Doc.: IEEE 802.15 09-0526-00-0007 TG-VLC Submission Slide 1 Project: IEEE P802.15 Working Group for Wireless Personal Area Networks (WPANs) Submission.

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doc.: IEEE TG-VLC Submission Slide 1 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [Line coding performance in wireless optical channel] Date Submitted: [ ] Source: [Doyoung Kim, Jaeseung Son, Taehan Bae] Company [Samsung Electronics Co.,LTD] Address [Dong Suwon P.O. Box 105, 416 Maetan-3dong, Yeongtong-gu, Suwon-si, Gyeonggi-do, Korea] Voice:[ ], FAX: [ ], Re: [] Abstract:[We propose new line coding schemes.] Purpose:[Contribution to IEEE TG-VLC] Notice:This document has been prepared to assist the IEEE P It is offered as a basis for discussion and is not binding on the contributing individual(s) or organization(s). The material in this document is subject to change in form and content after further study. The contributor(s) reserve(s) the right to add, amend or withdraw material contained herein. Release:The contributor acknowledges and accepts that this contribution becomes the property of IEEE and may be made publicly available by P May 2009 Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009 Slide 2 Samsung Electronics Line coding performance in wireless optical channel Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009 Slide 3  Outline of VLC(Visible Light Communication) Block diagram of VLC system  Existing optical line coding method NRZ/RZ/Manchester/4B5B/8B6T/B8ZS/HDB3  Channel modeling of VLC system  Proposed ling coding method 3B-HBT  Performance comparison Contents Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  Block diagram of VLC system The following figure is block diagram of VLC system. Slide 4 Outline of VLC(Visible Light Communication) Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  Line coding Unipolar  Positive, zero Polar  Positive value, negative value Bipolar  Positive value, negative value, zero  Unipolar Advantage  Simple implementation Disadvantage  Direct Current component and synchronization Slide 5 Existing optical line coding method Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  Polar Use positive and negative voltage Advantage  Decrease of average voltage  Decrease of Direct Current component Example  NRZ(Non Return to Zero), RZ(Return to Zero), Manchester, Differential Manchester Slide 6 Existing optical line coding method Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  NRZ(Non Return to Zero) NRZ-L(Non Return to Zero-Level)  Positive voltage: 0 bit, Negative voltage: 1 bit  Synchronization problem by long stream same bit NRZ-I(Non Return to Zero, Invert on ones)  One of differential encoding example  Inversion of voltage is bit 1.  No inversion is bit 0.  Provide synchronization by inversion of voltage Slide 7 Existing optical line coding method Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  Manchester Data expression  Inversion between bit duration Advantage  Provide synchronization Self clocking code  No Direct Current component  Error Detection Used  Baseband coaxial cable, IEEE  Differential Manchester Data expression  Inversion between bit duration  0 bit: inversion at the start of bit duration Slide 8 Existing optical line coding method Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  Bipolar AMI(Alternate Mark Inversion)  Data expression 0 bit: zero voltage 1 bit: positive and negative voltage alternately  Advantage Provide synchronization in consecutive ‘1’ bit No Direct Current component Smaller bandwidth than NRZ Error detection  Disadvantage Consecutive ‘0 bit ‘ can cause Direct Current component and synchronization problem. Slide 9 Existing optical line coding method Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  B8ZS (Bipolar with 8 zero substitution) Replace consecutive eight 0 bit to 000VB0VB  HDB3 (High-density bipolar 3-zero) Replace consecutive four 0 bit to 000V or B00V Slide 10 Existing optical line coding method Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  4B5B block coding Extra bit used for synchronization Extra bit used for error detection  Conversion process 1 stage : separation  Separate bits into m bit groups 2 stage : alternation  Alternation from m bit groups to n bit groups 4 bit group(16 groups) to 5bit group(32 groups)  Use code which there is not consecutive zero or one  Used for error detection 3 stage : line coding  Simple line coding Slide 11 Existing optical line coding method Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  4B5B Advantage  Better error detection performance than AMI  Prevention of consecutive 0 and 1 bit Disadvantage  Waste of bandwidth(25%) Slide 12 Existing optical line coding method Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009 Slide 13 Existing optical line coding method Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  Simulation parameter Mobile to mobile case  Café environment  Divergence angle: 30º  Distance: 30cm Slide 14 Channel modeling of VLC system Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  B4-HBT Input = [ ]  Current bit level: -1 Input bit “1”: Half transition from “-1” to “+1” Input bit “0”: in case of five consecutive zeros, the first and the last 0 bit become “+1” and half transit from “-1” to “+1”  Current bit level: 0 Input bit “0”: 0 except five consecutive zeros Input bit “1”: Opposite conversion of previous 1’s switching  Current bit level: +1 Input bit “1”: Half transition from “+1” to “-1” Input bit “0”: in case of five consecutive zeros, the first and the last 0 bit become “+1” and half transit from “+1” to “-1”  Consecutive five zeros Previous and next five zeros have opposite conversion Slide 15 Proposed Line Coding Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009  B4-HBT vs 4B5B Slide 16 Performance comparison Jaeseung Son et al., Samsung AWGN Optical Channel

doc.: IEEE TG-VLC Submission July 2009 Slide 17 Characteristic of proposed line coding method B4-HBT - Reduce synchronization error by consecutive “0” - Error detection capability - No DC component - Easy synchronization Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009 Slide 18 Thank you Q&A Jaeseung Son et al., Samsung

doc.: IEEE TG-VLC Submission July 2009 Reference   Slide 19Jaeseung Son et al., Samsung