Two-dimensional non-separable quaternionic paraunitary filter banks

N. Petrovsky, Eugene V. Rybenkov, A. Petrovsky
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引用次数: 15

Abstract

This paper presents a novel technique of factorization for 2-D non-separable quaternionic paraunitary filter banks (2-D NSQ-PUFB). Two-dimensional factorization structures called “16in-16out” and “64in-64out” respectively for 4-channel and 8-channel $\boldsymbol{Q}$-PUFB based on the proposed technique are shown. The given structures can be mapped to parallel-pipeline processor architecture with a minimum latency time $2 (\boldsymbol{N}+1)$ quaternion multiplication operations, where $\boldsymbol{N}$ is transform order of the $Q$-PUFB. The latency of parallel-pipeline processing does not depend on the size of the original image in contrast to the conventional 2-D transform. The coding gains $\boldsymbol{CG_{MD}}$ of 2-D non-separable Q-PUFBs for the isotropic auto-correlation function model with the correlation factor $\boldsymbol{\rho}=0.95$ are the following: $\boldsymbol{C}\boldsymbol{G}_{MD}=13.4\ \text{dB}$ for “16in-16out” structure and $\boldsymbol{C}\boldsymbol{G}_{MD}=15.6\ \text{dB}$ for “64in-64out” structure.
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二维不可分四元子准酉滤波器组
提出了一种二维不可分四元子准酉滤波器组(2-D NSQ-PUFB)的分解新方法。给出了基于该技术的4通道和8通道$\boldsymbol{Q}$-PUFB的二维分解结构分别为“16in-16out”和“64in-64out”。给定的结构可以映射到并行流水线处理器架构,其最小延迟时间为$2 (\boldsymbol{N}+1)$四元数乘法运算,其中$\boldsymbol{N}$为$Q$-PUFB的变换顺序。与传统的二维变换相比,并行管道处理的延迟不依赖于原始图像的大小。对于相关因子为$\boldsymbol{\rho}=0.95$的各向同性自相关函数模型,二维不可分Q-PUFBs的编码增益$\boldsymbol{CG_{MD}}$为:$\boldsymbol{C}\boldsymbol{G}_{MD}=13.4\ \text{dB}$为“16in-16out”结构,$\boldsymbol{C}\boldsymbol{G} {MD}=15.6\ \text{dB}$为“64in-64out”结构。
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