Abstract: A face detection system includes a terminal device and a server communicably connected to the terminal device. The terminal device acquires a recorded video data file selected by user operation and transmits it to the server. The server converts the received recorded video data file into recorded video data having a predetermined format, detects a face of one or more persons based on the converted recorded video data, generates one or more face-cut images by cutting out a region of the detected face, associates information of an image capturing time point at which a person corresponding to the face cut-out image is captured with the face cut-out image, and transmits the associated information to the terminal device. The terminal device displays a thumbnail image of the received face cut-out image and information of the image capturing time point side by side in a time series on a monitor.

Abstract: A monitoring area setting device includes a storage unit storing information of one area and card reader information of a card reader corresponding to the area, an input unit receiving an administrator operation, and a processor generating, based on the administrator operation, an access control rule including information of a monitoring area to be monitored by a camera in the area and person information of a person that allows access to the monitoring area. When the card reader information corresponding to the monitoring area is input, the processor generates the access control rule further including the card reader information. When the card reader information corresponding to the monitoring area is not input, card reader information of a virtual reader designated by the administrator operation for access to the monitoring area is generated, and the access control rule further including generated card reader information of the virtual reader is generated.

Abstract: A monitoring camera having artificial intelligence includes an imaging unit, a communication unit that receives a parameter relating to a detection target from a terminal device, and a processing unit that constructs the artificial intelligence based on the parameter, and uses the constructed artificial intelligence to detect the detection target from an image captured by the imaging unit.

Abstract: A terminal apparatus transmits, to a server, setting information including specification information of a camera based on input manipulation of the user, environment information indicating an environment in which the camera is installed, and a map image of a place where the camera is installed. The server calculates a capturing area of the camera in the map image, places a subject model that serves as a capturing target of the camera at a prescribed position in the capturing area and generates a synthesized image, generates a face image and a whole body image of the subject model located at the prescribed position that is inferred to be captured by the camera, transmits the synthesized image and the face image and the whole body image of the subject model to the terminal apparatus. The terminal apparatus displays the synthesized image, the face image and the whole body image of the subject model.

Abstract: A wearable camera includes a video recording device that records a captured video of a subject on the front side of a user on a recorder, a sensor that acquires information regarding motion of the user, a determiner that determines whether or not at least one default event has occurred on the basis of information regarding motion of the user acquired by the sensor during recording of the captured video of the subject, and a controller that generates event list information in which a detection time point of the default event is correlated with information regarding the default event according to determination that the at least one default event has occurred during recording of the captured video of the subject, and records the event list information on the recorder in correlation with the captured video of the subject.

Abstract: A camera device includes a first IR illuminator that is configured to irradiate a first irradiation range in a capturing area with first IR light, a second IR illuminator that is configured to irradiate a second irradiation range narrower than the first irradiation range in the capturing area with second IR light, and a controller that is configured to obtain a zoom magnification of the lens and controls the irradiation of the first IR light and the second IR light in a case where the zoom magnification is equal to a predetermined zoom magnification. The controller changes a supplied current of the first IR illuminator for the irradiation of the first IR light over a first predetermined time period, and changes a supplied current of the second IR illuminator for the irradiation of the second IR light over a second predetermined time period.

Abstract: A vehicle monitoring system includes at least one camera, and a server that is communicably connected to the camera and a client terminal. The camera captures an occupant's face of a vehicle entering an angle of view of the camera, and transmits a captured video to the server. The server acquires an analysis results of an attribute of the vehicle, an analysis result of the occupant's face, and an analysis result of the number of occupants based on the captured video, and accumulates the acquired analysis results as analysis results of the captured video, and sends the analysis result to the client terminal in correlation with a snapshot of the captured video.

Abstract: In an asset management system, a wearable camera mountable by a police officer and a server that manages information regarding the wearable camera are connected to enable a communication. The wearable camera repeatedly diagnoses whether or not the wearable camera has failure at a predetermined timing, and notifies the server of a diagnosis result. The server is connected to a database, accumulates the diagnosis result of the wearable camera in the database every time the server receives the diagnosis result of the wearable camera, and displays the diagnosis result of the wearable camera on an external terminal.

Abstract: A vehicle monitoring system includes at least one camera, and a server that is communicably connected to the camera and a client terminal. The camera captures a license plate and an occupant's face of a vehicle entering an angle of view of the camera, and transmits a captured video to the server. The server acquires an analysis result of the license plate, analysis results of a type and a color of the vehicle, an analysis result of the occupant's face, and an analysis result of the number of occupants based on the captured video, and accumulates the acquired analysis results as analysis results of the captured video, and sends the analysis result to the client terminal in correlation with a snapshot of the captured video.

Abstract: A monitoring camera includes a capturing unit that is configured to capture an image of at least one object within the angle of view, and a processor that is equipped with the artificial intelligence and that is configured to detect a plurality of characteristic parts of the object reflected in a captured image input from the capturing unit based on the artificial intelligence. The processor associates, for each of the at least one object, information for specifying each of the plurality of detected characteristic parts with a same object ID.

Abstract: An information processing device has a receiving section for receiving, from a second vehicle having started the tracking of a first person, the position information of the second vehicle and the image data photographed by the on-vehicle camera mounted on the second vehicle; a control section for searching for the image of the first vehicle included in the image data from the images photographed by monitoring cameras installed around the position indicated by the position information and for tracking the first vehicle searched for using the images photographed by the monitoring cameras; and a transmitting section for transmitting the tracking position information of the first vehicle being tracked by the control section.

Abstract: A wearable camera includes a capturing portion configured to capture a subject around a user, a control portion configured to control capturing processing of the capturing portion and charging processing of a battery, an upper housing that is mountable to the user and accommodates the capturing portion and the control portion, and a lower housing that accommodates the battery for supplying power to the upper housing, is detachably attached to the upper housing, and has a contact terminal which is exposed to an outside and is used for charging the battery, wherein the lower housing is configured to be connected to a charging stand via the contact terminal such that the battery is charged in a state where the lower housing is attached to the upper housing.

Abstract: A 3 MOS camera includes a first prism that causes a first image sensor to receive IR light of light from an observation part, a second prism that causes a second image sensor to receive visible light of A % (A: a predetermined real number) of the light from the observation part, a third prism that causes a third image sensor to receive remaining visible light of (100?A) % of the light from the observation part, and a video signal processor that combines a color video signal based on imaging outputs of the second image sensor and the third image sensor and an IR video signal based on an imaging output of the first image sensor and outputs the combined signal to a monitor, the second image sensor and the third image sensor being respectively bonded to positions optically shifted by substantially one pixel.

Abstract: A 3 MOS camera includes a first prism that causes a first image sensor to receive IR light of light from an observation part, a second prism that causes a second image sensor to receive visible light of A % (A: a predetermined real number) of the light from the observation part, a third prism that causes a third image sensor to receive remaining visible light of (100-A)% of the light from the observation part, and a video signal processor that combines a color video signal based on imaging outputs of the second image sensor and the third image sensor and an IR video signal based on an imaging output of the first image sensor and outputs the combined signal to a monitor, the second image sensor and the third image sensor being respectively bonded to positions optically shifted by substantially one pixel.

Abstract: A surveillance camera system includes a surveillance camera having a plurality of cameras for capturing images in a plurality of different image capturing ranges, and a terminal device capable of communicating with the surveillance camera. The terminal device transmits to the surveillance camera arrangement pattern information and image capturing range information of the plurality of cameras that are input by an operation of a user. The surveillance camera calculates camera parameters of the plurality of cameras based on the arrangement pattern information and the image capturing range information of the plurality of cameras transmitted from the terminal device, respectively set the plurality of cameras based on the camera parameters, and transmits to the terminal device images respectively captured by the plurality of cameras after the setting. The terminal device displays the images captured by the plurality of cameras and transmitted from the surveillance camera.

Abstract: A wearable camera includes a capturing unit configured to capture video data, a memory configured to store the video data captured by the capturing unit, a plurality of sound collectors that are arranged at different positions of a casing and that are configured to collect a sound and output signals, and a controller that is configured to determine a direction from which the sound is emitted based on a deviation of output timings of the signals and add the direction as attribute information to the video data.