The proliferation of high-resolution displays and the rise of immersive technologies like VR/AR are fueling an insatiable appetite for data-intensive content. Simultaneously, regulatory pressures for environmental sustainability (Green Transformation) and the escalating costs of cloud infrastructure are forcing industries to seek more efficient data management solutions. This technology provides a timely answer, enabling companies to meet consumer expectations for quality while significantly reducing operational expenditure and environmental footprint in a competitive global market.
Improves video encoding efficiency by up to 30% compared to conventional hierarchical encoding by optimally encoding main and sub-picture regions separately.
Enables stable high-quality video delivery with low bandwidth by maintaining primary video region quality while efficiently handling remaining areas, ensuring stable high-definition delivery without compromising user experience.
Offers flexible system integration and scalability, easily integrating into existing video processing pipelines and adapting flexibly to future video formats and delivery requirements.
This patent protects a core technology for hierarchical video encoding and decoding, specifically focusing on dividing video into main and sub-picture regions for optimized processing. Its strong claim stability is evidenced by a smooth examination process, rapid grant, and registration after comparison with six prior art documents, indicating a robust and well-defined scope.
White space exists in developing specialized hardware accelerators for this encoding method or integrating it with advanced AI-driven content analysis for dynamic region segmentation. Further IP could also be built around adaptive streaming protocols that leverage these hierarchical layers for optimized delivery.
For a video streaming service with 100 PB of annual data transmission and storage, assuming an average cost of ~$20K/PB (AI est.) with existing technology, a 30% improvement in encoding efficiency from this technology could result in a ~$500K/year (AI est.) reduction (100 PB × $20K/PB × 0.30). Including power cost savings from reduced server load and revenue growth from new high-value services, the total economic impact could exceed ~$1.5M/year (AI est.).
X: Encoding Efficiency
Y: Image Quality Preservation