Abstract: Rechargeable implantable cardioverter defibrillator including a hermetically sealed can and at least one lead, coupled with the hermetically sealed can, the hermetically sealed can including at least one high voltage capacitor, an electronic circuit, coupled with the high voltage capacitor and a rechargeable battery, coupled with the electronic circuit and the high voltage capacitor, an outer surface of the hermetically sealed can including an active section and a non-active section, the non-active section being electrically insulated from the active section, wherein a surface area of the active section acts as at least one of an electrode with the lead for forming an electric shock vector for applying a high voltage shock and a sensor for sensing electrical activity and wherein a surface area of the non-active section acts as at least one antenna for transmitting and receiving information wirelessly while also receiving electromagnetic energy to inductively charge the rechargeable battery.

Abstract: System for guiding a catheter through a lumen system of a body of a patient, to a predetermined location within the lumen system, the system including a medical positioning system, a moving mechanism coupled with the catheter, and a controller coupled with the medical positioning system and with the moving mechanism, the medical positioning system including at least one position detector, the position detector being firmly attached to a distal portion of the catheter, the medical positioning system determining the position of the position detector, the controller controlling the operation of the moving mechanism to move the catheter to the predetermined location, according to the position and according to a topological representation of at least a portion of the lumen system.

Abstract: Flexible subcutaneous implantable medical device (IMD), including an elongated and flexible body (256), a plurality of electronic components, at least one rechargeable battery (426), at least one antenna (260, 422), at least one lead (254) and at least one transition unit (252), the antenna for receiving and transmitting electromagnetic radiation and the lead for providing an electric shock, wherein the elongated and flexible body is structured from a plurality of units, wherein a first one of the plurality of units encapsulates the rechargeable battery, wherein each one of the other plurality of units respectively encapsulates a respective one of the plurality of electronic components, wherein the antenna is positioned in the transition unit, wherein the transition unit is covered with a biocompatible polymer, wherein the antenna receives electromagnetic radiation for recharging the rechargeable battery and wherein the antenna includes a copper coil having a generally cylindrical shape.

Abstract: Encapsulation configuration for electronic components in a flexible implantable medical device, including a first encapsulation section and a second encapsulation section, the first encapsulation section including a plurality of circuit boards (CBs), each CB including at least one electronics component and a plurality of connection cables, wherein each CB has a generally circular shape and wherein each connection cable electrically couples adjacent ones of the plurality of CBs alternatively at opposite ends, thereby giving the encapsulation configuration an accordion like shape when folded, the second encapsulation section including a flat CB, including a plurality of electronics components, wherein the flat CB has a generally rectangular shape, wherein the plurality of electronics components are positioned on both sides of the flat CB with taller ones of the plurality of electronics components positioned closer to the center of the flat CB and shorter ones of the plurality of electronics components positione

Abstract: A male coupler for a guidewire, the guidewire having a hollow walled tube, the male coupler comprising a connector section, coupled with the guidewire, a portion of the connector section having a diameter smaller than the diameter of the hollow tube, at least one conducting ring coupled with the connector section where the diameter of the connector section is smaller the diameter of the guidewire, wherein the diameter of connector section and the at least one conducting ring substantially equals the diameter of the guidewire.

Abstract: A method for registering a three dimensional (3D) coordinates system with a Medical Positioning System (MPS) coordinate system and with a two dimensional (2D) coordinate system, includes acquiring at least one 2D image of a volume of interest, the volume of interest including at least one tubular organ within the body of a patient. The 2D image is associated with the 2D coordinate system, and a plurality of MPS points is acquired, within the at least one tubular organ. The MPS points are associated with the MPS coordinate system, the MPS coordinate system being registered with the 2D coordinate system. A 3D image model is extracted of the at least one tubular organ form a pre-acquired 3D image of the volume of interest.

Abstract: A male coupler for a guidewire, the guidewire having a hollow walled tube, the male coupler comprising a connector section, coupled with the guidewire, a portion of the connector section having a diameter smaller than the diameter of the hollow tube, at least one conducting ring coupled with the connector section where the diameter of the connector section is smaller the diameter of the guidewire, wherein the diameter of connector section and the at least one conducting ring substantially equals the diameter of the guidewire.

Abstract: Method for registering a three dimensional (3D) pre acquired image coordinates system with a Medical Positioning System (MPS) coordinate system and a two dimensional (2D) image coordinate system, the method comprising acquiring a 2D image of a volume of interest, the volume including an organ, the 2D image being associated with the 2D coordinate system, acquiring MPS points within the organ, the MPS points being associated with the MPS coordinate system, the MPS coordinate system being registered with the 2D coordinate system, extracting a 3D image model of the organ from a pre acquired 3D image of the volume of interest, estimating a volumetric model of the organ from the acquired MPS points, and registering the 3D coordinate system with the MPS coordinate system by matching the extracted 3D image model and the estimated volumetric model of the organ.

Abstract: Systems and methods are disclosed for navigating a surgical device toward a target organ in the body of a patient. An example method includes providing a surgical needle and a guide wire, the surgical needle configured for insertion into a vein or a beating heart. The method also includes holding the guide wire within the surgical needle while the surgical needle is inserted into the vein or the beating heart. The method also includes generating output in two modes, the output based on at least one medical positioning system (MPS) sensor on the guide wire, the output corresponding to a position of the surgical needle and the guide wire for navigating the surgical needle and the guide wire toward a target in the vein or the heart. The methods can be carried out directly by a physician or via a computer processor-based surgical system.

Abstract: A flexible guidewire comprising a hollow tube, having a proximal section and a distal section, the distal section having a distal tip, the outer diameter of the distal section gradually decreasing toward the distal tip, the outer diameter of the distal tip being larger than the smallest outer diameter of the distal section, the flexible guidewire further comprising a plug coupled with the distal tip of the hollow tube for creating a non-traumatic tip, and the flexible guidewire further comprising a tubular spring, being place around the distal section of the hollow tube for maintaining the outer diameter of the hollow tube over the length thereof and for supporting compressive loads.

Abstract: A male coupler for a guidewire, the guidewire having a hollow walled tube, the male coupler comprising a connector section, coupled with the guidewire, a portion of the connector section having a diameter smaller than the diameter of the hollow tube, at least one conducting ring coupled with the connector section where the diameter of the connector section is smaller the diameter of the guidewire, wherein the diameter of connecter section and the at least one conducting ring substantially equals the diameter of the guidewire.

Abstract: A male coupler for a guidewire, the guidewire having a hollow walled tube, the male coupler comprising a connector section, coupled with the guidewire, a portion of the connector section having a diameter smaller than the diameter of the hollow tube, at least one conducting ring coupled with the connector section where the diameter of the connector section is smaller the diameter of the guidewire, wherein the diameter of connector section and the at least one conducting ring substantially equals the diameter of the guidewire.

Abstract: Method for registering a three dimensional (3D) pre acquired image coordinates system with a Medical Positioning System (MPS) coordinate system and a two dimensional (2D) image coordinate system, the method comprising acquiring a 2D image of a volume of interest, the volume including an organ, the 2D image being associated with the 2D coordinate system, acquiring MPS points within the organ, the MPS points being associated with the MPS coordinate system, the MPS coordinate system being registered with the 2D coordinate system, extracting a 3D image model of the organ from a pre acquired 3D image of the volume of interest, estimating a volumetric model of the organ from the acquired MPS points and registering the 3D coordinate system with the MPS coordinate system by matching the extracted 3D image model and the estimated volumetric model of the organ.

Abstract: Method for registering a three dimensional (3D) pre acquired image coordinates system with a Medical Positioning System (MPS) coordinate system and a two dimensional (2D) image coordinate system, the method comprising acquiring a 2D image of a volume of interest, the volume including an organ, the 2D image being associated with the 2D coordinate system, acquiring MPS points within the organ, the MPS points being associated with the MPS coordinate system, the MPS coordinate system being registered with the 2D coordinate system, extracting a 3D image model of the organ from a pre acquired 3D image of the volume of interest, estimating a volumetric model of the organ from the acquired MPS points, and registering the 3D coordinate system with the MPS coordinate system by matching the extracted 3D image model and the estimated volumetric model of the organ.

Abstract: Method and system for producing an electrophysiological map of a heart of the body of a patient, the method including, for at least one target point, determining a respective target point location and a respective probe orientation, confirming that the tip of a probe is located at the respective target point location, confirming that the tip is oriented at the respective probe orientation, measuring at least one heart parameter value at the respective target point location, and superimposing at least one representation of the at least one heart parameter value on an image of the heart, at the respective target point location, to produce the electrophysiological map.

Abstract: A method generates a three dimensional (3D) model of a tubular organ having an occluded segment. The occluded segment adjoins a proximal segment at a proximal end thereof, and a distal segment at a distal end thereof. The procedures included injecting a first dye injection into the tubular organ, the first dye approaching a first end of the occluded segment. Multiple first-injection two-dimensional (2D) images of the tubular organ are acquired, each acquired from a different perspective, the first-injection 2D images further acquired with a respective organ timing signal reading. A second dye is injected into the tubular organ, the second dye approaching a second end of the occluded segment. Multiple second-injection 2D images are acquired of the tubular organ, each acquired from a different perspective, the second-injection 2D images further acquired with a respective organ timing signal reading.

Abstract: Apparatus for performing bypass graft surgery on a patient, between a major blood vessel and an occluded vessel in the patient, the vessel being occluded by a lesion, including a blocking balloon, an endoscopic delivery device, a distal suture structure, a proximal suture structure and a delivery catheter, the blocking balloon for isolating a portion of the major blood vessel, the endoscopic delivery device for grasping a vessel graft and for navigating the vessel graft to the major blood vessel and the occluded vessel, the distal suture structure positioned within the distal end of the vessel graft, for suturing the vessel graft with the occluded vessel at a position distal to the lesion, the proximal suture structure positioned within the proximal end of the vessel graft, for suturing the vessel graft with the major blood vessel and the delivery catheter positioned within the vessel graft, for holding and releasing the distal suture structure and the proximal suturing structure.

Abstract: Methods and systems for producing an electrophysiological map of a heart of a patient are disclosed. An example method may include determining a target location and an orientation of a catheter tip, confirming that the tip is located at the target location, measuring the heart parameter value at each of the target locations, and superimposing a plurality of representations of the heart parameter value. Confirmation that the tip of the catheter is located at a target location can be accomplished by comparing the current location of the tip with the target location, a corresponding heart parameter value being measured at each of the target locations by a heart parameter sensor, and the representations of the heart parameter value being superimposed on an image of the heart at the target location to produce the electrophysiological map.

Abstract: A method for determining and graphically marking a position within a lumen of the body of a patient indicative of occlusion includes providing a user interface, using a processor, configured to allow a user to select an occlusion percentage threshold, determining, using the processor, a percentage of occlusion in the lumen, comparing, using the processor, the determined percentage of occlusion with the selected occlusion percentage threshold and identifying a region of the lumen that is occluded more than the selected occlusion percentage threshold, and designating, using the processor, the identified region on an image of the lumen with at least one mark.

Abstract: A system and method are provided for delivering a medical device on a catheter to a selected position within a lumen of the body. A medical positioning system (MPS) acquires MPS data for points within the lumen using an MPS sensor on the catheter. Each of the points is associated with a three-dimensional coordinate system and an activity state of an organ of the patient. A user interface receives position data for the selected position. The position date is associated with an MPS representation associated with one of the points. A processor determines a plurality of temporal three-dimensional trajectory representations based on the MPS data and corresponding to the respective activity states of the organ. The processor superimposes the temporal three-dimensional trajectory representations on a two-dimensional image according to the activity states of the organ thereby enabling an operator to visually navigate the medical device toward the selected position.