Provided is an information processing device according to the present disclosure including a photographing information acquisition unit configured to acquire photographing information, which indicates photographing being performed in another device, from the other device, and a function activation unit configured to activate a function related to a photographed image depending on the acquisition of the photographing information. In particular, the function is a function of recording a voice uttered by a user with respect to photographing corresponding to the photographing information. This configuration makes it possible for a separate device to give a comment by voice to a picture photographed by the other device.

A mark information recording apparatus includes an output unit and a recording unit. The output unit is configured to output, for displaying a partial image being a part of an entire image having an arbitrary resolution among entire images generated at a plurality of different resolutions with respect to a single target, the partial image. The recording unit is configured to associate mark information with information on a position within the entire image and information on the resolution of the output partial image and record the mark information.

An information processing system that that confirms the meanings of difference information in meeting content with reference to the sound information is provided. Differences between meeting content contained in image information of a paper medium taken at each detection cycle and meeting content contained in master information are extracted. Surrounding sounds are recorded while the meeting is being held. The sound information of the recorded sounds is associated with the difference information of the extracted differences and also associated with the master information with the timing when the differences of the meeting content are detected.

The present invention is to provide a system, a method, and a program for displaying an omnidirectional camera image that enable a plurality of people to see a 360-degree image taken by an omnidirectional camera in their individuals' visions. The system for displaying an omnidirectional camera image 1 includes an image acquisition module 14 that displays a 360-degree image taken by an omnidirectional camera 5 on a plurality of terminals 30 and acquires a 360-degree image taken by the omnidirectional camera 5; an image distribution module 25 that distributes the acquired image to a plurality of user terminals 30; an operation input receiving module 38 that receives an operation input from each user of the terminals 30; and an image display module 39 that displays an arbitrary part of the distributed 360-degree image on a user terminal owned by the each user based on the operation input received from the each user.

A camera is configured with multiple microphones to reduce wind noise in audio data collected by the camera. The camera receives motion data, which may comprise data indicating acceleration of the camera, a plurality of video frames received by the camera, or a background level of noise associated with one or more microphones configured on the camera. The camera determines a motion vector from the motion data. The motion vector is parallel to the direction of motion of the camera. The camera selects a subset of one or more microphones in the direction of the motion vector. By recording audio data using the one or more selected microphones, the camera reduces wind noise in the audio data.

A device for capturing rendered text is described. The device incorporates one or more visual sensors that receive visual information as a part of capturing rendered text. The visual sensors are collectively capable of capturing both text that is permanently printed on a page, and text that is displayed transitorily on a dynamic device. The device further incorporates a visual information disposition subsystem for disposing of visual information received by the visual sensors. The device further incorporates a package that bears the visual sensors and the visual information disposition subsystem, and is suitable to be held in a human hand.

A camera is configured with multiple microphones to reduce wind noise in audio data collected by the camera. The camera receives motion data, which may comprise data indicating acceleration of the camera, a plurality of video frames received by the camera, or a background level of noise associated with one or more microphones configured on the camera. The camera determines a motion vector from the motion data. The motion vector is parallel to the direction of motion of the camera. The camera selects a subset of one or more microphones in the direction of the motion vector. By recording audio data using the one or more selected microphones, the camera reduces wind noise in the audio data.

The disclosure is relating to a method and a system for remote management of a location-based spatial object. The system includes a database and a server. The server provides a remote management interface such as in a form of an electronic map or a street view. The interface allows a subscriber to remotely set multiple spatial information for one spatial object. The server receives the spatial object and its corresponding spatial information from the subscriber over a network, combined with various search criteria relating to the spatial object, resulting in the establishment of consolidated information for the location-based spatial object in the database. The system allows an end user to search the location-based spatial object using a mobile device at any place, and the user can obtain the spatial object combined with an instant real scene image.

Systems and methods realize the benefit of portable storage devices by taking advantage of PCs including an optical disk drive, optical disks, such as a CD or a DVD, and the Internet. An individual patient provides personal data to a healthcare service center. The healthcare service center can then create a portable optical disk for the patient to carry. The personal data written onto the portable optical disk is stored on a database management server database and is readable and updateable by the individual patient using his/her PC with an optical disk drive and connected to the Internet. The individual patient can choose to update his/her personal data on the portable optical disk and can receive a new portable optical disk that includes the update. The new portable optical disk containing the latest update is created and delivered to the patient by the database management server.

An example system includes at least one a first device and at least one second device. The first device includes a camera; memory for storing user-configurable name information and a picture captured by the camera; and communication circuitry for wirelessly transmitting the name information. The second device includes communication circuitry for wirelessly receiving the name information; a display controller for controlling display of a name based on the received name information; and a user interface for receiving, while the name is displayed, a user-supplied request for picture reception. The communication circuitry of the first device transmits the stored picture to the second device based on the picture reception request and the communication circuitry of the second device receives the transmitted picture.