A recording apparatus includes an imaging data acquisition unit, a movement information acquisition unit, an inter-vehicle detection unit and a recording control unit. The imaging data acquisition unit acquires imaging data and voice data. The movement information acquisition unit acquires movement information including a moving speed of the vehicle. The inter-vehicle detection unit detects an inter-vehicle distance between the vehicle and the other vehicle. The recording control unit determines that a voice recording condition is established when the moving speed of the vehicle is equal to or higher than a preset speed and the inter-vehicle distance is less than a preset distance, and causes the recording unit to record a first imaging data including the video data and the voice data when the voice recording condition is established or a second imaging data including the video data but not the voice data when the condition is not established.

An electronic device includes a display; a camera; a memory; and a processor operatively connected to the display, the camera, and the memory where the memory stores instructions which, when executed, enable the processor to determine a number of at least one source frame per unit second based on a specified maximum exposure time, receive light reflected from an external object by using the camera, for an exposure time determined according to a specified exposure value, generate source frames based on the received light, and generate a time-lapse image including at least one target frame indicating movement of the external object based on source frames, and the instructions cause the processor to generate the source frames at a speed different from a speed at which the time-lapse image including the at least one target frame is played.

Methods for generating meta-tagged media files, in which features of an event recorded in the media file are tagged to identify content, are disclosed herein. The methods include independent and simultaneous generation of a media file and meta-tags, and the combination of the media file and the meta tags based on a correlation of device times to generate the meta-tagged media file.

Methods for generating meta-tagged media files, in which features of an event recorded in the media file are tagged to identify content, are disclosed herein. The methods include independent and simultaneous generation of a media file and meta-tags, and the combination of the media file and the meta tags based on a correlation of device times to generate the meta-tagged media file.

A method and system for recording and playing a video are provided. The method includes receiving an input, from a first user, to start recording of the video. An orientation of a recording device is detected for a plurality of frames while recording the video. An input to stop recording of the video is then received. The video is stored in a video file and the orientation of the recording device for the plurality of frames is stored as metadata associated with the video file. The playing includes receiving an input to play the video from a second user. An orientation of a playing device is detected. The video file is accessed, and the video is played using the metadata, the input received from the second user, and the orientation of the playing device. The video file is used to control speed and direction of the video.

A computerized system for verifiable pairing physical assets with digital representations comprising a set of non-transitory computer readable instructions for retrieving a design record having a material list, retrieving a supplier record according to the design record and according to a first verification, retrieving a shipping record according to the supplier record and according to a second verification, and creating a material receipt record including a third verification representing that the material is received at the location and is the same material that was designated in the designer, provided by the supplier, received by the shipper and delivered to the location.

A video processing device includes a state memory storing a plurality of setting states of each setting related to video processing; a state applying processor configured to apply the setting states to the settings related to the video processing; a history memory setting a series of changes in the settings related to the video processing as a change history of one group and store a plurality of change histories of the one group; a history reproduction processor reproducing the series of changes of the settings; an execution sequence memory configured to store a sequence of the setting states to be applied among the plurality of setting states and the change histories; and a sequencer configured to execute the application of the setting states by the state applying processor and the reproduction of the change histories by the history reproduction processor in the sequence stored in the execution sequence memory.

A telematics camera includes a housing, including a plurality of sensors; a camera configured to capture an image of a scene; a communication input-output; and an input port configured to be connected in communication with an electronic engine control module of a vehicle.

A vehicle takes and evaluates an image of the surroundings of the vehicle. If the result of the evaluation is that the image possibly contains a static object that could be suitable as a landmark, then the image and a position of the vehicle ascertained by the vehicle at the location at which the image is taken are transmitted to a data processing station. Image analysis of the received image allows the data processing station to establish whether the supposedly static object is suitable as a landmark. When the object has been verified as a landmark, the data processing station creates a data record describing the object, which data record is transmitted to the vehicle.

A vehicle takes and evaluates an image of the surroundings of the vehicle. If the result of the evaluation is that the image possibly contains a static object that could be suitable as a landmark, then the image and a position of the vehicle ascertained by the vehicle at the location at which the image is taken are transmitted to a data processing station. Image analysis of the received image allows the data processing station to establish whether the supposedly static object is suitable as a landmark. When the object has been verified as a landmark, the data processing station creates a data record describing the object, which data record is transmitted to the vehicle.