A method for producing a media file in an electronic device is provided. The method includes detecting an event during recording of media frames, determining at least one effect to be applied on the media frames, applying the determined effect on at least one of at least one first media frame from a first set of media frames and at least one second media frame from a second set of media frames, and generating a media file comprising the first and second sets of the media frames.

Exemplary drone detection, tracking, and control systems as well as related methods are provided. An exemplary system can include directional antennas and a movement system that moves the directional antennas in various azimuth and elevation orientations. A control system includes a video signal processor, a transceiver, an input/output system, a user interface, a wireless system, a machine instruction storage medium, and a plurality of machine readable instructions that operate the antenna assembly to detect, orient on, and record at least a video signal from a moveable platform as well as generate a graphical user interface (GUI) that shows a map with a user location, the antenna system location, and orientation of the antenna assembly with line of bearing. The GUI also displaying a plurality of radio channel and detected signal information. A display is provided that displays the GUI and enables user interaction with the GUI and system.

The present invention comprises an input part for inputting image data, a receiving part for receiving production information relating to production transmitted from another apparatus, a recording part for recording the production information received by the receiving part and image data input by the input part, a detection part for detecting a recording position on a recording medium at an editing point of image data recorded by the recording part, and a transmission part for transmitting information of the recording position detected by the detection part, whereby identification information for identifying image data and voice data is recorded in a recording medium or a recording device, this relieving a burden on a photographer and an editor and facilitating extraction of image data and voice data.

A system includes a processor configured to receive a capture instruction from a vehicle user. The processor is also configured to capture a plurality of center-stack display-related states responsive to the capture instruction. The processor is further configured to capture a predetermined amount of audio from a currently playing media source responsive to the capture instruction. The processor is additionally configured to store the captured center-stack related states and predetermined amount of audio in a record file and, responsive to selection of the record file, recreate a center stack display and audio output by respective reference to the display-related states and predetermined amount of audio stored in the record file.

Systems and methods for routing audio for audio-video recordings allow a user to record desired audio with captured video at the time the video is being captured. Audio from one or more sources may be routed to the video capture application and recorded with the video. In one or more examples, audio may be routed from another application, e.g., an audio playback application, running on the same device as the video capture application. In another example, audio may be received from a remote device through a wireless connection. Multiple streams of audio content may be mixed together prior to storing with video. The audio, upon reception, may then be routed to the video capture application for recordation. An audio progression bar may also be provided to indicate duration and elapsed time information associated with the audio being recorded.

A data recording control device includes a recording preparator that generates the file which includes a file type box including information related to a type indicating a type of a player capable of reproducing the file and header information of a media data box storing media data according to the stream data, on the recording media; a box determiner that writes a movie box which includes information used for reproducing the media data, updates a box size included in the header information of the media data box to a size of immediately before the movie box, and appends header information of a free space box which stores predetermined information to a tail of the movie box, during a predetermined period; and a data writer that appends the media data according to the stream data to a tail of the header information of the free space box.

Techniques are provided to implement the display of synchronized sensor data and captured video signal. A mobile computing device receives a set of data points from a multi-sensor device. The set of data points may be assigned a timestamp value, obtained from an internal clock within the mobile computing device. Sets of data points and their assigned timestamp values are aggregated into an aggregated sensor dataset that represents the sets of data points over a particular period of time. Concurrently to receiving the sensor data, video frames are received. The video frames with an assigned timestamp value are stored in a video frame dataset that represents video frames over a particular period of time. The aggregated sensor dataset and the video frame dataset are synchronized and combined into a single combined video dataset based upon the assigned timestamp values of the sets of data points and the video frames.

A recorded data processing method includes calculating, for each of N (N is a natural number of three or more) recorded data pairs each formed by two pieces of recorded data that are adjacent to each other when N pieces of recorded data each representing a recording target including at least one of audio or an image are arranged cyclically, a time difference between time signals representing temporal changes of the recording target in the two respective pieces of recorded data of the recorded data pair. It is also evaluated whether or not the N pieces of recorded data include recorded data having no relation according to a total value of N time differences calculated for the N recorded data pairs.

In order to eliminate timing offset between reproduction devices when a content transmitted from a distribution device is received and reproduced by a plurality of reproduction devices, data (SCR) indicating the elapsed time from the start of the content, generated by counting clock pulses, and data (FCR) indicating a frame number generated by counting the number of frames reproduced by a decoder (54) are transmitted by the distribution device, and a clock generation unit (103) in each reproduction device is controlled so that data (STC) indicating the elapsed time and data (FTC) indicating the frame number, which are generated in the same manner by each reproduction device, match the transmitted data (SCR, FCR). Synchronization between reproduction devices can thereby be established even when, in a state in which a content is being reproduced by one reproduction device, another reproduction device subsequently connects to the distribution device.

A movie editor converts a received movie into a proxy format, and creates a texture strip representing the frames of the movie. An editor can use the texture strip to edit the movie, rather than editing the movie directly. Deep tags and/or special effects can be defined for the texture strip using a graphical interface. The graphical interface enables movies to be combined into a playback product according to a control structure graphically presented in the graphical interface.