Joint Source-Channel Coding and Channelization for Embedded Video Processing With Flash Memory Storage

This paper presents a joint source coding, channel coding, and flash memory channelization design framework to obtain optimized tradeoffs among energy consumption, bit rate, and end-to-end distortion (i.e., optimal E-R-D tradeoff space) for embedded and mobile devices with limited power source and a...

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Veröffentlicht in:IEEE transactions on signal processing 2012-08, Vol.60 (8), p.4403-4414
Hauptverfasser: Li, Yiran, Dong, Guiqiang, Zhang, Tong
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container_title IEEE transactions on signal processing
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creator Li, Yiran
Dong, Guiqiang
Zhang, Tong
description This paper presents a joint source coding, channel coding, and flash memory channelization design framework to obtain optimized tradeoffs among energy consumption, bit rate, and end-to-end distortion (i.e., optimal E-R-D tradeoff space) for embedded and mobile devices with limited power source and abundant flash memory storage capacity. The optimal E-R-D tradeoff space enables embedded and mobile devices to cohesively optimize the source coding and data storage system operations subject to run-time power source, storage capacity, and/or distortion constraints. By treating flash memory as a communication channel, this work differs from classical joint source-channel coding from two perspectives: i) Classical joint source-channel coding aims to obtain an optimized R-D (bit rate and distortion) tradeoff space, while we aim to obtain an optimized E-R-D tradeoff space; ii) Flash memory can be configured (or channelized) over an energy consumption versus raw bit error rate tradeoff spectrum, and channelization is an integral part of the joint design. With the focus on video coding, this paper presents theoretical investigations and specific approaches for both scenarios where channel can and cannot contribute to end-to-end distortion. Based on detailed power estimation and representative video sequences, we quantitatively demonstrate the application of the proposed design approaches for obtaining optimized E-R-D tradeoff space.
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subjects Applied sciences
Ash
Bit rate
Channels
Coding
Coding, codes
Design engineering
Detection, estimation, filtering, equalization, prediction
Distortion
Encoding
Energy consumption
Exact sciences and technology
Flash memory (computers)
H.264/AVC
Image processing
Information storage
Information theory
Information, signal and communications theory
joint source-channel coding
Joints
Memory management
Mobile communication systems
Motion estimation
NAND flash memory
Power sources
Signal and communications theory
Signal processing
Signal, noise
Studies
Telecommunications and information theory
video coding
title Joint Source-Channel Coding and Channelization for Embedded Video Processing With Flash Memory Storage
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