Abstract: Methods and systems for frame rate scalability are described. Support is provided for input and output video sequences with variable frame rate and variable shutter angle across scenes, or for input video sequences with fixed input frame rate and input shutter angle, but allowing a decoder to generate a video output at a different output frame rate and shutter angle than the corresponding input values. Techniques allowing a decoder to decode more computationally-efficiently a specific backward compatible target frame rate and shutter angle among those allowed are also presented.

Abstract: Methods and systems for frame rate scalability are described. Support is provided for input and output video sequences with variable frame rate and variable shutter angle across scenes, or for input video sequences with fixed input frame rate and input shutter angle, but allowing a decoder to generate a video output at a different output frame rate and shutter angle than the corresponding input values. Techniques allowing a decoder to decode more computationally-efficiently a specific backward compatible target frame rate and shutter angle among those allowed are also presented.

Abstract: Methods and systems for frame rate scalability are described. Support is provided for input and output video sequences with variable frame rate and variable shutter angle across scenes, or for input video sequences with fixed input frame rate and input shutter angle, but allowing a decoder to generate a video output at a different output frame rate and shutter angle than the corresponding input values. Techniques allowing a decoder to decode more computationally-efficiently a specific backward compatible target frame rate and shutter angle among those allowed are also presented.

Abstract: Methods and systems for frame rate scalability are described. Support is provided for input and output video sequences with variable frame rate and variable shutter angle across scenes, or for input video sequences with fixed input frame rate and input shutter angle, but allowing a decoder to generate a video output at a different output frame rate and shutter angle than the corresponding input values. Techniques allowing a decoder to decode more computationally-efficiently a specific backward compatible target frame rate and shutter angle among those allowed are also presented.

Abstract: Methods and systems for frame rate scalability are described. Support is provided for input and output video sequences with variable frame rate and variable shutter angle across scenes, or for input video sequences with fixed input frame rate and input shutter angle, but allowing a decoder to generate a video output at a different output frame rate and shutter angle than the corresponding input values. Techniques allowing a decoder to decode more computationally-efficiently a specific backward compatible target frame rate and shutter angle among those allowed are also presented.

Abstract: Methods and systems for frame rate scalability are described. Support is provided for input and output video sequences with variable frame rate and variable shutter angle across scenes, or for input video sequences with fixed input frame rate and input shutter angle, but allowing a decoder to generate a video output at a different output frame rate and shutter angle than the corresponding input values. Techniques allowing a decoder to decode more computationally-efficiently a specific backward compatible target frame rate and shutter angle among those allowed are also presented.

Abstract: Embodiments are directed to pacing on-demand linear advertisement entries to appear as being live entries, to generating a sequential segment map from a parallel playlist and to consolidating linear ad and main content portions into a single linear chunklist. In one embodiment, a computer system receives video content updates for a portion of live video programming, and generates a parallel playlist with parallel playlist entries that identify a presentation that is to be played. The computer system then generates a sequential segment map from the parallel playlist that identifies which parallel playlist entry is to be played, monitors a live position for new media, determines that an on-demand linear advertisement is to be played at the live position, and appends on-demand linear advertisement chunks to a chunklist to replace the main content chunks and play the on-demand linear advertisement entries in a pseudo-live format as if they were live.

Abstract: Embodiments are directed to pacing on-demand linear advertisement entries to appear as being live entries, to generating a sequential segment map from a parallel playlist and to consolidating linear ad and main content portions into a single linear chunklist. In one embodiment, a computer system receives video content updates for a portion of live video programming, and generates a parallel playlist with parallel playlist entries that identify a presentation that is to be played. The computer system then generates a sequential segment map from the parallel playlist that identifies which parallel playlist entry is to be played, monitors a live position for new media, determines that an on-demand linear advertisement is to be played at the live position, and appends on-demand linear advertisement chunks to a chunklist to replace the main content chunks and play the on-demand linear advertisement entries in a pseudo-live format as if they were live.