A method or system that receives input media including at least video data in which a video event within the video data is detected. Related data that is associated with the detected video event is collected and one or more feature parameters are configured based on the collected related data. The type of video event is determining and a set of feature parameters is selected based on the type of video event. A haptic effect is then automatically generated based on the selected set of feature parameters.

An image pickup device which captures sound and a moving image prevents deterioration in a reproduction quality. A scene change detector detects a frame at the time of a scene change from among a plurality of frames imaged at a predetermined frame rate as a detection frame. A frame rate converting unit converts a frame rate of the frame imaged outside a detection to a lower frame rate. A video reproduction time setting unit sets a reproduction time when reproduction is performed at the lower frame rate as a video reproduction time. An audio reproduction time setting unit sets an audio reproduction time at constant intervals for sounds recorded at constant intervals outside the detection period and sets an audio reproduction time in synchronization with the video reproduction time corresponding to the detection frame relative to sound recorded in the detection period.

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.

A script synchronization interface system is disclosed for synchronizing a script, shot properties, and one or more video files by mapping associated metadata. The script synchronization interface system includes an interactive script section, an interactive video section, and an interactive shot section. The interactive script section includes synchronized script dialog that is selectable by individual word. A selected word in the synchronized script dialog within the interactive script section is linked to a video frame and a combination of shot set-up and take information associated with the selected word in the script dialog. The interactive video section includes a video player that plays a synchronized video. The synchronized video in the interactive video section is linked to synchronized script dialog in the interactive script section and a combination of shot set-up and take information associated with the selected word in the script dialog. An interactive shot section may also be included that contains selectable vertical line segments, on-screen actor information, shot set-up information, and take numbers.

In some examples, a facility augments an audio-video sequence playback display with respect to a current playback position of the audio-video sequence within a time index range of the sequence. For a first portion of the time index range of the sequence containing the current playback position (CPP), the facility performs automatic voice transcription against the audio component to obtain speech text for at least one speaker. For a second portion of the time index range of the sequence containing the CPP, the facility performs automatic image recognition against the video component to obtain identifying information identifying at least one person, object, or location. Simultaneously with the sequence playback display and proximate to the sequence playback display, the facility displays one or more annotations each based upon (a) at least a portion of the obtained speech text, (b) at least a portion of the obtained identifying information, or (c) both.

A virtual reality system and a method of controlling working state of the virtual reality system. The virtual reality system comprises a video playing device and a virtual reality glasses box, and the virtual reality glasses box utilizes a screen of the video playing device to play a video content, the method comprises: establishing a wired or wireless connection between the video playing device and the virtual reality glasses box; when the video playing device is placed in the virtual reality glasses box, transmitting information of wearing state of the virtual reality glasses box to the video playing device; and controlling a playing state of the video playing device according to the wearing state of the virtual reality glasses box. The present disclosure controls the working state of the virtual reality device by the action of the user operating the device itself, and the user does not need to employ tedious and complicated operations to control each of the devices, which increases usability, and improves user experience.

The disclosed computer-implemented method may include systems and methods for automatically generating sound event subtitles for digital videos. For example, the systems and methods described herein can automatically generate subtitles for sound events within a digital video soundtrack that includes sounds other than speech. Additionally, the systems and methods described herein can automatically generate sound event subtitles as part of an automatic and comprehensive approach that generates subtitles for all sounds within a soundtrack of a digital videothereby avoiding the need for any manual inputs as part of the subtitling process.

A computer system configured to generate an audio description of a media file is provided. The system includes a display, a memory, and a processor coupled to the display and the memory. The memory stores a media file, including video data that is accessible via a time index and audio data synchronized with the video data by the time index and a transcript of the audio data, including transcription data synchronized with the video data via the time index. The processor is configured to render, via the display, images from portions of the video data; render text from portions of the transcription data in synchrony with the images; receive input identifying a point within the time index; receive input specifying audio description data to associate with the point; store, in the memory, the audio description data; and store an association between the audio description data and the point.

A 360 video is presented in a three dimensional (3D) environment. Rather than simply stacking graphics in two dimensions, graphics are placed using both 3D models and textures. The 3D models may be altered so that the texture is aligned in three dimensions into the 360 video space. An instance of a 3D model combined with a key and fill texture form a group. The group has a 3D orientation and placement so that the group as aligned into the 360 degree video space may not be visible from all user look directions. The inserted groups, including live video as well as static graphics, may be projected into either mono or stereo views to give the viewer a sense of space, depth, and orientation.

An electronic device and a method for recording a content execution screen are disclosed. The electronic device includes a memory and a processor electrically connected to the memory. The processor is configured to control for executing content, confirming at least one part of the content, and recording the at least one part of the content in association with a haptic effect.