Abstract: A system for imaging a subject is provided. The system includes a radiation source, a radiation detector, and a controller. The radiation source is operative to transmit electromagnetic rays through the subject. The radiation detector is operative to receive the electromagnetic rays after having passed through the subject so as to generate a plurality of projections of the subject. The controller is operative to display one or more selectively adjustable markers that define an image stack. The controller is further operative to reconstruct one or more images within the image stack based at least in part on the plurality of projections. Reconstruction of the one or more images is on demand.

Abstract: A system for imaging a subject is provided. The system includes a radiation source, a radiation detector, and a controller. The radiation source is operative to transmit electromagnetic rays through the subject. The radiation detector is operative to receive the electromagnetic rays after having passed through the subject so as to generate a plurality of projections of the subject. The controller is operative to display one or more selectively adjustable markers that define an image stack. The controller is further operative to reconstruct one or more images within the image stack based at least in part on the plurality of projections. Reconstruction of the one or more images is on demand.

Abstract: A medical imaging system capable of acquiring medical imaging data of a patient includes a console coupled to the system, the console comprising a computer programmed to enable a first user to perform a first task on the system via the console, and enable a second user to perform a second task simultaneously with the first task via a remote device.

Abstract: A user interface for a CT imaging system is disclosed. The user interface includes a first display configured to enable an operator to perform set-up and scanning tasks associated with performing a CT exam on one or more patients, with the set-up and scanning tasks including acquiring and verifying scan image data. The user interface also includes a second display configured to enable the operator to perform image post-processing tasks associated with the CT exams on the one or more patients, with the image post-processing tasks including performing image reconstructions and reformats. Each of the first display and the second display are operable independent from one another to provide for parallel workflows between the first display and second display and between the patient set-up and scanning tasks and the post-processing tasks.

Abstract: A CT user interface includes first and second displays that enable an operator to perform set-up and scanning tasks associated with performing CT scans and enable the operator to perform image post-processing tasks associated with the CT scans. A plurality of distinct display zones are selectively displayed on the first and second displays, with the first display displaying a zone enabling the operator to create a record for each of a plurality of patients, a task list zone displaying all steps and sub-steps of a CT scan to be performed for a selected patient based on a selected scan protocol, a settings zone and a scanning zone displaying and enabling operator selection of scan parameters related to the selected scan protocol for the selected patient, and a dose area zone displaying a relationship between the selected scan parameters and a radiation dosage experienced by the patient based thereon.

Abstract: A medical imaging system capable of acquiring medical imaging data of a patient includes a console coupled to the system, the console comprising a computer programmed to enable a first user to perform a first task on the system via the console, and enable a second user to perform a second task simultaneously with the first task via a remote device.

Abstract: A CT user interface includes first and second displays that selectively display distinct display zones thereon. The first display includes a zone enabling the operator to create a record for each of a plurality of patients and an exam set-up and a protocol selection zone enabling the operator to select a scan protocol for performing a CT scan on a selected patient. A task list zone on the first display displays all steps and sub-steps of a CT scan for a selected patient based on the selected scan protocol, and a settings zone and a scanning zone on the first display displays and enables operator selection of a plurality of scan parameters related to the selected scan protocol. Any general user interface elements not needed for the selected scan protocol are not displayed on the first and second displays, so as to simplify the user interface for the operator.

Abstract: A system and a method are provided that may be used to determine the suitability of a client for use in medical diagnosis. Multimedia content may be presented on the client and used to elicit responses from a user indicative of the suitability of the client for use in medical diagnosis. The elicited responses may be used to determine the suitability of the client for medical diagnosis.

Abstract: A medical imaging system capable of acquiring medical imaging data of a patient includes a console coupled to the system, the console comprising a computer programmed to enable a first user to perform a first task on the system via the console, and enable a second user to perform a second task simultaneously with the first task via a remote device.

Abstract: A user interface for a CT imaging system is disclosed. The user interface includes a first display configured to enable an operator to perform set-up and scanning tasks associated with performing a CT exam on one or more patients, with the set-up and scanning tasks including acquiring and verifying scan image data. The user interface also includes a second display configured to enable the operator to perform image post-processing tasks associated with the CT exams on the one or more patients, with the image post-processing tasks including performing image reconstructions and reformats. Each of the first display and the second display are operable independent from one another to provide for parallel workflows between the first display and second display and between the patient set-up and scanning tasks and the post-processing tasks.

Abstract: A CT user interface includes first and second displays that enable an operator to perform set-up and scanning tasks associated with performing CT scans and enable the operator to perform image post-processing tasks associated with the CT scans. A plurality of distinct display zones are selectively displayed on the first and second displays, with the first display displaying a zone enabling the operator to create a record for each of a plurality of patients, a task list zone displaying all steps and sub-steps of a CT scan to be performed for a selected patient based on a selected scan protocol, a settings zone and a scanning zone displaying and enabling operator selection of scan parameters related to the selected scan protocol for the selected patient, and a dose area zone displaying a relationship between the selected scan parameters and a radiation dosage experienced by the patient based thereon.

Abstract: A CT user interface includes first and second displays that selectively display distinct display zones thereon. The first display includes a zone enabling the operator to create a record for each of a plurality of patients and an exam set-up and a protocol selection zone enabling the operator to select a scan protocol for performing a CT scan on a selected patient. A task list zone on the first display displays all steps and sub-steps of a CT scan for a selected patient based on the selected scan protocol, and a settings zone and a scanning zone on the first display displays and enables operator selection of a plurality of scan parameters related to the selected scan protocol. Any general user interface elements not needed for the selected scan protocol are not displayed on the first and second displays, so as to simplify the user interface for the operator.

Abstract: Systems, methods and apparatus are provided through which in some embodiments healthcare imaging processing applications are allocated to computing resources in reference to criteria.

Abstract: A medical imaging system capable of acquiring medical imaging data of a patient includes a console coupled to the system, the console comprising a computer programmed to enable a first user to perform a first task on the system via the console, and enable a second user to perform a second task simultaneously with the first task via a remote device.

Abstract: A method for managing data transmission between computing devices is disclosed. In one embodiment, the method includes monitoring a plurality of parameters of a computer network that includes a server and a client. The plurality of parameters may include a client resource parameter, a server resource parameter, and a network operating parameter. The disclosed method may also include automatically determining a desired compression level at which to send data to the client based at least in part on the client resource parameter, the server resource parameter, and the network operating parameter. Further, in one embodiment the method may include communicating the data from the server to the client at the desired compression level in response to a client request for the data. Various other methods, systems, and manufactures are also disclosed.

Abstract: A system and a method are provided that may be used to determine the suitability of a client for use in medical diagnosis. Multimedia content may be presented on the client and used to elicit responses from a user indicative of the suitability of the client for use in medical diagnosis. The elicited responses may be used to determine the suitability of the client for medical diagnosis.

Abstract: A method for managing data transmission between computing devices is disclosed. In one embodiment, the method includes monitoring a plurality of parameters of a computer network that includes a server and a client. The plurality of parameters may include a client resource parameter, a server resource parameter, and a network operating parameter. The disclosed method may also include automatically determining a desired compression level at which to send data to the client based at least in part on the client resource parameter, the server resource parameter, and the network operating parameter. Further, in one embodiment the method may include communicating the data from the server to the client at the desired compression level in response to a client request for the data. Various other methods, systems, and manufactures are also disclosed.

Abstract: A method for managing medical image data transmission between computing devices is disclosed. In one embodiment, the method includes monitoring a plurality of parameters of a computer network that includes a server and a client. The plurality of parameters may include a client resource parameter, a server resource parameter, and a network operating parameter. The disclosed method may also include automatically determining a desired compression level at which to send medical image data to the client based at least in part on the client resource parameter, the server resource parameter, and the network operating parameter. Further, in one embodiment the method may include communicating the medical image data from the server to the client at the desired compression level in response to a client request for the image data. Various other methods, systems, and manufactures are also disclosed.

Abstract: A method for managing medical image data transmission between computing devices is disclosed. In one embodiment, the method includes monitoring a plurality of parameters of a computer network that includes a server and a client. The plurality of parameters may include a client resource parameter, a server resource parameter, and a network operating parameter. The disclosed method may also include automatically determining a desired compression level at which to send medical image data to the client based at least in part on the client resource parameter, the server resource parameter, and the network operating parameter. Further, in one embodiment the method may include communicating the medical image data from the server to the client at the desired compression level in response to a client request for the image data. Various other methods, systems, and manufactures are also disclosed.

Abstract: The present invention provides a system and a method for simultaneously modifying one or more angles of cross-sections in one or more cross-sectional images or stacks of images of a 3D volume. A plurality of viewports is displayed to a user. Each viewport includes a 2D cross-sectional image or stack of images and all 2D images or stacks of images are displayed simultaneously. One or more viewports may also include a control line representative of an angle of cross-section or image plane of a 2D image or stack of images displayed in another viewport. If a control line is moved in a selected viewport, the angle of cross-section or image plane of a 2D image or stack of images in another viewport is accordingly altered simultaneous with such control line movement.