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Two-parallel concatenated BCH super-FEC architecture for 100-GB/S optical communications

Sangho Yoon, Hanho Lee, Kihoon Lee, Chang-Seok Choi, Jongyoon Shin, Jong-Ho Kim, Je-Soo Ko

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Abstract

This paper presents a high-speed Forward Error Correction (FEC) architecture based on the concatenated BCH code for 100-Gb/s optical communication systems. The concatenated BCH code consists of BCH(3860, 3824) and BCH(2040, 1930), which provides 7.98dB net coding gain at 10−12corrected bit error rate without additive overhead as compared with the Reed-Solomon(255, 239) standardized in ITU-T G.975 and G.709. This architecture has been implemented with 90-nm CMOS standard cell technology in a supply voltage of 1.1V. The implementation results show that the concatenated BCH Super-FEC architecture can operates at a clock frequency of 400MHz and has a throughput of 102.4-Gb/s for 90-nm CMOS technology.

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What this paper is about

This paper presents a high-speed Forward Error Correction (FEC) architecture based on the concatenated BCH code for 100-Gb/s optical communication systems. The concatenated BCH code consists of BCH(3860, 3824) and BCH(2040, 1930), which provides 7.98dB net coding gain at 10−12corrected bit error rate without additive overhead as compared with the Reed-Solomon(255, 239) standardized in ITU-T G.975 and G.709. This architecture has been implemented with 90-nm CMOS standard cell technology in a supply voltage of 1.1V. The implementation results show that the concatenated BCH Super-FEC architecture can operates at a clock frequency of 400MHz and has a throughput of 102.4-Gb/s for 90-nm CMOS technology.

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Available abstract

This paper presents a high-speed Forward Error Correction (FEC) architecture based on the concatenated BCH code for 100-Gb/s optical communication systems. The concatenated BCH code consists of BCH(3860, 3824) and BCH(2040, 1930), which provides 7.98dB net coding gain at 10−12corrected bit error rate without additive overhead as compared with the Reed-Solomon(255, 239) standardized in ITU-T G.975 and G.709. This architecture has been implemented with 90-nm CMOS standard cell technology in a supply voltage of 1.1V. The implementation results show that the concatenated BCH Super-FEC architecture can operates at a clock frequency of 400MHz and has a throughput of 102.4-Gb/s for 90-nm CMOS technology.

Key concepts: BCH code, Reed–Solomon error correction, Forward error correction, Computer science, Error detection and correction, Coding gain, Clock rate, Overhead (engineering)

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