Abstract: Systems, apparatuses, and methods are described which provide weapon sighted cameras. A camera can be mounted on a weapon and, after a set-up procedure, can acquire a target without using a weapon sight of the weapon.

Abstract: A vehicle communication system includes: a control device 10B provided in a vehicle; and a management device 50 that is provided in a battery 20 mounted on the vehicle while communicably connected to the control device 10B. One of the control device 10B and the management device 50 discriminates a communication specification of the other and switches the communication specification. In this configuration, consistency of the communication specification is attained between the control device 10B of the vehicle and the battery 20, so that disability of communication between the control device 10B and the battery 20 can be prevented.

Abstract: A system and method of designating regions of interest for surveillance cameras is disclosed. The system enables definition of regions of interest simultaneously across multiple cameras. This is useful when the cameras are positioned to monitor the same region of interest within their scenes. Each camera monitors image data for designation of regions of interest, stores the regions of interest, and analyzes the image data from the cameras based on the regions of interest. Preferably, each camera has an integrated analytics system for analyzing the image data based on the regions of interest. A setup process between a user device (e.g. mobile phone) and the cameras enables definition of the regions of interest. In embodiments, the regions of interest are defined in response to the cameras tracking either the user device or an optical device as an operator moves the devices to outline the regions of interest within the scene.

Abstract: A system and method for overlap detection in a surveillance camera network is disclosed. An analytics system of the system receives image data captured from the cameras and detects motion within the image data. The analytics system then correlates detected motion among the image data from the different cameras and determines overlap of fields of view of the cameras. In a preferred embodiment, a mobile user device held by an installer is moved through a critical path at the premises while the cameras are capturing the image data, and the analytics system determines whether the user device/installer is included in the image data from at least two of the cameras. In another embodiment, the analytics system determines overlap by determining correlated motion detection events associated with motion occurring at substantially the same time in image data from two or more different surveillance cameras and inferring that the motion is related.

Abstract: The measuring system makes it possible to correct a finish time for an athlete in a running race. The system comprises a personalized transponder module placed on an upper part of the athlete's body and a base station. The transponder module comprises a signal receiver unit, a data, measurement or command processing unit, and a data and/or measurement and/or command signal transmission unit, and a motion sensor for providing measurement signals to the processing unit. The motion sensor may be a gyroscope connected to the processing unit in the transponder unit and configured to determine an angle of inclination of the athlete's body with respect to a vertical or horizontal direction upon crossing the finish line for correction of the race finish time.

Abstract: A network device determines an exposure time associated with an image sensor coupled to a spacecraft for capturing an image of a target object orbiting the Earth. The network device computes a maximum relative angular velocity associated with the target object based on the exposure time and a dimension of a pixel of the image sensor. The network device identifies a first pointing direction of the image sensor for initiating a search for the target object. The network device generates a first angular velocity probability distribution map for the target object and divides the first angular velocity probability distribution map into a first set of angular velocity regions (AVRs). The network device selects a first AVR from the first set of AVRs for scanning by the image sensor and generates a search schedule that includes a first entry for informing the spacecraft to scan the first AVR.

Abstract: Disclosed is an amplifier for incremental wattage reduction. The amplifier comprises a first pair of pentode vacuum tubes and a second pair of pentode vacuum tubes arranged in a push-pull-parallel power configuration. Each pentode vacuum tube from the first pair of pentode vacuum tubes and the second pair of pentode vacuum tubes includes a plate element, a screen grid element and a cathode element. The amplifier further comprises a single multi-position user switch to configure the first pair of pentode vacuum tubes and the second pair of pentode vacuum tubes to achieve varying wattage outputs of the amplifier by deactivating at least one of the first pair of pentode vacuum tubes or the second pair of vacuum tubes, and causing at least one of the first pair of pentode vacuum tubes or the second pair of vacuum tubes to operate as triodes.

Abstract: In a method for testing an agricultural spraying device (1) which comprises a plurality of nozzles (3) that are arranged at a spacing from one other and spray a liquid, which is supplied under pressure, in a defined atomizing cone (8), a region, near the nozzle, of the atomizing cone (8) of each individual nozzle (3) is optically recorded, in a direction perpendicular to the central axis of the atomizing cone (8), by means of a recording device (6) having a digital camera (7), and is stored as a digital image file.

Abstract: An optical module of a micro spectrometer with tapered slit and slit structure thereof. The optical module includes an input section and a micro diffraction grating. The input section includes a slit structure, which receives a first optical signal and outputs a second optical signal travelling along a first optical path. The slit structure includes a substrate and a slit, which penetrates through the substrate and has a gradually reduced dimension from a first surface of the substrate to a second surface of the substrate. The micro diffraction grating, disposed on the first optical path, receives the second optical signal and separates the second optical signal into a plurality of spectrum components travelling along a second optical path.

Abstract: A tooling system that includes a drive unit configured to provide rotational force to a tool member. The tool member is attached at a mount on the drive unit. A camera associated with the drive unit is aligned to capture a target on the tool member. The data is sent to a controller that identifies the tool member based on the target. The controller determines whether the tool member is correct for performing an operation on a work piece. If the tool member is correct, the controller may set one or more operating parameters on the drive unit. If the controller determines that the tool member is not correct, the drive unit is disabled. Further, a signal may be sent to inform an operator of the issue.

Abstract: A device includes a camera and an upper strobe which irradiates a user with light from an upper front. The upper strobe is provided such that a light-emitting surface is positioned at an upper rear of the camera as viewed from an object. The present technology can be applied to a photo sticker creating device.

Abstract: According to an example, a display-camera system includes a transparent display panel and a transparent backlight panel. Light sources emit light into the edge of the transparent backlight panel. A first polarizer, between the light sources and the edge of the transparent backlight panel, polarizes the light emitted from the light sources and the transparent backlight panel directs the polarized light towards the transparent display panel. A camera, adjacent a back surface of the transparent backlight panel captures an image of a scene through the transparent display panel and the transparent backlight panel.

Abstract: A network device determines an exposure time associated with an image sensor coupled to a spacecraft for capturing an image of a target object orbiting the Earth. The network device computes a maximum relative angular velocity associated with the target object based on the exposure time and a dimension of a pixel of the image sensor. The network device identifies a first pointing direction of the image sensor for initiating a search for the target object. The network device generates a first angular velocity probability distribution map for the target object and divides the first angular velocity probability distribution map into a first set of angular velocity regions (AVRs). The network device selects a first AVR from the first set of AVRs for scanning by the image sensor and generates a search schedule that includes a first entry for informing the spacecraft to scan the first AVR.

Abstract: A guide tube having a tube; a ciliary portion including many cilia inclined in a longitudinal direction of the tube, provided in an outer peripheral portion of the tube; and a vibration portion provided on the tube for vibrating the ciliary portion so as to move the tube in the longitudinal direction.

Abstract: A combined video display and image capture system and method are disclosed. In one embodiment the system alternates between the capture period of the camera (306) and the image display (302) period to isolate the camera (306) from the display (302). Various methods are disclosed to achieve the alternation in the capture and the display periods of the system. Distortions in the captured image can be corrected using an image correction subsystem.

Abstract: A toll violation enforcement system that contains a capture unit that receives a trigger signal and takes vehicle images of passing vehicles. A lighting unit configured to operate continuously is provided to establish a major lighting source incident on the vehicle. A processing unit is provided that processes the vehicle image and controls the settings employed by the capture unit. The processing unit preferably contains a plate location module for extracting an original resolution license plate area image from a first vehicle image; an exposure control module for controlling the exposure setting on the capture unit to provide consistent intensity of the license plate area; a resolution reset module for changing the image resolution for a second vehicle image; an image enhancement module for brightening pixels of the second vehicle image; and an image compression module for compressing the license plate area image and second vehicle image to a predetermined format.