Abstract: A method for evaluating the quality of a component produced by means of an additive laser sintering and/or laser melting method, in particular a component for an aircraft engine, includes at least the steps of providing a first data set, which comprises spatially resolved color values, which each characterize the temperature of the component at an associated component location during the laser sintering and/or laser melting of the component, providing a second data set, which comprises spatially resolved color values corresponding to the first data set, which color values each characterize the temperature of a reference component at an associated reference component location during the laser sintering and/or laser melting of the reference component.

Abstract: Camera heads including multiple imaging elements with overlapping Fields of View (FOV) for inspecting pipes or cavities are disclosed.

Abstract: Methods, systems, apparatuses, and media for pressure sensing for user interactions are disclosed herein. In some implementations, a method involves obtaining sensor data from one or more sensors disposed proximate to an enclosure of a capsule of a wrist-worn device. In some implementations, the method involves determining, based on the sensor data, that a press interaction has occurred. In some implementations, the method involves determining, based on the sensor data, force characteristics associated with the press interaction. In some implementations, the method involves identifying a press type of a plurality of press types based on the force characteristics. In some implementations, the method involves identifying an operations of the wrist-worn device from a plurality of operations based on the press type. In some implementations, the method involves causing the identified operation to be performed by the wrist-worn device.

Abstract: The present invention ensures that when condensation forms in a container for a flying object, water from the condensation does not adversely affect an object in the container. Container 12 is a cabin of a gas balloon and comprises Main Body 121, which is an airtight container for accommodating Crew Member H1 and is filled with Air 122, Condensation Promoting Member 123 is made of a material that has a high thermal conductivity, such as aluminum, and is partly exposed to the inside of Main Body 121 and partly exposed to the outside of Main Body 121. Water Collecting Vessel 124 is positioned below the portion of Condensation Promoting Member 123 exposed to the inside of Main Body 121 and collects water from condensation formed on Condensation Promoting Member 123. Conduit 125 directs water collected by Water Collecting Vessel 124 to Water Collection Container 126.

Abstract: A mobile terminal includes a display, a back cover, a middle frame, a rotation system, and a drive mechanism. A notch is disposed on a top of the back cover, and the rotation system is located at the notch. The rotation system includes a camera, and an outer surface of the rotation system and the back cover are spliced into an outer surface of the mobile terminal. The drive mechanism is configured to drive the rotation system to rise, fall, and rotate, such that the camera has functions of both a rear-facing camera and a front-facing camera.

Abstract: A display device includes a casing, a display panel, and a camera module. The casing includes a bottom plate portion and a plurality of side plate portions, the plurality of side plate portions are respectively located at different sides of the bottom plate portion, and the of side plate portions and the bottom plate portion together define an accommodation space therebetween. The display panel is located in the accommodation space. One of the plurality of side plate portions has an inner side wall and a recess located at the inner side wall, the recess has an opening connected to the accommodation space and faces towards the display panel, and the camera module is accommodated in the recess.

Abstract: A handheld monitoring and early warning device for Fusarium head blight of in-field wheat includes an acquisition card, a processor, a camera, a touchscreen, a power supply, and a 4G network card. The acquisition card is configured to acquire data. The processor is configured to analyze the acquired data, to obtain the growth of wheat based on a deep learning algorithm. The camera is configured to acquire root, stem, and ear information of in-field wheat. The touchscreen is a medium configured to perform human-computer interaction. The power supply is configured to supply power to the monitoring and early warning device. The 4G network card is configured to perform data communication and at the same time communicate with an external cloud server. Further disclosed is an early warning method of a handheld monitoring and early warning device for Fusarium head blight of in-field wheat.

Abstract: A handheld evaluation device includes an image recorder configured to capture at least one of still images or video images, a function switch configured to operate the image recorder, a plurality of timers, each of which is associated with one or more portions of a substance evaluation protocol, and processing circuitry coupled to the image recorder, the function switch, and a plurality of actuators operatively associated with the plurality of timers. The processing circuitry is configured to initiate a first timer of the plurality of timers in response to detecting the activation of a first actuator of the plurality of actuators, activate the image recorder in response to detecting operation of the function switch, provide feedback associated with the first timer, determine completion of the first timer, and store in memory the at least one of still images or video images captured by the image recorder.

Abstract: A method for calibrating a sliding of a sliding component includes: obtaining a first detection signal value sent by the first Hall element and a second detection signal value sent by the second Hall element, corresponding to one or more first calibration positions reached during a sliding process of the sliding component; comparing the first detection signal value corresponding to each of the one or more first calibration positions with a preset first reference signal value, and comparing the second detection signal value corresponding to each of the one or more first calibration positions with a preset second reference signal value; and calibrating the first reference signal value based on the first detection signal value, and calibrating the second reference signal value based on the second detection signal value, in response that a number of times that comparison results belong to a preset abnormal range reaches a preset threshold.

Abstract: A cable connector module includes a housing having a cavity and a cable connector module received in the cavity. The cable connector module includes a circuit card having rows of signal contact pads on a mounting surface. The cable connector module includes cable assemblies terminated to the circuit card arranged in rows each having a cable and a ground clip coupled to an end of the cable. The cable connector module includes a cable holder coupled to the housing that holds the cables assemblies relative to each other within the cavity of the housing.

Abstract: An image capture device may switch operation between a spherical capture mode or a non-spherical capture mode. Operation of the image capture device in the spherical capture mode includes generation of spherical visual content based on the visual content generated by multiple image sensors. Operation of the image capture device in the non-spherical capture mode includes generation of non-spherical visual content based on visual content generated by a single image sensor.

Abstract: This disclosure relates to an apparatus for object detection. The apparatus comprises a video camera, an object detector, and a controller. The video camera may be configured to generate a video stream of frames. The object detector may be configured to accept the video stream as input data and to perform object detection. The controller may be coupled to the video camera and the object detector. The controller may be configured to manage object detection in order to satisfy a performance metric and/or operate within an operational constraint.

Abstract: A lens driving device includes fixing bracket, first support frame sleeved on the fixing bracket, second support frame sleeved on the first support frame, rotation assembly configured to make the fixing bracket rotate relative to the first support frame about a first direction and the first support frame rotate relative to the second support frame about a second direction, driving assembly for driving fixing bracket to rotate relative to first support frame about the first direction and driving the first support frame to rotate relative to the second support frame about the second direction, flexible printed circuit board, first elastic support components, and second elastic support components. The lens driving device increases spacing between adjacent two of crossing portions of the shape memory wires so that the shape memory wires have enough space for the movement, preventing the shape memory wires from being interfered with each other during the movement.

Abstract: A camera system includes an internal loudspeaker assembly for emitting sound waves from the interior of the camera body to the exterior of the camera body through external ports using internal electronic components. Some components of the loudspeaker assembly are sensitive to wet conditions and are protected from the environment by a membrane. The membrane and its support structures are configured to allow the sound waves to translate through the membrane and external to the camera body in both wet and dry environments. The loudspeaker assembly includes a support structure that prevents the membrane from deforming to the point of breaking or to the point of contacting the loudspeaker when submerged.

Abstract: An imaging apparatus, having an imaging element has top, bottom, front, and rear sides, includes exterior members, a control circuit on a control circuit board to control the imaging apparatus, a display panel on the rear side as one of the exterior members, and a heat release fan. The control circuit board and the display panel are arranged sequentially in a direction of an optical axis from the front side to the rear side. A duct having a vent formed on the duct rear side as one of the exterior members extends from the rear side to the front side and from the top side to the bottom side and connects to a bottom side vent formed on the bottom side as one of the exterior members. The heat release fan is inside the duct near the bottom side below the control circuit board as one of the exterior members.

Abstract: A sensor mounting system that includes a sensor, a mounting ring, a faceplate support, and a faceplate. The mounting ring includes a first opening and a first plurality of threads that are disposed on an interior surface of the first opening. The faceplate support is disposed within the first opening of the mounting ring. The faceplate support includes a second plurality of threads that are configured to engage the first plurality of threads of the mounting ring and a second opening. The faceplate is disposed within the second opening of the faceplate support. The faceplate is coupled to the sensor and is configured to rotate within the second opening of the faceplate support.

Abstract: Provided is a prism driving device. The prism driving device includes a housing assembly, a prism holder disposed on the housing assembly in an angle adjustable manner, and an electromagnetic driving assembly. The electromagnetic driving assembly includes a magnet portion and a coil portion disposed opposite the magnet portion, where one of the magnet portion or the coil portion is disposed on the prism holder, the other one is disposed on the housing assembly, and the electromagnetic driving assembly is configured to adjust a tilt angle of the prism holder. One of the housing assembly or the prism holder is provided with a support protrusion and the other is provided with a groove, and at least a portion of the support protrusion is magnetically sucked into the groove.

Abstract: An image capturing mechanism is provided, including a base module, a ball element, and a movable module. The base module has a frame, a substrate movably disposed in the frame, and an image sensor disposed on the substrate. The ball element is disposed between the frame and the substrate, whereby the image sensor and the substrate are movable relative to the frame. The movable module is configured to hold an optical element and is movably connected to the base module.

Abstract: One embodiment provides a method, including: receiving, at an information handling device having a display, an indication to capture an image of a scene using a camera sensor positioned underneath the display; capturing, responsive to the receiving, a plurality of partial images of the scene, wherein the capturing comprises adjusting, using an adjustment mechanism, a physical position of the camera sensor after each of the plurality of partial images of the scene are captured; and stitching, subsequent to the capturing, the plurality of partial images together to form the image of the scene. Other aspects are described and claimed.

Abstract: Provided is an imaging device including a sensing array including a plurality of sensing elements, an imaging lens array including a plurality of imaging optical lenses, each of the plurality of imaging optical lenses having a non-circular cross-section perpendicular to an optical axis, and configured to transmit light received from an outside of the imaging device, and a condensing lens array including a plurality of condensing lenses disposed between the imaging lens array and the sensing array, and configured to transmit the light passing through the imaging lens array to the sensing elements, wherein a number of the plurality of imaging optical lenses is less than a number of the plurality of condensing lenses.

Abstract: Disclosed is a portable magnifier camera with both storage and deployed configurations. In the storage configuration, the entire assembly can be carried via an associated handle. The camera is designed to rest on a desktop, or other planar surface, in the deployed configuration. When deployed, a housing and camera arm are positioned in a cantilevered arrangement over top of an object to be viewed. A camera housing, with an associated camera, is pivotally connected to the camera arm and is positioned over the object upon the camera being placed into a deployed configuration.

Abstract: A camera having a heating arrangement comprising a heater arranged to supply heat to a window. A thermally conductive member is arranged in contact with a housing and with the heating arrangement, when a temperature at the conductive member is below a threshold, to transfer heat supplied by the heater to the housing. A thermally insulating member is arranged in proximity with the housing and the heating arrangement. The conductive and/or insulating member is configured to, when the temperature increases above the threshold during heater operation, change its extension to enable contact between the insulating member and the housing and between the insulating member and the heating arrangement, and to disable contact between the conductive member and the housing and between the conductive member and the heating arrangement, thereby thermally insulate the housing from the heater.

Abstract: An example device includes: A housing is mounted in a bezel. A camera holder is slideably mounted in the housing, the camera holder to slide in the housing between a recessed and an unrecessed position. A camera head is slideably mounted in the camera holder, the camera holder to slide between a downward position, when the camera holder is in the recessed position, and an upward position, when the camera holder is the unrecessed position. The camera head include a camera device angled outward, relative to the display, when the camera head is in the upward position and the camera holder is in the unrecessed position. The camera holder and the housing contains the camera head and the camera device, when the camera head is in the downward position and the camera holder is in the recessed position.

Abstract: An apparatus for protecting a camera from foreign debris incudes a first body and a second body removably coupled to the first body. The first body has a first inner surface and a first outer surface opposite the first inner surface. The first inner surface defines a first cavity. The first inner surface has an inner circumference. The first body includes a protrusion extending directly from the first inner surface toward the first cavity. The protrusion extending along an entirety of the inner circumference of the first inner surface and is shaped as a half-torus. The second body has a second inner surface and a second outer surface opposite the second inner surface. The second inner surface defines a second cavity. The second cavity is in fluid communication with the first cavity to facilitate flow of the fluid from the first cavity to the second cavity.

Abstract: An image capturing device is provided. The image capturing device includes a base, a cable, a restriction bushing and a sealing material. The base includes a base through hole and a base inner surface, wherein the base through hole is formed on the base inner surface. The cable passes through the base through hole. The restriction bushing surrounds the cable, wherein the restriction bushing abuts the base inner surface, and is connected to the base through hole. The sealing material is disposed in the base and covers the restriction bushing, wherein at least a portion of the cable is covered by the sealing material.

Abstract: A mounting bracket for the mounting of an electronic device, such as a camera, on a support surface is provided. The mounting bracket comprises a mounting plate configured to attach the mounting bracket to the support surface, and a device attachment portion configured to receive the electronic device. The mounting plate comprises a recess which is formed at a peripheral edge portion of the mounting bracket. In a condition when the mounting bracket is attached to the support surface, the recess allows insertion of a user's finger in an interspace being formed between the mounting plate and the support surface.

Abstract: The invention proposes the two-axis direct drive mechanical mechanism of a multi-sensor observation device for unmanned aerial vehicles. This is a mechanical mechanism to perform rotate pan-tilt axis by direct drive motor. This mechanism include main components: assembly pedestal, assembly pan-axis and assembly tilt-axis. Electronic circuits, encoders, mechanism, motor are optimized arranged and scientifically designed to the layout space and the weight of the structure. This mechanism can integrate optical sensors such as infrared cooling cameras, high resolution camera, laser rangefinder.

Abstract: The invention concerns a protection device (3) for protecting an optical sensor (13) for a motor vehicle. According to the invention, the protection device (3) comprises: —a transparent optical element (9) mounted rotatably movable about an axis of rotation (A1), configured to be arranged upstream from an optical unit (14) of the optical sensor (13) such that the axis of rotation (A1) of same coincides with the optical axis (15), and —a motor (5) comprising a rotary shaft (51) configured to rotate about an axis of rotation (A2), and configured to rotate said optical element (9) such that the axis of rotation (A1) of said optical element (9) further coincides with the axis of rotation (A2) of the rotary shaft (51) of the motor (5). The invention also concerns a corresponding driver assistance system (1) and a cleaning method implementing such a protection device (3).

Abstract: An example modular imaging system may include at least a modular imaging enclosure and a power supply. The modular imaging enclosure may include multiple panels coupled together to define an interior space of the modular imaging enclosure where an object may be placed in order to obtain image data relating to the object. Individual ones of the panels may include imaging panels having one or more light emitting elements, an array of cameras, and a panel computer. The power supply can supply power to these electronic components so they can operate to capture images of an object in appropriate lighting. The modular nature of the imaging system allows for easy packaging and shipment, as well as easy setup and teardown to use the imaging system, making it an easily transportable device that can be easily transported to the location of an object(s) to be imaged.

Abstract: A device includes a first unit and a second unit. The first unit comprises a first C-shaped portion, a first bridge portion, and a first U-shaped portion. The first U-shaped portion comprises a first projection extending therefrom. The second unit comprises a second C-shaped portion, a second bridge portion, and a second U-shaped portion. The second U-shaped portion comprises a second projection extending therefrom. The first projection interlocks with the second projection when the first C-shaped portion and the second C-shaped portion are fastened to a plate.

Abstract: A determining unit 31 determines an image region of a foreign material in an imaged image generated by an imaging unit 22 by using an imaging optical system 21. A setting unit 32 sets a pressure, injection time, an injection direction of air injected to the foreign material, an injection pattern obtained by combining them and the like based on a determination result. A foreign material removal processing unit 33 adjusts air injection by an air injection adjusting unit 331 based on the setting by the setting unit 32 and injects from an air injecting unit 332 to the imaging optical system 21 to remove the foreign material adhering to the imaging optical system 21. The air is injected according to an adhesion condition of the foreign material, so that the foreign material adhering to the imaging optical system may be optimally removed.

Abstract: A camera cover device includes a casing accommodating a camera that acquires an image or a video and having an opening in front of a lens of the camera; a cover capable of opening and closing the opening of the casing; an air cylinder that drives the cover in opening and closing directions; and a purge mechanism that supplies air at least to a closed space formed between the lens of the camera and the cover when the cover is closed so as to set the pressure in the closed space higher than the pressure outside the casing.

Abstract: A method for enabling physical controls in a digital system is provided that includes receiving an image of an illuminated surface in the digital system, wherein the image is captured by a camera in the digital system, determining a state of a physical control mounted on the illuminated surface by analyzing the image; and outputting an indication of the state of the physical control.

Abstract: A camera having a housing, an optical system and an electrical image sensor, particularly for applications in the exterior region of motor vehicles, limits or prevents undesirable influences from moisture penetrating the camera or the housing. This is achieved by virtue of there being channels provided for air circulation in an interior of the optical system on the basis of the heating of air in the housing by operation of the image sensor, with the channels channeling air around lenses of the optical system. The channels may be along an internal wall of a lens frame of the optical system, and the channels may extend from an end portion of the lens frame at or near the image sensor to an internal space within the lens frame and between two adjacent lens elements of the optical system.

Abstract: The invention relates to a portable optical sensor module having at least one locking device disposed on an outer side of the portable optical sensor module for releaseably attaching the portable optical sensor module to a carrier platform. The at least one locking device comprises a folding handle device forming a carry handle for the portable optical sensor module in an opened locked state of the at least one locking device.

Abstract: An electronic video camera has a camera body which comprises an inner carrier structure and at least one outer cover element which is arranged at the carrier structure and which bounds an interior space of the camera body. In this respect, the camera structure forms a central cooling passage which divides the interior space of the camera body into a ventilation space within the cooling passage and into at least one component space outside the cooling passage. The ventilation space is open toward the environment of the video camera. The component space is sealingly closed with respect to the ventilation space and the environment of the video camera. The video camera has electronic components which are received in the component space and are thermally conductively coupled to the ventilation space via at least one side wall of the cooling passage. The cover element furthermore forms a side cover which is releasable to expose the electronic components arranged in the component space for servicing purposes.

Abstract: There is provided an imaging control apparatus including an imaging control section configured to control an imaging section to capture a predetermined area in a body cavity, a comparison section configured to compare a captured image captured by the imaging section with a reference image, and a storage control section configured to execute a control to store the captured image in response to a comparison result by the comparison section.

Abstract: A display device receives first data for an object to be displayed at a first point in time and second data for the object to be displayed at a second point in time, the second point in time being after the first point in time. A controller determines a difference between the first and second data and controls output of an audio signal based on the difference. The difference is indicative of a change in perceived depth by a viewer.

Abstract: A system and method for adjusting a level of compression for thin and chubby computing clients. End devices in a network can stream audio/video traffic over a network. Such a connection between the end devices can be reserved with guarantees of bandwidth and latency being obtained. Bandwidth guarantees across multiple intermediary switches can be used to define a compression level for the end devices. In one embodiment, the lowest compression level that will produce audio/video traffic that will fit in the guaranteed connection bandwidth is chosen to produce the highest quality audio/video stream.

Abstract: A system and method for adjusting a level of compression for thin and chubby computing clients. End devices in a network can stream audio/video traffic over a network. Such a connection between the end devices can be reserved with guarantees of bandwidth and latency being obtained. Bandwidth guarantees across multiple intermediary switches can be used to define a compression level for the end devices. In one embodiment, the lowest compression level that will produce audio/video traffic that will fit in the guaranteed connection bandwidth is chosen to produce the highest quality audio/video stream.