Dolby Laboratories Licensing Corporation (20240212693). METHODS, APPARATUS AND SYSTEMS FOR ENCODING AND DECODING OF DIRECTIONAL SOUND SOURCES simplified abstract
Contents
METHODS, APPARATUS AND SYSTEMS FOR ENCODING AND DECODING OF DIRECTIONAL SOUND SOURCES
Organization Name
Dolby Laboratories Licensing Corporation
Inventor(s)
Nicolas R. Tsingos of San Francisco CA (US)
Mark R. P. Thomas of Walnut Creek CA (US)
Christof Fersch of Neumarkt (DE)
METHODS, APPARATUS AND SYSTEMS FOR ENCODING AND DECODING OF DIRECTIONAL SOUND SOURCES - A simplified explanation of the abstract
This abstract first appeared for US patent application 20240212693 titled 'METHODS, APPARATUS AND SYSTEMS FOR ENCODING AND DECODING OF DIRECTIONAL SOUND SOURCES
The disclosed methods in this patent application involve encoding or decoding directional audio data. Encoding methods may include receiving a mono audio signal corresponding to an audio object and a representation of a radiation pattern corresponding to the audio object. The radiation pattern includes sound levels for a plurality of sample times, frequency bands, and directions. The methods also involve encoding the mono audio signal and the source radiation pattern to determine radiation pattern metadata. Encoding the radiation pattern involves determining a spherical harmonic transform of the representation of the radiation pattern and compressing the spherical harmonic transform to obtain encoded radiation pattern metadata.
- Receiving a mono audio signal and a radiation pattern representation
- Encoding the mono audio signal and radiation pattern to determine metadata
- Determining a spherical harmonic transform of the radiation pattern
- Compressing the spherical harmonic transform to obtain encoded metadata
- Decoding directional audio data
Potential Applications: - Virtual reality audio experiences - Immersive gaming environments - Audio production and editing tools
Problems Solved: - Enhancing spatial audio quality - Efficient encoding and decoding of directional audio data
Benefits: - Improved audio realism - Enhanced user experience in virtual environments - Better audio production workflows
Commercial Applications: Title: Spatial Audio Encoding Technology for Virtual Reality Experiences This technology can be utilized in virtual reality headsets, gaming consoles, audio software tools, and entertainment systems to provide users with immersive and realistic audio experiences. The market implications include increased demand for high-quality spatial audio solutions in various industries such as gaming, entertainment, and audio production.
Prior Art: Researchers in the field of spatial audio technology have explored methods for encoding and decoding directional audio data using different mathematical transformations and compression techniques. Further investigation into prior patents and academic publications related to spherical harmonic transforms and audio signal processing can provide valuable insights into the development of this technology.
Frequently Updated Research: Stay updated on the latest advancements in spatial audio technology, including research on optimizing spherical harmonic transforms for efficient encoding and decoding of directional audio data. Explore new algorithms and techniques for enhancing spatial audio quality in virtual reality and gaming applications.
Questions about Spatial Audio Encoding Technology: 1. How does this technology improve the spatial audio experience for users? 2. What are the potential challenges in implementing this encoding method in real-time audio applications?
Original Abstract Submitted
some disclosed methods involve encoding or decoding directional audio data. some encoding methods may involve receiving a mono audio signal corresponding to an audio object and a representation of a radiation pattern corresponding to the audio object. the radiation pattern may include sound levels corresponding to plurality of sample times, a plurality of frequency bands and a plurality of directions. the methods may involve encoding the mono audio signal and encoding the source radiation pattern to determine radiation pattern metadata. encoding the radiation pattern may involve determining a spherical harmonic transform of the representation of the radiation pattern and compressing the spherical harmonic transform to obtain encoded radiation pattern metadata.
