RImCom: raster-order image compressor for embedded video applications

Title RImCom: raster-order image compressor for embedded video applications
Author Palaz, Okan, Uğurdağ, Hasan Fatih, Ozkurt, O., Kertmen, B., Donmez, F.
Publication Date: 2017
Publication Place - Springer International Publishing
Subject Embedded compression, Memory compression, Video processing, Bandwidth reduction, Lossless compression, ASIC, FPGA
Type Periodical
Language English
Digital Yes
Manuscript No
Library: Özyeğin University
Library Asset ID 1939-8018
Record ID b0ecc5fb-6e94-45a9-98e6-c2418535f6b4
Library Location Electrical & Electronics Engineering
Date 2017
Notes Due to copyright restrictions, the access to the full text of this article is only available via subscription.
Sample Text This paper presents a real-time, rate controlled, end-to-end (encoder and decoder) hardware solution for memory compression of raster-order video streams—named RImCom (short for Raster-order Image Compression). RImCom offers up to 3x compression that is either lossless or lossy at very reasonable PSNR values. The 180 nm ASIC implementation of RImCom achieves 28 fps at Ultra-HD resolution in the slow corner of synthesis. RImCom can match the fps of the state-of-the-art in the literature with 20 % less area or can achieve twice the fps with 55 % more area. Our FPGA implementation is the only end-to-end FPGA solution in the literature to achieve to this day over 60 fps at Full-HD resolution and to offer rate control. This work was motivated by video processing applications that require the previous frame(s) besides the current frame. When processing HD video streams, even when only one previous frame is required besides the current frame, a significant size and bandwidth of memory is needed. If the current frame is compressed on-the-fly with RImCom or a similar solution and stored on DRAM, and the previous frame is read from DRAM and decompressed with a small IP block, then the overall system cost, power consumption, and electromagnetic radiation are reduced.
DOI 10.1007/s11265-016-1211-9
Cilt 88
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RImCom: raster-order image compressor for embedded video applications

Author Palaz, Okan, Uğurdağ, Hasan Fatih, Ozkurt, O., Kertmen, B., Donmez, F.
Publication Date 2017
Publication Place - Springer International Publishing
Subject Embedded compression, Memory compression, Video processing, Bandwidth reduction, Lossless compression, ASIC, FPGA
Type Periodical
Language English
Digital Yes
Manuscript No
Library Özyeğin University
Library Asset ID 1939-8018
Record ID b0ecc5fb-6e94-45a9-98e6-c2418535f6b4
Library Location Electrical & Electronics Engineering
Date 2017
Notes Due to copyright restrictions, the access to the full text of this article is only available via subscription.
Sample Text This paper presents a real-time, rate controlled, end-to-end (encoder and decoder) hardware solution for memory compression of raster-order video streams—named RImCom (short for Raster-order Image Compression). RImCom offers up to 3x compression that is either lossless or lossy at very reasonable PSNR values. The 180 nm ASIC implementation of RImCom achieves 28 fps at Ultra-HD resolution in the slow corner of synthesis. RImCom can match the fps of the state-of-the-art in the literature with 20 % less area or can achieve twice the fps with 55 % more area. Our FPGA implementation is the only end-to-end FPGA solution in the literature to achieve to this day over 60 fps at Full-HD resolution and to offer rate control. This work was motivated by video processing applications that require the previous frame(s) besides the current frame. When processing HD video streams, even when only one previous frame is required besides the current frame, a significant size and bandwidth of memory is needed. If the current frame is compressed on-the-fly with RImCom or a similar solution and stored on DRAM, and the previous frame is read from DRAM and decompressed with a small IP block, then the overall system cost, power consumption, and electromagnetic radiation are reduced.
DOI 10.1007/s11265-016-1211-9
Cilt 88
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