The present disclosure generally relates to vehicle remote parking assistance, and, more specifically, systems and methods for determining a distance between a vehicle and a mobile device during a remote parking procedure. In particular, the systems and methods include selecting a camera lens or focal length for use with a first method of determining a distance between a vehicle and a mobile device based on an image of the vehicle and a digital model of the vehicle.

An image processing part applies an image process by software to a surgical region image, and a display control part controls a display of the surgical region image to which the image process is applied. The image processing part produces a pre-update processed image acquired by applying the image process established before updating the software to the surgical region image and a post-update processed image acquired by applying the image process established after updating the software to the surgical region image, and the display control part controls a display of at least a portion of at least either one of the pre-update processed image or the post-update processed image. The present technique is applicable to a CCU of an endoscopic surgery system.

An electronic apparatus includes: a processor; and a memory storing a program which, when executed by the processor, causes the electronic apparatus to: receive an instruction to perform image capturing preparation processing; control to display a captured image which is captured by an image pickup element but not to display a first item to indicate setting information related to image capturing and a second item to indicate information related to a result of the image capturing preparation processing, on a display, in a case of a first state including a state of not receiving the instruction; and control to display, 1) the second item at a position corresponding to the result of the image capturing preparation processing and 2) the first item, along with the captured image, on the display, in a case where the instruction is received.

An apparatus and a method are achieved in which guide information for enabling a high-quality composite image to be captured is output. Included are a composite image generation unit that performs a process of combining a color image and a black-and-white image captured from different viewpoints, to generate a composite image, and a display information control unit that performs control such that auxiliary information regarding the composite image is displayed on a display unit. In a case where a subject is too close or in a case where a high-quality composite image cannot be generated due to an obstacle, the display information control unit outputs a proximity alert or an obstacle alert as warning information, and also displays a composite image adaptation level. Moreover, a composite image, a color image, and the like are displayed in parallel so that a user can select an image to be recorded.

To prevent the capture and transmission of excluded data, the current pose and motion of a video camera are used to predict a pose and predicted FOV for the video camera over one or more future frames. The predicted pose and predicted FOV are used to generate cues to enforce an alignment condition to an allowed object or to prevent capture of a disallowed object. If the cues fail, an interrupt is generated to prevent capture of disallowed objects in the video signal and perhaps to deactivate the video camera. The predicted FOV prevents excluded data from entering the video signal and reaching circuitry or being processed downstream of the video camera. This can be implemented in real or near real time.

There is provided an accuracy estimation apparatus. An obtainment unit obtains a shooting condition for a plurality of parallax images that mutually exhibit parallax. Based on the shooting condition, an estimation unit estimates an accuracy of dimension measurement that is performed using the plurality of parallax images.

A shutter operation state monitoring method performed in a thermal imaging camera includes, controlling a shutter of the thermal imaging camera to be closed, capturing a first thermal image, calculating a correction offset value for the first thermal image, controlling the shutter to be opened, capturing a second thermal image, applying the correction offset value to the second thermal image, measuring a sound with a microphone when controlling the shutter to be closed and/or when controlling the shutter to be opened, determining whether the measured sound matches an operation sound of the shutter, and outputting an alarm indicating malfunction of the shutter if the measured sound does not match the operation sound.

An information processing apparatus includes an acquisition unit configured to acquire a plurality of first captured images acquired in a plurality of first image capturing operations based on a first imaging parameter, and motion information for a subject in the plurality of first captured images, a setting unit configured to set a second imaging parameter, an estimation unit configured to estimate, based on the motion information and the second imaging parameter, a motion blur of a subject in a second captured image acquired when a second image capturing is performed based on the second imaging parameter and a notification unit configured to notify of the motion blur. The motion blur is a statistic of a motion blur in each of the plurality of first captured images.

The image pickup apparatus, a control method therefor, and a storage medium capable of maintaining detection accuracy of a line-of-sight position at the time of calibration even in a case where a focus controllable range changes due to a difference in a detachably mounted accessory. At a camera housing 1B, correction information about an individual difference of an eyeball is acquired by calibration based on a display position of an index in a finder thereof and a position of line-of-sight, of a user, detected by a line-of-sight detection circuit 201, the position of line-of-sight being poured into the index, and correction of the detected position of line-of-sight is performed using the correction information. Then, a position of line-of-sight, of the user, detected by the line-of-sight detection circuit 201, the line-of-sight position being poured into a through image is set to a focal frame. When one of the accessories is mounted thereon, a method for the calibration is changed according to a focus detection region acquired from the mounted accessory.

The disclosure relates to a method for processing video data, apparatus, electronic equipment, and storage medium. The method for processing video data can include switching to a target anti-shake processing mode in response to acquiring a switching operation, the target anti-shake processing mode including at least one of following modes that are different from an anti-shake off mode: a first anti-shake processing mode, and a second anti-shake processing mode; acquiring a video editing operation corresponding to the target anti-shake processing mode, a video editing operation corresponding to the first anti-shake processing mode being different from a video editing operation corresponding to the second anti-shake processing mode; obtaining target video data by processing video data based on the video editing operation, different video editing operations comprising operations which crop each frame of the video data with different aspect ratio; and outputting the target video data.