Abstract: A display control device comprises a rotation controller, and a drive circuit. The rotation controller is configured to control the drive circuit to output a first drive signal to drive the display screen to convert to landscape when receiving the first rotation signal, and control the drive circuit to output a second drive signal to drive the display screen to convert to portrait when receiving the second rotation signal. The rotation controller is further configured to control the drive circuit according to the vehicle status signal to drive the display screen to a corresponding position, and control the drive circuit to suspend working when the vehicle is in a driving state. The rotation controller can control the drive circuit according to different vehicle status signals, so as to drive the display screen to rotate to the appropriate position following the vehicle status, thus improving the driver's comfort and safety.

Abstract: Camera based surveillance system planning methods and apparatus are discussed. A surveillance system integration tool, which may be downloaded into a user's computer system, allows for the insertion and orientation of surveillance cameras onto a map, e.g., a downloaded satellite based map. The integration tool presents the user with various surveillance system planning options. A user selects between various available camera types, e.g., visible vs IR spectrum, and between various camera configuration settings, with the user's selections being received and processed by the integration tool. The integration tool allows a user, e.g., a potential customer, to manipulate camera positioning, orientation, and/or settings, thus changing coverage areas for surveillance. The integration tool outputs for display and/or hardcopy a generated output plan including a map with an overlay including at least one inserted camera indication and a corresponding camera surveillance coverage area indication.

Abstract: A recognition system which obtains and analyzes images of at least one object in a scene comprising a wide field of view (WFOV) imager which is used to capture an image of the scene and to locate the object and a narrow field of view (NFOV) imager which is responsive to the location information provided by the WFOV imager and which is used to capture an image of the object, the image of the object having a higher resolution than the image captured by the WFOV imager is disclosed. In one embodiment, a system that obtains and analyzes images of the irises of eyes of a human or animal in an image with little or no active involvement by the human or animal is disclosed.

Abstract: A method for fixating a camera, mounted on a motorized mount, on a target point. The method includes receiving a plurality of images representative of a scene; selecting, within the plurality of images, a first display reference image containing the target point at a first coordinate location; estimating, in a current image within the plurality of images, a transformation that maps the current image to the first display reference image; estimating a second coordinate location of the target point in the current image using the transformation; computing an image slip between the target point in the current image and the target point in the first display reference image; converting the image slip into an angular correction for fixating the camera; modifying the angular correction by using closed-loop control with the motorized mount; and warping the current image using the transformation to align the current image with the first display reference image.