See how temporal-layer reference selection reduces complexity in multilayer video decoding by d
See how sublayer number information and temporal IDs select candidate reference pictures to imp
See how conditional bidirectional motion estimation based on reference picture matching and mot
A downward-facing cabin optical layout shifts high resolution to the image periphery, capturing both driver and rear-seat occupants clearly.
Shared contexts for horizontal and vertical motion vector differences cut entropy-coding complexity while improving probability adaptation and compression.
Reduced-precision slope and offset values initialize entropy coding contexts with lower memory demand and little impact on video coding efficiency.
Switching between low-complexity and high-efficiency entropy decoding modes helps media decoders balance coding efficiency, complexity, and energy use.
Equal-length input vector segments plus recursive energy-difference encoding reduce large codeword indices and improve bit allocation.
Using 8-bit context values split into 4-bit slope and offset parts reduces entropy-coding memory while preserving video compression efficiency.
Adaptive entropy decoding switches between low-complexity and high-efficiency modes to balance coding efficiency, decoder complexity, and energy use.
Adaptive switching between CABAC and CAVLC balances coding efficiency, decoder complexity, and energy use in media decoding.
A truncated unary plus Exp-Golomb scheme cuts context count for motion vector differences while improving probability adaptation in video decoding.
A unified CABAC context for horizontal and vertical motion vector differences cuts context count while preserving probability adaptation and coding efficiency.
Selective HEVC context selection drops some upper or side block references to cut memory use and processing load without hurting image quality.
Reduced-precision slope and offset values initialize 126 entropy-coding probability states, cutting memory demand with slight coding-efficiency gains.
A nested entropy structure cuts motion-vector bitstream overhead while preserving correct parsing and error resilience in video decoding.
Bitstream-driven switching between CABAC and CAVLC helps media decoders balance coding efficiency, complexity, energy use, and compatibility.
A unified context sharing rule lets video encoders code transform coefficients across transform sizes with fewer models and better distribution capture.
A shared-context truncated unary and Exp-Golomb scheme improves motion vector difference coding efficiency while simplifying decoding.
Splitting SAO data between context-adaptive and bypass arithmetic coding improves HEVC parallel processing while reducing coding burden.
A shared context and two-bin truncated unary coding reduce motion vector difference complexity while maintaining efficient video reconstruction.