Abstract: A medical image processing system includes a memory and a processor coupled to each other. The processor accesses and executes instructions which memory stores to perform the following: obtaining a plurality of brain MR images corresponding to a subject, wherein the brain MR images corresponds to a subject brain space; accessing a DBS targets atlas corresponding to a specific stimulation area; transforming the DBS targets atlas from a MNI brain space to the subject brain space based on a DARTEL algorithm; marking at least one coordinate having a largest Voxel value in the brain MR images based on the transformed DBS targets atlas; and storing the brain MR images being targeted with the at least one coordinate into a predetermined format corresponding to a guiding device so that the guiding device displays the brain MR images being targeted with the at least one coordinate for guidance in DBS procedure.
Type:
Grant
Filed:
July 15, 2020
Date of Patent:
February 1, 2022
Assignees:
Taipei Medical University (TMU), Kaohsiung Chang Gung Memorial Hospital
Abstract: A medical image processing system includes a memory and a processor coupled to each other. The processor accesses and executes instructions which memory stores to perform the following: obtaining a plurality of brain MR images corresponding to a subject, wherein the brain MR images corresponds to a subject brain space; accessing a DBS targets atlas corresponding to a specific stimulation area; transforming the DBS targets atlas from a MNI brain space to the subject brain space based on a DARTEL algorithm; marking at least one coordinate having a largest Voxel value in the brain MR images based on the transformed DBS targets atlas; and storing the brain MR images being targeted with the at least one coordinate into a predetermined format corresponding to a guiding device so that the guiding device displays the brain MR images being targeted with the at least one coordinate for guidance in DBS procedure.
Abstract: A medical image processing system that can accept commissions to perform 3D formation using a 3D forming apparatus includes a storage unit, a selection accepting unit, a part identifying unit, and a screen generating unit. The storage unit stores a medical image, and body part information representing a human body part in the medical image. The selection accepting unit accepts selection with regard to the medical image stored in the storage unit. The part identifying unit identifies the body part included in the medical image, using the body part information corresponding to the medical image regarding which the selection accepting unit has accepted selection. The screen generating unit generates a screen that can accept a commission to form a formed object of the body part identified by the part identifying unit.
Abstract: A medical image processing system that can accept commissions to perform 3D formation using a 3D forming apparatus includes a storage unit, a selection accepting unit, a part identifying unit, and a screen generating unit. The storage unit stores a medical image, and body part information representing a human body part in the medical image. The selection accepting unit accepts selection with regard to the medical image stored in the storage unit. The part identifying unit identifies the body part included in the medical image, using the body part information corresponding to the medical image regarding which the selection accepting unit has accepted selection. The screen generating unit generates a screen that can accept a commission to form a formed object of the body part identified by the part identifying unit.
Abstract: A medical image processing system that can accept commissions to perform 3D formation using a 3D forming apparatus includes a storage unit, a selection accepting unit, a part identifying unit, and a screen generating unit. The storage unit stores a medical image, and body part information representing a human body part in the medical image. The selection accepting unit accepts selection with regard to the medical image stored in the storage unit. The part identifying unit identifies the body part included in the medical image, using the body part information corresponding to the medical image regarding which the selection accepting unit has accepted selection. The screen generating unit generates a screen that can accept a commission to form a formed object of the body part identified by the part identifying unit.
Abstract: A medical image processing system that can accept commissions to perform 3D formation using a 3D forming apparatus includes a storage unit, a selection accepting unit, a part identifying unit, and a screen generating unit. The storage unit stores a medical image, and body part information representing a human body part in the medical image. The selection accepting unit accepts selection with regard to the medical image stored in the storage unit. The part identifying unit identifies the body part included in the medical image, using the body part information corresponding to the medical image regarding which the selection accepting unit has accepted selection. The screen generating unit generates a screen that can accept a commission to form a formed object of the body part identified by the part identifying unit.
Abstract: The present invention provides a medical image processing method, which comprises following steps of: receiving a three-dimensional model image file and at least one medical record data by a medical image processing device; creating a three-dimensional medical file based on the three-dimensional model image file and the at least one medical record data, wherein the three-dimensional medical file conforms to a digital imaging and communications in medicine standard; transmitting the three-dimensional medical file to a medical picture archiving and communication system; retrieving the three-dimensional medical file from the medical picture archiving and communication system by a three-dimensional medical image browsing device which is a non-workstation computer device loaded with a viewer software; and displaying the three-dimensional medical file.
Abstract: The present invention provides improved medical imaging apparatuses, systems and methods, especially those using ultrasonography. For example, an imaging system can include a transducer, a scanner, a signal processing unit, and a display unit. The scanner, coupled to the transducer, can convert analog signals to a plurality of digital signals. The signal processing unit, coupled to the scanner, can be configured to: receive the plurality of digital signals; multiply a first magnitude estimate of the plurality of digital signals by a probability that an actual magnitude of the plurality of digital signals is greater than zero to determine a second magnitude; and form an image based on the second magnitude estimate. The display unit displays the image. The present invention also provides for products produced by the methods of the present invention and for apparatuses used to perform the methods of the present invention.
Abstract: The present invention provides improved medical imaging apparatuses, systems and methods, especially those using ultrasonography. For example, an imaging system can include a transducer, a scanner, a signal processing unit, and a display unit. The scanner, coupled to the transducer, can convert analog signals to a plurality of digital signals. The signal processing unit, coupled to the scanner, can be configured to: receive the plurality of digital signals; multiply a first magnitude estimate of the plurality of digital signals by a probability that an actual magnitude of the plurality of digital signals is greater than zero to determine a second magnitude; and form an image based on the second magnitude estimate. The display unit displays the image. The present invention also provides for products produced by the methods of the present invention and for apparatuses used to perform the methods of the present invention.
Abstract: [Object] The invention is intended to provide a medical image processing apparatus in which improvement of accuracy of boundary detection of a heart is achieved. [Solving Means] A medical image processing apparatus acquires volume data of a heat, detects a three-dimensional left ventricle coordinate system composed of three axes including at least a left ventricle long axis of the heart from the volume data; uses a boundary model expressed in the left ventricle coordinate system and detects a left ventricle boundary from the volume data, and displays a cross-sectional image orthogonal to at least one axis of the three axes of the left ventricle coordinate system together with the detected left ventricle boundary on the cross-sectional image.
Type:
Grant
Filed:
May 11, 2012
Date of Patent:
October 6, 2015
Assignees:
Kabushiki Kaisha Toshiba, Toshiba Medical Systems Corporation
Abstract: [Object] The invention is intended to provide a medical image processing apparatus in which improvement of accuracy of boundary detection of a heart is achieved. [Solving Means] A medical image processing apparatus acquires volume data of a heat, detects a three-dimensional left ventricle coordinate system composed of three axes including at least a left ventricle long axis of the heart from the volume data; uses a boundary model expressed in the left ventricle coordinate system and detects a left ventricle boundary from the volume data, and displays a cross-sectional image orthogonal to at least one axis of the three axes of the left ventricle coordinate system together with the detected left ventricle boundary on the cross-sectional image.
Type:
Application
Filed:
May 11, 2012
Publication date:
August 7, 2014
Applicants:
Toshiba Medical Systems Corporation, Kabushiki Kaisha Toshiba
Abstract: An image processing system according to an embodiment includes a first image creating unit, a second image creating unit, and a display controller. The first image creating unit creates a first image by performing a rendering processing on volume data which is three-dimensional medical image data. The second image creating unit creates a second image having a different stereoscopic effect from the first image by performing the rendering processing on the volume data. The display controller that controls to display the first image and the second image in a designated region that is designated in a display surface of a display unit and a background region other than the designated region, respectively.
Type:
Application
Filed:
June 7, 2012
Publication date:
December 13, 2012
Applicants:
TOSHIBA MEDICAL SYSTEMS CORPORATION, KABUSHIKI KAISHA TOSHIBA
Abstract: An image processing system according to an embodiment includes a first image creating unit, a second image creating unit, and a display controller. The first image creating unit creates a first image by performing a rendering processing on volume data which is three-dimensional medical image data. The second image creating unit creates a second image having a different stereoscopic effect from the first image by performing the rendering processing on the volume data. The display controller that controls to display the first image and the second image in a designated region that is designated in a display surface of a display unit and a background region other than the designated region, respectively.
Type:
Grant
Filed:
June 7, 2012
Date of Patent:
November 11, 2014
Assignees:
Kabushiki Kaisha Toshiba, Toshiba Medical Systems Corporation
Abstract: An ultrasonic image processing system comprising: a data receiving module for acquiring multiple sets of three-dimensional image data corresponding to a single target tissue; an image analyzing module for dividing, on the basis of any one group of the multiple sets of three-dimensional image data, a target region to obtain a three-dimensional volume structure boundary of the target region, and a safety boundary generated by outward expansion or inward contraction along the three-dimensional volume structure boundary; an image mapping module for establishing a spatial mapping relation between the multiple sets of three-dimensional image data, and according to the spatial mapping relation, mapping the three-dimensional volume structure boundary and the safety boundary of the target region to the other sets of three-dimensional image data; and an image marking module for marking, in a displayed image, corresponding three-dimensional volume structure boundaries and safety boundaries of the target region in the mu
Abstract: An embodiment of the present invention provides a medical apparatus which displays an image of an object collected by using a first radiography system and a second radiography system, including: an image processing unit adapted to acquire a three-dimensional image; a projection direction input unit used to input a projection direction for at least one of the first radiography system and the second radiography system using the three-dimensional image; an imaging direction setting unit adapted to set an imaging direction for at least one of the first radiography system and the second radiography system based on the projection direction; and an interference checking unit adapted to determine whether interference between the first radiography system and the second radiography system will occur if one of the first radiography system and the second radiography system corresponding to the set imaging direction is moved.
Type:
Application
Filed:
August 18, 2010
Publication date:
February 24, 2011
Applicants:
Kabushiki Kaisha Toshiba, TOSHIBA MEDICAL SYSTEMS CORPORATION
Abstract: An embodiment of the present invention provides a medical apparatus which displays an image of an object collected by using a first radiography system and a second radiography system, including: an image processing unit adapted to acquire a three-dimensional image; a projection direction input unit used to input a projection direction for at least one of the first radiography system and the second radiography system using the three-dimensional image; an imaging direction setting unit adapted to set an imaging direction for at least one of the first radiography system and the second radiography system based on the projection direction; and an interference checking unit adapted to determine whether interference between the first radiography system and the second radiography system will occur if one of the first radiography system and the second radiography system corresponding to the set imaging direction is moved.
Type:
Grant
Filed:
August 18, 2010
Date of Patent:
September 2, 2014
Assignees:
Kabushiki Kaisha Toshiba, Toshiba Medical Systems Corporation
Abstract: A radiological image diagnostic system is provided with a radiation generating unit, a radiation detecting unit, a clipping-correction unit and an image reconfiguration unit. The radiation generating unit generates a radiation. The radiation detecting unit detects the radiation from the radiation generating unit. The clipping-correction unit applies a clipping process to a radiation detected value by the radiation detecting unit and applies a mean value correction process to data acquired based upon the radiation detected value so that the separation of the local mean of the data acquired based upon the radiation detected value before and after the clipping process is reduced. The image reconfiguration unit generates an image using data acquired based upon a radiation detected value after the clipping process and after the mean value correction process.
Type:
Application
Filed:
March 7, 2005
Publication date:
September 15, 2005
Applicants:
Kabushiki Kaisha Toshiba, TOSHIBA MEDICAL SYSTEMS CORPORATION
Abstract: A radiological image diagnostic system is provided with a radiation generating unit, a radiation detecting unit, a clipping-correction unit and an image reconfiguration unit. The radiation generating unit generates a radiation. The radiation detecting unit detects the radiation from the radiation generating unit. The clipping-correction unit applies a clipping process to a radiation detected value by the radiation detecting unit and applies a mean value correction process to data acquired based upon the radiation detected value so that the separation of the local mean of the data acquired based upon the radiation detected value before and after the clipping process is reduced. The image reconfiguration unit generates an image using data acquired based upon a radiation detected value after the clipping process and after the mean value correction process.
Type:
Grant
Filed:
March 7, 2005
Date of Patent:
February 24, 2009
Assignees:
Kabushiki Kaisha Toshiba, Toshiba Medical Systems Corporation
Abstract: The invention relates to a method for providing computing resources for at least one medical imaging system and/or image processing system and to a medical imaging system and/or image processing system, a computer program and a machine-readable storage medium. The imaging system and/or image processing system exchanges (4) data via a local network (1), wherein the computing resources are provided locally on at least one computer (2) which is assigned to the imaging system and/or image processing system and/or are provided centrally for all imaging systems and/or imaging processing systems connected via the local network (1) on at least one computer (2) which is disposed in at least one Cloud (3), so that the computing resources can be shared (5), if necessary temporarily, between the imaging systems and/or image processing system. Thus sufficient computing resources are provided to prevent performance bottlenecks and also to make local software upgrades superfluous.
Abstract: An information processing apparatus includes a report acquisition unit adapted to acquire report information including a region of interest in a medical image and comment information associated with the region of interest, a related region acquisition unit adapted to acquire a region related to the region of interest in the medical image, a determination unit adapted to determine a display position of a display region of the comment information so as not to make the display region of the comment information overlap the related region, and a display control unit adapted to display the medical image including the comment information so that the comment information is displayed at the determined display position of the display region on a display unit.