Abstract: To establish a wireless connection to a desired radio network by preventing a user from erroneously connecting to another radio network without a special operation in a radiation imaging system.

Abstract: A radiographic imaging control apparatus includes a control unit, a setting unit, and an obtaining unit. The control unit performs a first control to cause a radiation sensor to transit into a state where electric charges can be stored if it is determined that a predetermined standby time elapses and performs a second control to cause the radiation sensor to transit into the state where electric charges can be stored in response to a signal received from a detection unit configured to detect start of a generation of radioactive rays. The setting unit designates either the first control or the second control as a control to be performed. The obtaining unit acquires radiation image data from the radiation sensor.

Abstract: A radiographic imaging system, which includes a plurality of radiographic imaging apparatuses each configured to acquire a radiographic image and a processing unit configured to combine a plurality of the radiographic images acquired from the plurality of radiographic imaging apparatuses to generate a stitched image, includes a correction image data determination unit configured to determine correction image data based on an irradiation condition of radiation to be emitted from the radiation source, and an image correction unit configured to correct an area of the stitched image corresponding to an area in which the plurality of radiographic imaging apparatuses overlap, by using the correction image data.

Abstract: A radiographic imaging control apparatus includes a control unit, a setting unit, and an obtaining unit. The control unit performs a first control to cause a radiation sensor to transit into a state where electric charges can be stored if it is determined that a predetermined standby time elapses and performs a second control to cause the radiation sensor to transit into the state where electric charges can be stored in response to a signal received from a detection unit configured to detect start of a generation of radioactive rays. The setting unit designates either the first control or the second control as a control to be performed. The obtaining unit acquires radiation image data from the radiation sensor.

Abstract: A radiographic imaging control apparatus includes a control unit, a setting unit, and an obtaining unit. The control unit performs a first control to cause a radiation sensor to transit into a state where electric charges can be stored if it is determined that a predetermined standby time elapses and performs a second control to cause the radiation sensor to transit into the state where electric charges can be stored in response to a signal received from a detection unit configured to detect start of a generation of radioactive rays. The setting unit designates either the first control or the second control as a control to be performed. The obtaining unit acquires radiation image data from the radiation sensor.

Abstract: A radiographic imaging system, which includes a plurality of radiographic imaging apparatuses each configured to acquire a radiographic image and a processing unit configured to combine a plurality of the radiographic images acquired from the plurality of radiographic imaging apparatuses to generate a stitched image, includes a correction image data determination unit configured to determine correction image data based on an irradiation condition of radiation to be emitted from the radiation source, and an image correction unit configured to correct an area of the stitched image corresponding to an area in which the plurality of radiographic imaging apparatuses overlap, by using the correction image data.

Abstract: In transfer of image data (such as an X-ray image), if for example a transfer error occurs, a retransmission timeout time limit for an item of image data that is to be transferred last, in a time sequence of image data transfer, is set to be different from a retransmission timeout time limit for at least one other item of image data which is to be transferred.

Abstract: A radiographic imaging control apparatus includes a control unit, a setting unit, and an obtaining unit. The control unit performs a first control to cause a radiation sensor to transit into a state where electric charges can be stored if it is determined that a predetermined standby time elapses and performs a second control to cause the radiation sensor to transit into the state where electric charges can be stored in response to a signal received from a detection unit configured to detect start of a generation of radioactive rays. The setting unit designates either the first control or the second control as a control to be performed. The obtaining unit acquires radiation image data from the radiation sensor.

Abstract: A brightness control unit includes: a “feedback brightness control unit” that calculates a first gain from a corrected image data and multiplies the first gain by image data prior to correct; and a “feedforward brightness control unit” which, when a scene change is detected, calculates a second gain on the basis of a difference between the first gain which is calculated from the corrected image data and the first gain which has been multiplied by the pre-correction image data of the corrected image data in order to correct the difference, and multiplies the second gain by the corrected image data.

Abstract: For image data being transferred last of a plurality of image data captured in a first imaging mode, a retransmission timeout time is set different from a retransmission timeout time for at least one image data different from image data, of the plurality of image data, which is transferred last.

Abstract: A brightness control unit includes: a “feedback brightness control unit” that calculates a first gain from a corrected image data and multiplies the first gain by image data prior to correct; and a “feedforward brightness control unit” which, when a scene change is detected, calculates a second gain on the basis of a difference between the first gain which is calculated from the corrected image data and the first gain which has been multiplied by the pre-correction image data of the corrected image data in order to correct the difference, and multiplies the second gain by the corrected image data.