Embodiments provide a stationary X-ray source for a multisource X-ray imaging system for tomographic imaging. The stationary X-ray source includes an array of thermionic cathodes and, in most embodiments a rotating anode. The anode rotates about a rotation axis, however the anode is stationary in the horizontal or vertical dimensions (e.g. about axes perpendicular to the rotation axis). The elimination of mechanical motion improves the image quality by elimination of mechanical vibration and source motion; simplifies system design that reduces system size and cost; increases angular coverage with no increase in scan time; and results in short scan times to, in medical some medical imaging applications, reduce patient-motion-induced blurring.

In an X-ray dose management system, a dental radiograph device includes an imaging condition setter, an output information creator, and an information communicator that sends the output information to a wireless tag. An X-ray imaging element includes an X-ray image information obtainer and a wireless tag. An information reading device includes an output information reader and an information communicator that sends the read output information to an information terminal. The information terminal includes a patient information retriever that retrieves patient information from a patient information storage, a communicator that receives the output information, and an output information processor that records the output information and the patient information in association with each other in the patient information storage.

A system according to at least one embodiment of the present disclosure includes an imaging source; an imaging detector; a sensor coupled to at least one of the imaging source and imaging detector; and a controller that adjusts a relative position of the imaging source and the imaging detector based on an output of the sensor.

Disclosed herein are an X-ray input apparatus capable of exactly reflecting an operator's intention to perform calibration control, an X-ray imaging apparatus including the X-ray input apparatus, and a method of controlling the X-ray input apparatus. In accordance with an aspect of the present disclosure, an X-ray input apparatus comprises a body configured to be accommodated in a holder of an X-ray imaging apparatus. The apparatus also includes a touch sensor disposed on an outer circumferential surface of the body and configured to sense a touch. The apparatus also includes a radiation button disposed on a top of the body and configured to receive a control command from an operator. The apparatus also includes an input controller configured to perform calibration control when the body is accommodated in the holder, thereby deciding a capacitance threshold value of the touch sensor.

A control system (10) for controlling a medical imaging device (12) includes: an electronic controller (18) including controller memory (26) and a controller display (24). The electronic controller is operatively connected to control the medical imaging device and programmed to: store a controller state (30) in the controller memory; execute imaging device setup software (38) to cause the electronic controller to provide a setup user interface (28) on the electronic controller via which a user configures the controller state stored in the controller memory; and execute control software (40) to cause the electronic controller to control the medical imaging device to acquire images (36) in accordance with the controller state stored in the controller memory. A remote computer (18′) includes remote computer memory (26′) and a remote computer display (24′). The remote computer not operatively connected to control the medical imaging device and programmed to: receive the controller state from the electronic controller via an electronic network (46) and store the received controller state in the remote computer memory, execute the imaging device setup software to cause the remote computer to provide the setup user interface on the remote computer via which a remote user configures the controller state stored in the remote computer memory thereby creating controller state modifications (30′), and transfer the controller state modifications to the electronic controller. The electronic controller is further programmed to update the controller state stored in the controller memory with the controller state modifications.

An X-ray imaging apparatus includes an X-ray source, an X-ray imaging panel, and a controller. The controller includes an image processing unit that generates an inspection image in accordance with a data signal read from a thin-film transistor with the thin-film transistor supplied with a gate signal, a detection control unit that detects a dark-spot pixel from the inspection image, and a threshold correction unit that applies, to a gate of the thin-film transistor corresponding to the dark-spot pixel, a positive shift voltage that raises a gate-off threshold voltage of the thin-film transistor.

A system according to at least one embodiment of the present disclosure includes an imaging source; an imaging detector; a depth sensor; and a controller, where the controller receives image information from the depth sensor, determines a gesture in relation to a working volume, and moves the imaging source and the imaging detector relative to the working volume based on the gesture.

A remote diagnostic monitoring and control of physical components of a particle accelerator system has a particle emitting system located at a first physical site and includes one or more particle emitting system components to operate the particle emitting system, a particle delivery system located at the first physical site and including one or more particle delivery system components to operate the particle delivery system, a particle system gateway located at the first physical site and operatively coupled to the particle emitting system components and the particle delivery system components by a first network interface, and a diagnostic monitoring system located at a second physical site remote from the first physical site, operatively coupled to the particle system gateway by a second network interface, and operable to monitor one or more first operating states corresponding to one or more of the particle emitting system components and one or more second operating states corresponding to one or more of the particle delivery system components, and a diagnostic control system located at the second physical site, operatively coupled to the particle system gateway by a third network interface, and operable to modify one or more of the first operating states of the one or more particle emitting system components and the second operating states the one or more particle delivery system components.

A mobile medical imaging device that allows for multiple support structures, such as a tabletop or a seat, to be attached, and in which the imaging gantry is indexed to the patient by translating up and down the patient axis. In one embodiment, the imaging gantry can translate, rotate and/or tilt with respect to a support base, enabling imaging in multiple orientations, and can also rotate in-line with the support base to facilitate easy transport and/or storage of the device. The imaging device can be used in, for example, x-ray computed tomography (CT) and/or magnetic resonance imaging (MRI) applications.

Methods for co-registering images of different imaging modalities include obtaining a photograph and a medical image, maximizing mutual information between the photograph and the medical image, automatically locating features common to both the photograph and the medical image based on maximized mutual information between the photograph and the medical image, and automatically highlighting the located features within the photograph or medical image.