Simula'on Study on 100G EPON Wavelength Plan A. Eugene (Yuxin) Dai Cox Communica'ons IEEE 802.3ca 100G EPON TF November, 2016 San Antonio, Texas, USA

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Transcription:

Simula'on Study on 100G EPON Wavelength Plan A Eugene (Yuxin) Dai Cox Communica'ons IEEE 802.3ca 100G EPON TF November, 2016 San Antonio, Texas, USA

Background A all O band wavelength plan was presented at September interim mee'ng at Dallas in a joint contribu'on johnson_3ca_1a_0916.pdf. Ques'ons were brought out regarding Huawei s simula'ons on FWM at zero dispersion region. This contribu'on provides a comparison study based on the author s works on the same subjects. 2

Outline Comparison study against Huawei s simula'ons results on plan A FWM when zero dispersion is at the center of channel 3 FWM when zero dispersion is at the middle between channel 3 and channel 2 3

All O band wavelength plan A from Dallas meefng* * P 8, johnson_3ca_1a_0916.pdf Upstream ch 3 is in the zero dispersion region of G.652 SM fibers Zero dispersion could be at the center of ch 3 (scenario 1) Upstream ch 2 is at the edge of zero dispersion region Zero dispersion could be at the middle of ch 3 & ch 2 (scenario 2) FWM could be problems in both scenarios 4

Huawei s results on scenario 1* From the graph above, the 10-3 BER power is about -29 dbm, and that is too opfmisfc for a 25 Gbps NRZ rate with 4 WDM channels in the presence of fiber nonlinear impairments such as FWM, XPM, etc., especially in the zero dispersion region At a 25 Gbps rate, even for a single channel the -29 dbm receiving power at 10-3BER is challenging The comparison simulafon study generally disagrees with Huawei s * p15

Performance of single channel 25Gbps NRZ BER 1.E-01 1.E-03 1.E-05 1.E-07 1.E-09 0 ps/nm/km 1.E-11 1.E-13-28 -26-24 -22-20 -18 Power dbm As a baseline reference, the performance of a P2P 25 Gbps NRZ link was evaluated under the PON ODN loss (24 db) External modulafon and APD receiver were used Fiber dispersion was set to zero The 10-3 BER reference power is at 23.6 dbm The result is inline with PR 30

4X25 Gbps PON WDM upstream simula'on setup OLT RX ONU TX APD Filter EM NRZ 1011 APD Filter 1:32 EM NRZ 1011 APD Filter EM NRZ 1011 APD Filter EM NRZ 1011 To simulate US worst case, power spliders were placed at CO/HE 20 km ODN with with loss and other link penalfes = 24 db All channels transmit at the same opfcal power levels, from 2 dbm to 10 dbm in 1 dbm step FWM,XPM and other nonlinear effects were considered 7

Scenario 1: Zero dispersion at ch 3 800 GHz even channel spacing, zero dispersion at channel 3 Ch 3 Ch 2 Ch 1 Ch 0-20 14 9-30 4-1 f -40 0 19 14-50 9 4-60 -1-70 19 14-80 9 4-90 -1 19-100 14 228 230 232 234 9 Frequency THz -1 OpFcal spectrum of 4 channels 19 4 CH3 CH2 CH1 CH0 Power dbm -20-30 -40-50 -60-70 -80-90 -100 FWM under ch3 Zero dispersion and ch 3 was set at 230.4THz Eye diagrams show the FWM penalty at ch 3 228 230 232 234 Frequency THz OpFcal spectrum of 3 channels

Scenario 1: Zero dispersion at ch 3 BER 1.E-01 1.E-03 1.E-05 1.E-07 1.E-09 1.E-11 1.E-13 1.E-15 1.E-17 1.54 dbm Ch 3 Ch 0-28 -26-24 -22-20 Power dbm Ch 3 shows 1.54 dbm op'cal power penalty due to FWM and other nonlinear effects FWM significantly impacts the BER of ch 3 9

Huawei s results on scenario 2* * p17 Same as scenario 1, the 10-3 BER power is about -29 dbm, and that is too opfmisfc for a 25 Gbps NRZ rate with 4 WDM channels The comparison simulafon study generally disagrees with Huawei s

Scenario 2: Zero dispersion is in the middle of ch 3 and ch 2 Power dbm Ch 3-30 -40-50 -60-70 -80-90 -100 227 229 231 233 Frequency THz f 0 Ch 2 Ch 1 Ch 0 20 15 10 5 0-5 CH 3 20 15 10 5 0 CH 2-5 25 20 15 10 5 CH 1 0-5 25 20 15 CH 0 10 5 0-5 800 MHz even channel spacing and the zero dispersion is in the middle of Ch 2 and Ch 3 Eye diagrams of Ch 3 and ch 2 show strong noises

Scenario 2: Zero dispersion is in the middle of ch 3 and ch 2 BER 1.E+00 1.E-01 1.E-02 1.E-03 1.E-04 1.E-05 1.E-06 1.E-07 1.E-08 1.E-09 1.E-10-28 -27-26 -25-24 -23-22 -21-20 -19 Ch 2 (noisy ch)shows 1.1 dbm opfcal power penalty due to the FWM and other nonlinear effects in comparison with ch 0 (clean ch) FWM has significant impacts on the BER of ch 2 FWM and other nonlinear penalfes limit the the dynamic range of receiving power of ch 2 to be ~ 3 db Ch 0 Ch 2 Power dbm 3.1 db 1.1 dbm

Conclusions FWM and nonlinear effects are significant when zero dispersion is at the center of channel 3 FWM and other nonlinear effects are significant when zero dispersion is at the middle of channel 3 and channel 2 The results of the comparison study in general in disagree with Huawei s simula'on results The origins of the observed results will be discussed in dai_3ca_1_1116 13

Eugene.dai@cox.com 14