Abstract: Generating a three-dimensional (3D) map of an environment includes receiving, via a 3D-scanner that is mounted on a moveable platform, a 3D-scan of the environment while the moveable platform moves through the environment. The method further includes receiving via a two-dimensional (2D) scanner that is mounted on the moveable platform, a portion of a 2D-map of the environment, and receiving first coordinates of the scan position in the 2D-map. The method further includes associating the scan position with the portion of the 2D-map as a virtual landmark. In response to the movable platform being brought back at the virtual landmark, a displacement vector for the 2D-map is determined based on a difference between the first coordinates and a second coordinates that are determined for the scan position. A revised scan position is calculated based on the displacement vector, and the revised scan position is used to register the 3D-scan.

Abstract: A component mounting includes an external monitoring camera that images an outside work area that is an area outside of the component mounting machine at which an operator performs work with respect to the component mounting machine. The outside work area of the component mounting machine includes at least an area where a feeder is set, and a monitoring target is at least a state during and after completion of setting the feeder on the component mounting machine and during and after completion of setting component supply tape on the feeder. By looking at a recorded image or a real time image displayed on a display device by using the external monitoring camera to capture an outside work area of the component mounting machine, it is possible to check the state of the monitoring target on which an operator performed work in the outside work area of the component mounter.

Abstract: A device for removing or killing weeds, comprising a first image capturing apparatus for capturing a first ground image, a data processing unit connected thereto and an agricultural machine controlled by the data processing unit, which is designed for the targeted removal or killing of weeds, wherein the data processing apparatus is configured to receive the first ground image from the first image capturing apparatus, to receive manually determined position data from at least one connected terminal, which indicate the position of weeds and/or crops and/or ground structures, e.g. rows of plants, which have been detected in the first ground image by one or more users, and, on the basis of the position data, to control the agricultural machine in such a way that it removes or kills the weeds in a targeted manner.

Abstract: At least one embodiment of a method of auto-setting a video content analysis module configured to analyse representation of predetermined targets in images of a scene captured by a video-camera, the method comprising: obtaining a quality indicator of images captured by the video-camera, the quality indicator being determined as a function of the video content analysis module; obtaining characteristics of representations of the predetermined targets in images of the scene captured by the video-camera; and for each setting of a set of settings of the video content analysis module, estimating a performance indicator of the video content analysis module according to the considered setting, the performance indicator being determined as a function of at least the obtained quality indicator and the obtained characteristics; based on the estimated performance indicators, selecting a setting for the video content analysis module; and setting the video content analysis module according to the selected setting.

Abstract: [SUMMARY] [OBJECT] To provide a vehicle-mounted camera capable of achieving both of miniaturization and high functionality. [MEANS FOR SOLVING] The vehicle-mounted camera includes an optical unit, a frame, a cover member, a holder, and a pair of screw members. The frame includes a front wall portion having a flat plate shape and extending along a plane orthogonal to an axis, and a pair of first through-hole portions provided to the front wall portion. The cover member includes a pair of second through-hole portions adjacent to the pair of first through-hole portions in a forward direction of the axis. The holder includes a holding portion that holds the optical unit, a pair of columnar portions that protrude in the forward direction and are inserted into the pair of first through-hole portions and the pair of second through-hole portions from a rearward direction of the axis, and a pair of screw hole portions formed toward the rearward direction from distal end portions of the pair of columnar portions.

Abstract: An electronic device including first and second housings rotated on a hinge unit, a display exposed to an outside through the first and second housings, first and second cameras disposed respectively in the first and second housings, at least one sensor, and at least one processor, is provided. The at least one processor is configured to obtain first and second images using the first camera and second cameras, respectively, generate a first panoramic image based on the first and second images, detect a rotation of at least one of the first housing or the second housing through the hinge unit using the at least one sensor, obtain at least one image using at least one of the first or second cameras while the at least one housing rotates, and generate a second panoramic image based on the first panoramic image and the at least one image.

Abstract: A device for inserting and securing a video doorbell system inside a metal container that is securely fitted along the side of a door and can only be opened when door is opened. The device comprises a metal container measured to hold specified video doorbell systems inside WITH an opening that exposes the camera and doorbell button ONLY (FIG. 1). The metal container is attached to two u-shaped thin but durable metal hooks that snap together and cling to the side of a door snugly. The device also has cylinder tubes at the ends of each hook to decrease the ability to pull the device away from the door (anti-theft). The device also avoids property damage from permanent mounting using screws.

Abstract: A video camera comprises a housing (102) configured of a top housing portion (104), a mid-housing portion (106) and a bottom housing portion (108). The top housing portion is configured as a circular and rounded exterior contoured wall (110) having an exterior recessed feature (112) formed along an edge (114). The mid-housing portion (106) is formed of an IR window ring (116) having an alignment tab (118) extending therefrom, the alignment tab being aligned and recessed within the exterior recessed feature (112) of the rounded exterior contoured wall (110) of the top housing portion (104), and the bottom housing portion (108) providing a camera dome (120) seated within and protruding from the IR window ring (116).

Abstract: Systems and methods are disclosed for image capture. For example, systems may include an image capture module including an image sensor configured to capture images, a base that includes a processing apparatus and a connector, and an integrated mechanical stabilization system configured to control an orientation of the image sensor relative to the base, wherein the processing apparatus is configured to send commands to motor controllers of the mechanical stabilization system and includes an image signal processor that is configured to receive image data from the image sensor; and a handheld module configured to be removably attached to the image capture module by the connector, wherein the handheld module includes a display configured to display images received from the image sensor via conductors of the connector.

Abstract: Systems, apparatuses, and methods for generating a model for determining a quantization strength to use when encoding video frames are disclosed. A pre-encoder performs multiple encoding passes using different quantization strengths on a portion or the entirety of one or more pre-processed video frames. The pre-encoder captures the bit-size of the encoded output for each of the multiple encoding passes. Then, based on the multiple encoding passes, the pre-encoder generates a model for mapping bit-size to quantization strength for encoding video frames or portion(s) thereof. When the encoder begins the final encoding pass for one or more given video frames or any portion(s) thereof, the encoder uses the model to map a preferred bit-size to a given quantization strength. The encoder uses the given quantization strength when encoding the given video frame(s) or frame portion(s) to meet a specified bit-rate for the encoded bitstream.

Abstract: A wearable device comprises a left view optical stack for a viewer to view left view cinema display images rendered on a cinema display and a right view optical stack for the viewer to view right view cinema display images rendered on the cinema display. The left view cinema display images and the right view cinema display images form stereoscopic cinema images. The wearable device further comprises a left view imager that renders left view device display images, to the viewer, on a device display, and a right view imager that renders right view device display images, to the viewer, on the device display. The left view device display images and the right view device display images form stereoscopic device images complementary to the stereoscopic cinema images.

Abstract: The invention relates to a camera (4) for a motor vehicle (1), comprising a housing (9), which is formed from an electrically conductive material, a first printed circuit board (16), on which an image sensor (22) of the camera (4) is arranged (16), and at least two holding elements (18), which are connected to the first circuit board (16) and to the housing (9), wherein the first printed circuit board (16) is spaced apart from the housing (9) and is electrically connected to the housing (9) by means of the at least two holding elements (18), wherein the housing (9) comprises a front housing part (10) and a rear housing part (11), wherein the front housing part (10) and the rear housing part (11) are electrically connected to one another and wherein the front housing part (10) and the rear housing part (11) are connected to one another by means of a welded connection (44).

Abstract: The invention relates to a medical inspection apparatus (1), such as a microscope or endoscope, and to a medical inspection method such as microscopy or endoscopy. Visible image data (11) representing a visible-light image (49) and fluorescence image data (12) representing a fluorescent-light image (51) and a pseudocolor (70, 71) are merged to give an improved visual rendition of an object (2) which comprises at least one fluorophore (6) to mark special features of the object (2). This is accomplished in that an image processing unit (18) of the microscope (1) or endoscope is configured to compute a color (ro, go, bo) of an output pixel (54) in the pseudocolor image (53) from at least one pseudocolor (rp, gp, bp), a color (ri, gi, bi) of a first input pixel (50) in the visible-light image (49) and an intensity (f) of a second input pixel (52) in the fluorescent-light image (51).

Abstract: Disclosed herein are devices and systems for securely housing and mounting video doorbells. In one aspect, a disclosed device encompasses a housing for securely containing the video doorbell; and a bracket assembly configured to removably mount to a dimensional object, the bracket assembly including a first bracket portion configured to releasably attach to the housing, and a second bracket portion configured to detachably couple with the first bracket portion, the second bracket portion including a mounting plate, a back plate, at least one bracket member extending from a first edge of said mounting bracket to a first edge of said back plate, and at least one tongue extending from a second edge of said mounting plate. Also disclosed herein are kits and methods for using the disclosed devices and systems.

Abstract: A camera module (1) for a motor vehicle, in particular for driver monitoring in the passenger compartment, including at least one printed circuit board (2) and a shield for enclosing the printed circuit board (2). The shield includes at least a first shielding part (7) and a second shielding part (10). The first shielding part (7) is a ring shaped part and the second shielding part (10) is a hat shaped part put over, enclosing, and contacting the first shielding part (7).

Abstract: What is described are a method and a device, wherein two types of individual images are captured, namely a set of individual images captured simultaneously, and a further set of individual images captured in temporal succession. Among said two sets of individual images, individual images are selected which in combination result in a panoramic image.

Abstract: An image acquisition apparatus based on a miniature camera matrix, comprising an image generation circuit board and a miniature lens matrix, wherein the image generation circuit board comprises an image generation circuit matrix, various image generation circuits in the image generation circuit matrix all comprise a miniature photosensitive element, and various miniature photosensitive elements constitute a miniature photosensitive element matrix; and various miniature lenses in the miniature lens matrix are fixedly arranged on the image generation circuit board and correspond to the various miniature photosensitive elements on a one-to-one basis, and the axes of the various miniature lenses are respectively perpendicular to a plane where the image generation circuit board is located.

Abstract: The present invention provides an encoding apparatus including a setting section that partitions each of images included in a video to be encoded into a plurality of tiles and sets a partial region including one or more of the plurality of tiles for the image, an encoding section that encodes each image on a per-tile basis to generate an encoded stream, and a transmission control section that controls transmission of the encoded stream to a decoding apparatus that decodes the video. The setting section sets out-of-tile reference for motion compensation for the tiles within the partial region to be prohibited, and the transmission control section restricts, upon detection of a loss or an absence of encoded information at the decoding apparatus, the transmission such that only an encoded stream corresponding to the tiles within the partial region is transmitted.

Abstract: Disclosed herein is a method for adaptive bidirectional optical flow estimation for inter-screen prediction compensation during video encoding. The method aims to reduce complexity and/or cost of bidirectional optical flow (BIO) at a pixel level or a subblock level.

Abstract: A camera module for a vehicular vision system includes a metallic housing having a metallic upper housing portion and a metallic lower housing portion. A camera is accommodated in the housing and includes an imager circuit board having an imager thereat. The camera includes a lens barrel that protrudes through an aperture of the upper housing portion. A primary circuit board is accommodated in the housing and has an image processor that processes image data captured by the camera. A cooling fan is attached at the lower housing portion and directs airflow between heat dissipating fins of an outer side of the housing, with the heat dissipating fins being in thermal conductive connection via a thermal element with the image processor. The camera module is configured to be disposed at a vehicle windshield so as to have a field of view through the windshield and forward of the vehicle.