Visualization Technology, Inc.

Ge Medical Systems Global Technology Company, LLC

The Brigham and Women's Hospital, Inc.

Other

Canon U.s.a., Inc.

Peter D Jakab

Maurice R Ferre

James S Tieman

Nobuhiko Hata

Ferenc A Jolesz

Takahisa Kato

Peter Tia

Krishna Kandarpa

Gabor Kosa

Exemplary relates to medical devices and in particular to a tool placement manipulator with multiple rotary guides and rotation bodies, the rotation bodies being free rotationally to the ring shaped rotary guides and rotational axis of the first rotary guide being slanted with respect to the rotational axis of the second rotary guide. The tool placement manipulator has at least one socket and at least one transmission element that transmits torques from the socket to rotation bodies.

Tool placement manipulator

A capsule includes a main body with at least one tail connected to the main body. At least two coils are disposed on each tail such that the coils are responsive to a magnetic field interacting with the coils such that a force is exerted on the tail. The capsule is controlled through application of a varying magnetic field with a constant current in the coils and/or by providing varying a current in the coils that interact with a constant magnetic field. The capsule can be disposed in a cavity, and the magnetic field can be provided from outside the cavity to affect movement of the capsule. An MRI device can be configured to control and image the capsule.

Steerable capsule apparatus and method

A system for monitoring a position of a medical instrument with respect to a patient's body, including a medical instrument, a reference mount attachable to the patient's body for movement with the patient's body, and an electromagnetic unit for association with the reference mount and the medical instrument for monitoring movement of the medical instrument relative to the reference mount. The electromagnetic unit includes a first member attachable to the patient's body and a second member attachable to the medical instrument. The first and second members communicate by electromagnetic radiation.

System for monitoring a position of a medical instrument with respect to a patient's body

A system for combining electromagnetic position and orientation tracking with magnetic resonance scanner is provided. One embodiment includes a magnetic resonance scanner defining a reference coordinate system for scanning a target. Coupled to the magnetic resonance scanner is a magnetic field source which produces a magnetic field. The magnetic field is sensed by a magnetic field sensor which produces a signal proportional to the magnetic field. The magnetic field sensor has a location relative to the reference coordinate system. The location of the magnetic field sensor relative to the reference coordinate system of the magnetic resonance scanner is determined by a location tracking device using at least a line segment model of the magnetic field source and the signal from the magnetic field sensor.

Magnetic resonance scanner with electromagnetic position and orientation tracking device

A method of monitoring a position of a medical instrument with respect to a patient's body, including positioning a patient reference unit on a portion of the patient's body; positioning a remote unit with respect to the medical instrument; associating at least one field sensor with at least one of the patient reference unit and the remote unit; generating an electromagnetic position characteristic field; producing position data responsive to a sensor output signal that is responsive to the presence of the electromagnetic position characteristic field such that the sensor output signal is representative of a position of the remote unit with respect to the patient reference unit; determining image data representing a plurality of images of the patient's body; and displaying an image of the patient's body based on the image data and responsive to position image data that varies for different position data.

Position tracking and imaging system for use in medical applications

A method of automatic registration includes forming an image of a body part including a representation of markers fixed in a known position in space relative to a reference mount, positioning a sensing unit in a known position in space relative to the reference mount, and automatically registering the sensing unit in space relative to the formed image based on the location of the markers in the formed image, the known location of the markers relative to the reference mount, and the known location of the sensing unit relative to the reference mount.

Automatic registration system for use with position tracking an imaging system for use in medical applications

A system is disclosed for monitoring the position of a medical instrument with respect to a patient's body and for displaying at least one of a plurality of prerecorded images of said body responsive to the position of said medical instrument. In one embodiment the system includes a reference unit secured from movement with respect to the patient's body such that said reference unit is substantially immobile with respect to a target operation site. The system also includes a remote unit for attachment to the medical instrument. A field generator may be associated with one of the units for generating a position characteristic field in an area including the target operation site. One or more field sensors may be associated with either of the units responsive to the presence of the position characteristic field for producing one or more sensor output signals representative of said sensed field. A position detector in communication with the sensor output signal produces position data representative of the position of the remote unit with respect to the reference unit. An output display in communication with the position detector displays at least one of the prerecorded images responsive to the position data.

Growing community of inventors

Canton, MA, United States of America

Peter D Jakab