Abstract: A control section generates an overhead surround view composite image by combining image data acquired by plural cameras, and, combines the image data to generate a wide-range rear image, a left rear image, a right rear image, a front image and a rear image. The control section calculates angles of view of the image data that were used in generating the wide-range rear image, the left rear image, the right rear image, the front image and the rear image, respectively. The control section displays any of the wide-range rear image, the left rear image, the right rear image, the front image and the rear image in a first display region, and displays information expressing angles of view corresponding to images displayed in the first display region in a second display region in a manner of being superimposed on the overhead surround view composite image.

Abstract: A dashboard camera device including: an imaging section configured to image rearward from a self-vehicle; a recording section configured to record a video image captured by the imaging section; a headlight-flashing detection section configured to detect illumination and blinking of a headlight of a following vehicle traveling behind the self-vehicle; and a control section configured to determine a headlight-flashing threshold value based on a travel environment of the self-vehicle, the headlight-flashing threshold value being a threshold value for a change in light intensity caused by blinking of the headlight of the following vehicle as detected by the headlight-flashing detection section, and, in a case in which a change in light intensity, due to blinking of the headlight of the following vehicle, has exceeded the headlight-flashing threshold value, the control section causes the recording section to record the video image captured by the imaging section.

Abstract: An image control system includes a rear camera, a left rear (right rear) camera, a display device, and an image control device for generating a combined image and displaying the combined image on the display device. The image control device identifies a rear target object and a left rear (right rear) target object which are closest to the vehicle in an own lane and a left lane (right lane), respectively, and changes a magnitude of the rear left-side (right-side) azimuth angle being an azimuth angle of a left (right) boundary line defining a horizontal angle of view of a rear effective range based on a combination of presence or absence of the rear target object and a level of closeness to this object and presence or absence of the left rear (right rear) target object and a level of closeness to this object.

Abstract: A control section generates an overhead surround view composite image by combining image data acquired by plural cameras, and, combines the image data to generate a wide-range rear image, a left rear image, a right rear image, a front image and a rear image. The control section calculates angles of view of the image data that were used in generating the wide-range rear image, the left rear image, the right rear image, the front image and the rear image, respectively. The control section displays any of the wide-range rear image, the left rear image, the right rear image, the front image and the rear image in a first display region, and displays information expressing angles of view corresponding to images displayed in the first display region in a second display region in a manner of being superimposed on the overhead surround view composite image.

Abstract: In a first case a trimmed image generating section carries out trimming such that respective lateral direction lengths of a rear processed image and rear lateral processed images in the combined image are equal, and in a second case in which the trimmed image generating section judges that there is information that is included in the images of the first overlapping regions and is not included in the images of the second overlapping regions and information that should be included in the combined image, the trimmed image generating section carries out trimming such that the information that should be included in the combined image remains in the rear lateral processed images, and, as compared with the first case, the lateral direction length of the rear processed image in the combined image is short, and the lateral direction lengths of the rear lateral processed images in the combined image are long.

Abstract: An electronic mirror system for a vehicle includes a rear imaging device, a left and right pair of side-rear imaging devices, a display device, an anomaly treatment device, memory, and a processor coupled to the memory. The processor causes a composite image in which a rear image and side-rear images are composited to be displayed, and detects an anomaly occurring at any one of the imaging devices. In a case in which an anomaly is detected, the processor generates a substitute image based on a captured image captured by another of the imaging devices, and causes the substitute image to be displayed. And, in a case in which the one of the imaging devices at which the anomaly is detected, is restored to the normal state by the anomaly treatment device, the processor causes the composite image to be displayed instead of the substitute image.

Abstract: A vehicle periphery monitoring device includes a plurality of sensors including a rear camera, a rear right-side camera, and a rear left-side camera, a display unit that is provided inside a vehicle cabin, memory, and a processor that is coupled to the memory.

Abstract: A display device for a vehicle, including: a rear imaging section that captures a rear image; a rear lateral imaging section that captures rear lateral images; and a control section that generates a combined image in which a rear processed image obtained by processing the rear image with a first parameter, and rear lateral processed images obtained by processing rear lateral images with a second parameter, are combined, wherein the control section further identifies an object existing in the rear image or the rear lateral images; acquires relative information including relative position and relative speed of the object with respect to the vehicle, and blind spot regions of the combined image; and, based thereon, if the object will disappear from the combined image due to entering into the blind spot regions, changes the blind spot regions by adjusting the first and second parameters.

Abstract: In a first case a trimmed image generating section carries out trimming such that respective lateral direction lengths of a rear processed image and rear lateral processed images in the combined image are equal, and in a second case in which the trimmed image generating section judges that there is information that is included in the images of the first overlapping regions and is not included in the images of the second overlapping regions and information that should be included in the combined image, the trimmed image generating section carries out trimming such that the information that should be included in the combined image remains in the rear lateral processed images, and, as compared with the first case, the lateral direction length of the rear processed image in the combined image is short, and the lateral direction lengths of the rear lateral processed images in the combined image are long.

Abstract: A dashboard camera device including: an imaging section configured to image rearward from a self-vehicle; a recording section configured to record a video image captured by the imaging section; a headlight-flashing detection section configured to detect illumination and blinking of a headlight of a following vehicle traveling behind the self-vehicle; and a control section configured to determine a headlight-flashing threshold value based on a travel environment of the self-vehicle, the headlight-flashing threshold value being a threshold value for a change in light intensity caused by blinking of the headlight of the following vehicle as detected by the headlight-flashing detection section, and, in a case in which a change in light intensity, due to blinking of the headlight of the following vehicle, has exceeded the headlight-flashing threshold value, the control section causes the recording section to record the video image captured by the imaging section.

Abstract: A display device for a vehicle, including: a rear imaging section that captures a rear image; a rear lateral imaging section that captures rear lateral images; and a control section that generates a combined image in which a rear processed image obtained by processing the rear image with a first parameter, and rear lateral processed images obtained by processing rear lateral images with a second parameter, are combined, wherein the control section further identifies an object existing in the rear image or the rear lateral images; acquires relative information including relative position and relative speed of the object with respect to the vehicle, and blind spot regions of the combined image; and, based thereon, if the object will disappear from the combined image due to entering into the blind spot regions, changes the blind spot regions by adjusting the first and second parameters.

Abstract: A vehicle periphery monitoring device includes a plurality of sensors including a rear camera, a rear right-side camera, and a rear left-side camera, a display unit that is provided inside a vehicle cabin, memory, and a processor that is coupled to the memory.

Abstract: A vehicle periphery monitoring device that: captures images of rear lateral sides and a rear side of a vehicle; detects objects that exist in, rear lateral overlap regions of captured rear lateral images, and rear overlap regions of a captured rear image; determines whether or not a specific object, which is seen only in either of the rear lateral overlap regions in the rear lateral images or the rear overlap regions in the rear image, is included among the detected objects; and, in a case in which it is determined that the specific object is included, displays a specific object display, which corresponds to the specific object, overlapping with the rear lateral image or the rear image, in which the specific object is not seen, on at least one display portion.

Abstract: An image display device has an electronic inner mirror, a driver monitoring system, and a display control device. The electronic inner mirror is provided within a vehicle cabin, and enables display of an image within an image displayable region. The driver monitoring system acquires a viewpoint position of a vehicle occupant who views the electronic inner mirror. In accordance with the viewpoint position of the vehicle occupant acquired by the driver monitoring system, the display control device carries out image processing so as to change a displayed position of the image within the image displayable region of the electronic inner mirror.

Abstract: A vehicle surrounding image display device includes a display control unit configured to cause an image display unit to display a first image which is one of captured images behind a vehicle and an area behind and to sides of the vehicle and corresponding in a specific area, the specific area being an area within a range of a first length extending in both directions outward from a horizontal central part of a display area of the image display unit and within a range of a second length extending vertically downward from an upper end of the display area; and display a second image which is one of the captured images and corresponding to the area outside of the specific area in an area outside of the specific area of the display area, the second image being compressed higher than the first image.

Abstract: An electronic mirror system for a vehicle includes a rear imaging device, a left and right pair of side-rear imaging devices, a display device, an anomaly treatment device, memory, and a processor coupled to the memory. The processor causes a composite image in which a rear image and side-rear images are composited to be displayed, and detects an anomaly occurring at any one of the imaging devices. In a case in which an anomaly is detected, the processor generates a substitute image based on a captured image captured by another of the imaging devices, and causes the substitute image to be displayed. And, in a case in which the one of the imaging devices at which the anomaly is detected, is restored to the normal state by the anomaly treatment device, the processor causes the composite image to be displayed instead of the substitute image.