A video recording system includes a camera sensor, a controller in communication with the camera sensor, and a memory in communication with the controller. The memory includes a video recording application that causes the controller to: store video from the camera sensor; receive a user input to associate an enhanced time marker in the video, and generate a video clip from a subset of the stored video. The video clip begins at a video frame associated with a start time point and ends at a video frame associated with an end time point, and the start and end time points are dependent on the time point associated with the enhanced time marker.

A method of modifying metadata associated with a media file is described the method comprising receiving a first media file; receiving a first metadata associated with the first media file; receiving an identifier of a second media file; and modifying the first metadata to include the identifier of the second media file.

An information processing apparatus that displays video content on a first display region in a display section as a first video, displays the above-mentioned video content on a second display region in the above-mentioned display section as a second video delayed from the above-mentioned first video by a predetermined time, and sets a first tag inputted by a user into the above-mentioned first video and a second tag inputted by the above-mentioned user into the above-mentioned second video as tags for the above-mentioned video content.

Playing video in a format that matches user device includes downloading a video from a server; loading the video into a player; checking if the video contains metadata specifying resolution and crop parameters that matches user device; if metadata is found, then identifying a frame from the video and define a focus point in center of frame; limiting view of the frame and reduce/enlarge video resolution inside viewzone based on the metadata or data; displaying viewzone so that vertical dimension of the viewzone matches a vertical dimension of the user device, and the focus point remains in the center of the frame and in the center of the user device; upon user rotation of the user device, re-displaying the frame such that the focus point remains in the center of the device, and a horizontal dimension of the viewzone matches a horizontal dimension of user device; and continuing rendering subsequent frames of the video, layers and effects.

An electronic apparatus includes an input unit configured to input a time code from an external device, a determination unit configured to determine whether or not a time address of the time code input from the input unit is advancing, a recording unit configured to record a video signal, and a control unit configured to control to cause the recording unit to start recording of the video signal in a case that it is determined by the determination unit that the time address is advancing.

Software is provided to collect events that transpire during an event. Captured video of the event can then be aligned to the events by calculating an offset between timestamps provided by the devices used to capture the action data and film data. A video clip can be sourced to review events that occurred.

The present invention enables correct placement of an electronic mark on a frame of captured image data intended by a remote control apparatus performing monitoring. Monitoring image data with a time code is transmitted to an external device. A command (an electronic mark placement command, or the like) to which a time code value showing a command target frame in the monitoring image data is added is received from the remote control apparatus. Processing based on the command is performed on a frame corresponding to the time code value added to the command, among image data corresponding to the monitoring image data recorded on a recording medium.

A clip of shots is uploaded to a conformance platform. The conformance platform evaluates the clip type and initiates shot boundary evaluation and detection. The identified shot boundaries are then seeded for OCR evaluation and the burned in metadata is extracted into categories using a custom OCR module based on the location of the burn-ins within the frame. The extracted metadata is then error corrected based on OCR evaluation of the neighboring frame and arbitrary frames at pre-computed timecode offsets from the frame boundary. The error corrected metadata and categories are then packaged into a metadata package and returned back to a conform editor. The application then presents the metadata package as an edit decision list with associated pictures and confidence level to the user. The user can further validate and override the edit decision list if necessary and then use it to directly to conform to the online content.

Disclosed are systems and methods for improving image recognition by using information from sensor data. In one embodiment, the method comprises receiving one or more sensor records, the sensor records representing timestamped sensor data collected by a sensor recording device; selecting an event based on the sensor records; identifying a time associated with the event; retrieving a plurality of timestamped video frames; synchronizing the sensor records and the video frames, wherein synchronizing the sensor records and the video frames comprises synchronizing the timestamped sensor data with individual frames of the timestamped video frames according to a common timeframe; and selecting a subset of video frames from the plurality of timestamped video frames based on the selected event.

Software is provided to collect events that transpire during an event. Captured video of the event can then be aligned to the events by calculating an offset between timestamps provided by the devices used to capture the action data and film data. A video clip can be sourced to review events that occurred.