Biosense Webster (israel) Ltd.

Novocure Gmbh

Biosense Webster, Inc.

Gil Zigelman

Eliahu Zino

Zeev Bomzon

Hadas Sara Hershkovich

Ido Ilan

Ziyad Zeidan

Liav Moshe Adi

Maxim Galkin

Shira Luk-Zilberman

Ori Kook

Tamir Demri

Oren Ben Zion Bakalo

Ehud Alkabetz

Hamutal Rinat Yadan

Meir Bar-Tal

Assaf Cohen

Fady Massarwa

Tal Haim Bar-on

Asaf Merschon

Matityahu Amit

Dror Berman

Illya Shtirberg

Pesach Susel

Ran Glazer

Eran Haskel

Oren Bakalo

Tal Haim Bar-On

Methods, systems, and apparatuses are described for managing placement of transducer arrays on a subject/patient.

Methods, systems, and apparatuses for managing transducer array placement

Display screen or portion thereof with a graphical user interface

A system and methods for automatically adjusting view angle when performing cardiac mapping and ablation are described herein. A three-dimensional (3D) map of a cardiac structure of a patient and a relative location (e.g., position and orientation) of a catheter within the cardiac structure may be displayed on a visual display device. According to an example procedure, the position and orientation of the tip of the catheter within the cardiac structure, and the current ablation target may be detected. A desired viewing angle of the ablation target may be known, determined, provided and/or learned through training sessions with the operator. The viewing angle of the 3D map of the cardiac structure may be automatically adjusted to correspond to the desired viewing angle using the known locations of the tip of the catheter and ablation target. Other details and procedures may be implemented, as described herein.

Automatic tracking and adjustment of the view angle during catheter ablation treatment

A system including a medical device to form a 3D image of an anatomical structure in a body of a living subject, a user interface including a display and an input device, and a processor to prepare a user interface screen presentation including a graphical representation of the anatomical structure based on the 3D image, generate a feature list of a plurality of features associated with the anatomical structure, each feature having a respective location, render the user interface screen presentation to the display showing a first view of the graphical representation, receive an input from the user interface selecting a feature from the list, and render the user interface screen presentation to the display showing the graphical representation of the anatomical structure being automatically rotated from the first view to a second view showing the selected feature at the respective location on the graphical representation.

Medical user interface

A coordinate system registration module, including radiopaque elements arranged in a fixed predetermined pattern and configured, in response to the radiopaque elements generating a fluoroscopic image, to define a position of the module in a fluoroscopic coordinate system of reference. The module further includes one or more connections configured to fixedly connect the module to a magnetic field transmission pad at a predetermined location and orientation with respect to the pad, so as to characterize the position of the registration module in a magnetic coordinate system of reference defined by the magnetic field transmission pad.

Integration between 3D maps and fluoroscopic images

A method includes registering a first coordinate system of a fluoroscopic imaging system and a second coordinate system of a magnetic position tracking system. A three-dimensional (3D) map of an organ of a patient, which is produced by the magnetic position tracking system, is displayed. A 3D volume that would be irradiated by the fluoroscopic imaging system is calculated using the registered first and second coordinate systems. The calculated 3D volume is marked on the 3D map.

Marking of fluoroscope field-of-view

A method includes sending from a first medical device to a second medical device a request for data using a communication protocol that includes messages for conveying medical measurement results. In response to the request, at least one message is produced in the second medical device that includes the requested data and a dummy payload instead of the medical measurement results, and the at least one message is sent from the second medical device to the first medical device using the communication protocol.

Real-time communication between medical devices over a DICOM network

A method includes registering a first coordinate system of a fluoroscopic imaging system and a second coordinate system of a magnetic position tracking system. A three-dimensional (3D) map of an organ of a patient is computed using the magnetic position tracking system. A field-of-view (FOV) of the fluoroscopic imaging system in the second coordinate system is calculated using the registered first and second coordinate systems. Based on the 3D map and the calculated FOV, a two-dimensional (2D) image that simulates a fluoroscopic image that would be generated by the fluoroscopic imaging system is created, and the 2D image that simulates the fluoroscopic image is displayed.

Real-time simulation of fluoroscopic images

A method for mapping a body organ, including receiving a three-dimensional (3D) map of the body organ having a multiplicity of map elements, each map element having a graphic attribute indicative of a local property of the body organ. The method further includes delineating a selected region of the map, so that the map is divided into the selected region and a non-selected region. The 3D map is displayed while the graphic attribute of the map elements specifically within the selected region are altered.

Differential mapping of a body organ

A method for performing a medical procedure includes holding a non-linear dependence between the duration of a given phase within a cardiac cycle and a respective heartbeat rate. First and second image sequences of the dynamic activity of the heart of a patient, acquired at respective different first and second heartbeat rates of the heart, are received. Synchronization between the first and second image sequences is performed based on the non-linear dependence, on the first and second heartbeat rates, and on a given common heartbeat rate. The first and second image sequences are played in synchronization with the common heartbeat rate.

Synchronizing between image sequences of the heart acquired at different heartbeat rates

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Haifa, Israel

Gil Zigelman