Abstract: An endoscope includes: an imaging controller configured to drive in a first operation mode for operating an imager in accordance with an input first clock signal or in a second operation mode for operating the imager in accordance with an input second clock signal different from the first clock signal; a switch configured to output, to the imaging controller, a switching signal for switching the previously set second operation mode to be driven by the imaging controller to the first operation mode; and a first generator configured to generate a first enable signal causing the switch to output the switching signal based on the first clock signal when the first clock signal is input from an external processing device, and output the generated first enable signal to the switch.

Abstract: The present disclosure generally pertains to a master image sensor configured to communicate with a slave image sensor via an exposure time voltage line, wherein the exposure time voltage line is connected to a terminal of the master image sensor, the master image sensor having master circuitry, configured to: transmit to the slave image sensor, via the exposure time voltage line, an exposure time voltage signal being indicative of an exposure time for the master image sensor; and transmit to the slave image sensor, via the exposure time voltage line, an auxiliary information voltage signal being indicative of auxiliary information for adjusting at least one imaging capture parameter of the slave imaging sensor.

Abstract: A control apparatus comprises a determination unit configured to, in a case where a user operation for removing an image capturing apparatus being a control target from the control target is performed, determine whether or not the image capturing apparatus is executing a specific function, and a control unit configured to, in a case where the determination unit determines that the image capturing apparatus is executing the specific function, cause the image capturing apparatus to stop the specific function.

Abstract: A system and method for tracking multifunction peripheral device user satisfaction captures user images and audio during device operation. User characteristics such as gestures, posture, spoke words or facial expressions are used in conjunction with device status information to determine whether the user is satisfied with the device. If not, remedial action is initiated, such as launching a virtual assistant on the multifunction peripheral touchscreen or summoning of a human assistant.

Abstract: Systems and methods for operating a controlled device via a wearable activation accessory that includes a sensor configured to detect relaxed and flexed conditions of muscles associated with clenching, flexing, and/or lateral displacement of a wearer's muscle, thereby allowing the wearer to generate control signals for a controlled element. The sensor is coupled to a controller, which has an output coupled to a control signal interface. The controller is programmed to receive and evaluate input signals from the sensor to determine whether or not they represent a command for the controlled device by assessing the input signals for a signal pattern indicative of a plurality of volitional muscle motion actions of a wearer of the wearable activation accessory. If/when the processor determines that the input signals represent a valid command, it decodes the command and transmits an associated control signal to the controlled device via the control signal interface.

Abstract: A user may routinely wear or hold more than one computing devices. One of the computing devices may be a head-mounted computing-device configured for augmented reality. The head-mounted computing-device may include a camera. While imaging, the camera can consume power and processing resources that diminish a battery of the head-mounted computing device. To improve a battery life and to enhance a user's privacy, imaging of the camera can be deactivated during periods when the user is not interacting with the head-mounted computing device and activated when the user wishes to interact with the head-mounted computing device. The activation of the camera can be triggered by gestured data collected by a computing device other than the head-mounted computing-device.

Abstract: Systems, apparatuses, and methods are described which provide a camera system. A camera is in communication with a positioning device. The positioning device has a compass, gyroscope, and emits an infrared light beam. The camera has a sensor that receives reflected and/or scattered infrared light from a moving target. The camera changes its focus, zoom, and/or angle of a field of view of the camera based on information from its sensor, and gyroscope and compass information from the positioning device and/or camera.

Abstract: An embodiment provides a method, including: capturing, using an image capture device, image data; analyzing, using a processor, the image data to identify a gesture control; determining, using a processor, the gesture control was inadvertent; and disregarding, using a processor, the gesture control. Other aspects are described and claimed.

Abstract: The present technology relates to a video processing device, a video processing method, and a program for providing a bullet time video centering on a moving object. The video processing device acquires view point position information indicating the range of movement of a view point position for an object in an input image frame where the object is imaged in chronological order at multiple different view point positions. Time information indicates a time range in the chronological order of imaging the input image frame. The device processes the input image frame such that the object is at a specific position on an output image frame when the view point position moves within the time range indicated by the time information and the view point position movement range indicated by the view point position information.

Abstract: Various aspects include approaches for controlling acoustic beams. In some particular aspects, a system includes: a microphone array; and a control system coupled with the microphone array, the control system programmed to control the microphone array by: processing a signal from a beacon device to identify a physical location of the beacon device relative to the microphone array; and focusing the microphone array in a direction based upon the physical location of the beacon device prior to receiving an audio input at the microphone array.

Abstract: The present disclosure provides an optical communication system, an optical communication method, and a transmitting device and a receiving device for the same. The optical communication system includes: a transmitting device for generating a control signal according to at least one encoding information to drive a light emitting device to actuate; and a receiving device for capturing a plurality of images via an image capturing module during actuation of the light emitting device, and decoding the plurality of images to obtain the encoding information.

Abstract: During flight, a military aircraft can use an infrared countermeasures (IRCM) system. The IRCM system can use a wide field of view sensor to detect a spectral signature of a missile and record a coarse estimate of the angular location of the missile. Upon such detection, the IRCM system can trigger a narrow field of view sensor to more finely determine the angular location of the missile. The narrow field of view sensor can emit infrared light toward the missile, which can confuse the guidance system of the missile and can help redirect the missile away from the aircraft. During time intervals when the narrow field of view sensor is not actively locating a missile, the IRCM system can use the narrow field of view sensor to form an infrared communications link with a corresponding narrow field of view sensor of a corresponding IRCM system of another aircraft.

Abstract: Techniques are disclosed for systems and methods to provide monitoring systems including one or more modular cameras and at least one application-specific base. The application-specific base may include features and/or components corresponding to a particular type of monitoring. A monitoring system includes at least one modular camera that first establishes a communication link with an application-specific base and then downloads a monitoring system application corresponding to the application-specific base. After a modular camera receives the monitoring system application, the modular camera performs the application in order to capture monitoring information corresponding to the particular type of monitoring supported by the application-specific base.

Abstract: In one example, a method for multimodal human-machine interaction includes sensing a body posture of a participant using a camera (605) and evaluating the body posture to determine a posture-based probability of communication modalities from the participant (610). The method further includes detecting control input through a communication modality from the participant to the multimedia device (615) and weighting the control input by the posture-based probability (620).

Abstract: It is an object to allow a shooting direction to be changed in a direction intended by a user. An apparatus includes: an acceptance unit configured to accept one of a first instruction to rotate a captured image by a predetermined angle and a second instruction to rotate a coordinate system by the predetermined angle, and to refuse the other of the first and second instructions; a processing unit configured to perform a first processing to rotate the captured image by the predetermined angle and to perform a second processing to rotate the coordinate system stored in a storage unit by the predetermined angle, in response to accepting the one of the first and second instructions; and a control unit configured to perform control of changing the shooting direction of a capturing unit.

Abstract: An apparatus for receiving an image is provided. The apparatus includes: a camera searcher configured to search for a camera connected to a network; a camera register configured to register information about the camera which is identified as a result of the searching by the camera searcher; a profile setter configured to set a profile of the camera by referring to the information obtained from the camera; and an image receiver configured to receive an image from the camera according to the profile.

Abstract: A device may include an image capture device and logic. The logic may be configured to receive voice input from a user and identify the voice input. The logic may further be configured to perform a control action associated with the image capturing device based on the identified voice input.

Abstract: A PC-based system for monitoring and storing representative images from video cameras may be utilized for security or other monitoring applications. Camera inputs from digital or analog sources are individually and independently digitized and displayed at a first set of image sizes, sampling rates, and frame rates, and may be stored in digital form on various recording media at a second set of image sizes, sampling rates, and frame rates, and these two sets of sizes and rates may or may not be identical. Provisions are included for adding detection or alarm systems which will automatically alter image size, sampling rate and/or frame rate of an individual input source, or activate other physical responses. In addition to security system monitoring, further applications of the invention are disclosed for process monitoring in manufacturing environments and also for applications in videoconferencing.