data processor using a set of patient identification data. A query is then submitted via the data processor to the secured database in response to input patient diagnostic data. Data received from the secured database is then displayed for use in a patient evaluation.

Method and a system for using implanted medical device data for accessing therapies

A device external to an implantable medical device (IMD) is provided with an accurate reference clock. The programmer receives time data from the IMD and compares that data to time data from the reference clock. Based on this comparison, the programmer determines how much a clock within the IMD is drifting per unit of time. A correction factor is generated so that data received from the IMD can then be correlated to the correct reference time.

Time syncrhonization of data

A communication system is provided which permits of communication between an deployed implantable medical device (IMD) and a large-scale powerful computer capable of manipulating complex nonlinear modeling of physiologic systems, and also capable of accounting for large amounts of historical data from a particular patient or a cohort group for improved modeling and predictive power, which may be expected to lead to improved patient outcomes. A deployed IMD may be polled by a routing instrument external to the host patient, and data may be received by wireless communication. This data may be transmitted to a central large-scale or other relatively powerful computer for processing according to an appropriate model. A treatment or instruction regimen, as well as appropriate firmware or software upgrades, may then be transmitted to the routing instrument for immediate or eventual loading into the IMD via wireless communication.

Large-scale processing loop for implantable medical devices

Growing community of inventors

El Dorado Hills, CA, United States of America

Nancy Perry Pool