Abstract: A user interface unit having first and second input devices arranged on both surfaces of a display device is provided. The hardware processor of a terminal apparatus body determines whether a touch operation has been performed on only one of the first and second input devices or has been simultaneously performed on both the first and second input devices on the basis of respective detection signals output from the first and second input devices, and selectively performs the first processing and the second processing according to a determination result.

Abstract: A user interface unit having first and second input devices arranged on both surfaces of a display device is provided. The hardware processor of a terminal apparatus body determines whether a touch operation has been performed on only one of the first and second input devices or has been simultaneously performed on both the first and second input devices on the basis of respective detection signals output from the first and second input devices, and selectively performs the first processing and the second processing according to a determination result.

Abstract: An information presentation apparatus according to an embodiment includes a processor, the processor being configured to perform first extraction processing to extract a region in which an object is displayed on a display screen on which an image is displayed, perform second extraction processing to extract a plurality of display candidate regions that are candidates for a region in which synthesized information to be synthesized with the image is displayed from regions other than the region extracted by the first extraction processing on the display screen, perform selection processing to select an optimum one of the regions extracted by the second extraction processing as a region in which the synthesized information is displayed on the display screen, and perform display processing to display the synthesized information in the region selected by the selection on the display screen.

Abstract: In one aspect of the present invention, when reset of a camera is received, a pan motor and a tilt motor of a pan and tilt mechanism are rotated in a first preset rotation direction, and the pan and tilt mechanism is first moved to a pan reference position and a tilt reference position. Thereafter, the pan motor and the tilt motor are rotated in a second rotation direction opposite to the first rotation direction, and the pan and tilt mechanism is moved to an initial pan position and an initial tilt position. Using a movement of the pan and tilt mechanism to initial pan and tilt positions, detection of a subject for automatic tracking is performed, and if the subject is detected, then transition to an automatic tracking state is caused to occur.

Abstract: An imaging control device according to an aspect of the present invention includes a rotation instruction input unit that receives an input of an instruction of rotation of a pan and tilt mechanism of a camera, a rotation instruction output unit that outputs the rotation instruction to the camera, an image input unit that receives a live view image according to the rotation instruction from the camera, and a display control unit that causes the display unit to perform a display for superimposing the live view image input from the camera on a limit display image of a two-dimensionally displayed spherical surface indicating an imagable region and a non-imagable region respectively corresponding to within a rotation limit and out of the rotation limit of the imaging unit of the camera, and rotating the limit display image along the two-dimensionally displayed spherical surface according to the input of the rotation instruction.

Abstract: An imaging control device according to an aspect of the present invention comprises a motion vector calculation unit that calculates a motion vector of a tracking target on the basis of a moving image obtained by an imaging unit, a tracking direction instruction input unit that receives an input of a tracking direction instruction indicating a specific tracking direction for tracking the tracking target, a tracking direction motion component extraction unit that extracts a motion component in the specific tracking direction from the motion vector of the tracking target on the basis of the tracking direction instruction; and a drive information generation unit that generates drive information of only the specific tracking direction of a pan and tilt mechanism on the basis of the extracted motion component in the specific tracking direction.

Abstract: A camera apparatus (10) includes a degraded region information storage unit (24) that stores degraded region information for each direction in which degraded region data and an imaging direction are associated with each other, a direction recognition unit (30) that recognizes the imaging direction, and an image correction unit (32) that acquires degraded region data which is associated with the imaging direction recognized by the direction recognition unit (30) on the basis of the degraded region information for each direction and performs an image quality improvement process for the image data on the basis of a peculiar degraded region indicated by the degraded region data. The peculiar degraded region is a region related to a degradation element which is caused by at least one of the dome cover or the optical system and is based on at least one of a spatial frequency or signal intensity.

Abstract: In one aspect of the present invention, when reset of a camera is received, a pan motor and a tilt motor of a pan and tilt mechanism are rotated in a first preset rotation direction, and the pan and tilt mechanism is first moved to a pan reference position and a tilt reference position. Thereafter, the pan motor and the tilt motor are rotated in a second rotation direction opposite to the first rotation direction, and the pan and tilt mechanism is moved to an initial pan position and an initial tilt position. Using a movement of the pan and tilt mechanism to initial pan and tilt positions, detection of a subject for automatic tracking is performed, and if the subject is detected, then transition to an automatic tracking state is caused to occur.

Abstract: An imaging device (pan/tilt camera) includes an imaging unit including an imaging lens and an imaging element, a pan/tilt mechanism that rotates the imaging unit in the horizontal direction and the vertical direction with respect to a camera body, an object detection unit that detects an object, which is a tracking target, from a moving image captured by the imaging unit, a pan/tilt control unit that controls the pan/tilt mechanism such that the object detected by the object detection unit is tracked, a motion sensor that detects a physical amount related to the movement of the camera body, and an operation control unit that stops the pan/tilt mechanism in a case in which the physical amount detected by the motion sensor is equal to or greater than a first threshold value.

Abstract: In one aspect of the present invention, when reset of a camera is received, a pan motor and a tilt motor of a pan and tilt mechanism are rotated in a first preset rotation direction, and the pan and tilt mechanism is first moved to a pan reference position and a tilt reference position. Thereafter, the pan motor and the tilt motor are rotated in a second rotation direction opposite to the first rotation direction, and the pan and tilt mechanism is moved to an initial pan position and an initial tilt position. Using a movement of the pan and tilt mechanism to initial pan and tilt positions, detection of a subject for automatic tracking is performed, and if the subject is detected, then transition to an automatic tracking state is caused to occur.

Abstract: A multi-imaging apparatus includes: a display unit; an internal imaging device that acquires a first live view image or a first image captured by a main imaging operation thereof; a wireless communication unit that performs wireless communication with an external imaging device that acquires a second live view image or a second image captured by a main imaging operation thereof; and a controller. Here, the controller receives an input of the first live view image from the internal imaging device, receives the second live view image from the external imaging device through the wireless communication unit, and causes the display unit to display the input first live view image and the received second live view image as a multi-live view.

Abstract: A live view control device according to an aspect of the present invention includes a display control unit that displays each of a plurality of live view images received from a plurality of imaging devices in each of a plurality of areas of a display screen, a priority setting unit that sets a priority of the plurality of live view images, a transfer condition setting unit that sets transfer conditions including at least one of a frame rate of transfer and an image size of the transfer of the plurality of live view images on the basis of the priority of the plurality of live view images, and a communication control unit that transmits a transfer instruction for a live view image according to the set transfer conditions to the plurality of imaging devices via the wireless communication unit.

Abstract: In an aspect of the present invention, assignment and a rotation direction of a pan motor and a tilt motor of each key of a cross key are set on the basis of the installation posture of the camera. Accordingly, it is possible to operate the cross key without discomfort when the camera is caused to perform a pan operation or a tilt operation using the cross key. Further, if the camera is caused to perform the pan operation using the cross key and a specific condition under which a video rotates is discriminated from a tilt angle, a display of a corresponding icon of the cross key is switched from a first icon indicating an up and down direction or a left and right direction to a second icon indicating a rotation direction. Accordingly, it is possible not to cause discomfort even when a video rotates.

Abstract: A smartphone which functions as a moving editing device includes: a wireless communication unit that is connected to plural cameras capable of performing moving image capturing in a wireless manner and acquires one or plural live view images from the plural cameras; a display panel that displays the acquired one or plural live view images; an operation panel that performs switching between live view images displayed on the display panel by a manual operation; a storage unit that stores operation history information indicating an operation history in the operation panel; and a main controller which functions as a moving image editing unit that performs moving image editing for automatically creating, after the moving image capturing in the plural cameras is terminated, one moving image based on plural moving images respectively captured by the plural cameras and the operation history information stored in the storage unit.

Abstract: Provided are an imaging device operation device, an operation method, and a program that can simply and rapidly operate a pan/tilt mechanism such that an imaging unit is located at a desired position. A pan/tilt operation device includes a touch panel in which a touch centering detection region is set, predetermined pan angle rotation instruction regions are set on the left and right sides of the touch centering detection region, and predetermined tilt angle rotation instruction regions are set on the upper and lower sides of the touch centering detection region, a touch centering instruction unit, a predetermined pan angle rotation instruction unit that outputs an instruction to pan a pan/tilt mechanism at a predetermined pan angle, and a predetermined tilt angle rotation instruction unit that outputs an instruction to tilt the pan/tilt mechanism at a predetermined tilt angle.

Abstract: A live view control device according to an aspect of the present invention includes a radio wave intensity detection unit that detects radio wave intensity with respect to each of a plurality of imaging devices, a priority setting unit that sets a priority of a plurality of live view images on the basis of the detected radio wave intensity, a transfer condition setting unit that sets transfer conditions including at least one of a frame rate of transfer and an image size of the transfer of each of the plurality of live view images on the basis of the priorities of the plurality of live view images, and a communication control unit that transmits the set transfer conditions to the plurality of imaging devices via a wireless communication unit.

Abstract: An imaging control device 100 includes a control communication unit 110 that communicates with a plurality of imaging devices and an overall control unit 101. The overall control unit 101 transmits an imaging preparation command to prepare imaging to each of the plurality of imaging devices 10 through the control communication unit 110 in response to an instruction received through an instruction receiving unit, receives preparation completion information indicating the completion of preparation for imaging from each of the plurality of imaging devices 10 through the control communication unit 110, and transmits a captured image acquisition command to acquire a captured image to each of the plurality of imaging devices 10 through the control communication unit 110 after receiving the preparation completion information from the plurality of imaging devices 10.

Abstract: A camera apparatus (10) includes a degraded region information storage unit (24) that stores degraded region information for each direction in which degraded region data and an imaging direction are associated with each other, a direction recognition unit (30) that recognizes the imaging direction, and an image correction unit (32) that acquires degraded region data which is associated with the imaging direction recognized by the direction recognition unit (30) on the basis of the degraded region information for each direction and performs an image quality improvement process for the image data on the basis of a peculiar degraded region indicated by the degraded region data. The peculiar degraded region is a region related to a degradation element which is caused by at least one of the dome cover or the optical system and is based on at least one of a spatial frequency or signal intensity.

Abstract: On the basis of the image data obtained by the image data acquisition section, a target luminance calculation section calculates a target luminance, which is a target value for the luminance of emitted light for each segment region. An inverse filter acquisition section acquires an inverse filter of a light emission distribution function which represents light emission distribution characteristics of the light source for each segment region. A setting value calculation section calculates a setting value for the luminance of emitted light of the light source for each segment region by performing a convolution operation on the target luminance for each segment region with the inverse filter. On the basis of the setting value for each segment region calculated by the setting value calculation section, a light source control section controls the luminance of emitted light of the light source for each segment region.

Abstract: A multi-imaging apparatus includes: a display unit; an internal imaging device that acquires a first live view image or a first image captured by a main imaging operation thereof; a wireless communication unit that performs wireless communication with an external imaging device that acquires a second live view image or a second image captured by a main imaging operation thereof; and a controller. Here, the controller receives an input of the first live view image from the internal imaging device, receives the second live view image from the external imaging device through the wireless communication unit, and causes the display unit to display the input first live view image and the received second live view image as a multi-live view.