Experimental results of SOA pre-amplification for 25G-EPON IEEE P802.3ca Task Force Meeting, March 2017 Vancouver BC, Canada

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Experimental results of SOA pre-amplification for 25G-EPON IEEE P802.3ca Task Force Meeting, March 2017 Vancouver BC, Canada Wei Yang Xin Gang Huang Jun Shan Wey Yong Guo

Motivation and purpose of this contribution It has been shown that the sensitivity of 25G APD is insufficient to meet the power budget requirements in the upstream direction. Therefore, it is necessary to have a preamplifier at the OLT In the Huntington Beach meeting, both simulation and experimental results of SOA in combination of PIN or APD were presented by Nokia, Huawei, ETRI, and Sumitomo. However, it was difficult to compare the results due to the wide variety of test conditions This contribution presents our experimental results and proposes a set of common test conditions to help compare results in the future 2

Outline Experiment results of four scenarios are shown a) DML+SOA+PIN b) DML+SOA+APD c) EML+SOA+PIN, varying ER of EML d) EML+SOA+APD, varying ER of EML Comparison of our test results with previous reported values Proposal of common test conditions 3

Comparison of test conditions and results from contributions in Huntington Beach SUMITOMO Nokia(Simulation) ETRI Huawei Tx DML - EML EML ER 4.5dB/6.1dB 6dB 7dB 11dB Gain SOA 16.49dB 17dB 13.9dB 14-23dB T SOA 40 25 - - NF SOA 5.87dB 7dB/8dB 8.7dB Max 8dB Filter LAN-WDM/CWDM/no filter 20nm/3.2nm LAN-WDM LAN-WDM/CWDM/ DWDM/no filter Rx PIN APD APD PIN/APD Best Sen.(@BER=1E-3) -29.5dBm @ER=6.1dB,LAN-WDM -28.4dBm @NF=7dB,BPF=20nm -26dBm -33.6dBm @DWDM,APD 4

Parameter values of the SOA used in our test Parameter Value Unit Operating Wavelength 1250-1350 nm Peak wavelength 1277 nm Peak Gain 24.1 db Gain Ripple 1.3 db Polarization Dependent Gain 1.8 db Saturation Output Power 10.8 dbm Noise Figure 6.5 db Drive current 200 ma Chip temperature 25 5

Experiment setup DML 25Gbps PPG Error Analyzer DML Tx 100G Transceiver PIN Rx APD CWDM SOA LAN-WDM 100G QSFP28 CWDM Optical Transceiver Parameter Value Unit Wavelength 1291 nm SMSR 30 db Launch power -6.5 ~ +2.5 dbm ER 3.5 db Tx bit rate 25 Gbps PIN Rx sens. @ 5e-5-10 dbm A 100G QSFP28 CWDM Optical Transceiver is used to test SOA+PIN, it has 4 DML Tx and 4 PIN Rx CWDM filter to select just one lane of the optical module, LAN-WDM as ASE filter Test conditions : Back-to-Back, NRZ, PRBS7, 25 Test 1: real time PIN receive Test 2: off-line processing calculating BER for APD receive (dash line) 6

BER Performance of DML+SOA+PIN vs DML+SOA+APD 1.E+00 1.E-01 1.E-02 1.E-03 1.E-04 1.E-05 25G DML+SOA+PIN/APD performance 2dB 10.4dB DML+PIN DML+APD DML+SOA+PIN DML+SOA+APD Rx Sensitivity (BER@1E-3): DML PIN APD SOA+PIN SOA+APD ZTE ER=4.1dB SUMITOMO ER=4.5dB -14.8dBm -24dBm -25.2dBm -26dBm -18dBm - -28.4dBm - 1.E-06 1.E-07 1.E-08 1.E-09-30 -25-20 -15-10 -5 0 Received power (dbm) a) Both results show DML+SOA+PIN can improve the receiver sensitivity by 10dB. b) DML+SOA+APD can improve receiver sensitivity by only 2dB. 7

Experiment setup EML 25Gbps PPG 25G EML TOSA Parameter Value Unit EML SOA Wavelength 1295.56 nm SMSR 35 db Error Analyzer DML Tx 100G Transceiver PIN Rx LAN-WDM Launch Power 0~3 dbm ER 6~10 db Tx bit rate 25 Gbps APD EML can be adjusted to have different extinction ratio Test conditions : Back-to-Back, NRZ, PRBS7, 25 Test 1: real time PIN receive Test 2: off-line processing calculating BER for APD receive (dash line) 8

Performance EML+SOA+PIN vs EML+SOA+APD 1.E+00 1.E-01 1.E-02 25G EML+SOA+PIN/APD performance EML+APD ER=6.79dB 5.9dB 15.6dB EML+APD ER=12.27dB EML+SOA+APD ER=6.79dB EML+SOA+APD ER=9.75dB EML+PIN ER=12.27dB EML+SOA+PIN ER=12.27dB Rx Sensitivity (BER@1E-3): ER PIN APD SOA+PIN SOA+APD ZTE 6.79dB -25.5dBm -29.4dBm ETRI 7dB -24.5dBm -26dBm Nokia 6dB -27.2dBm -28.4dBm BER 1.E-03 1.E-04 ZTE 9.75dB -13.8dBm -26.8dBm -29.4dBm -31.4dBm Huawei 11dB -27dBm -33.1dBm 1.E-05 1.E-06 1.E-07 1.E-08 1.E-09-35 -30-25 -20-15 -10-5 0 Received Power (dbm) 9 a) For the performance of EML+SOA+PIN, with EML ER=9.75dB, sensitivity can be improved 15.6dB up to -29.4dBm. b) For the performance of EML+SOA+APD, the ER of EML higher, the improvement of sensitivity of using SOA is better. When ER=9dB, SOA can improve the sensitivity by 5.9dB, sensitivity is -31.4dBm.

Summary of test results comparison PIN APD SOA+LAN-WDM+PIN SOA+LAN-WDM+APD ER= 4.1dB (ZTE) -14.78dBm -24 dbm -25.2 dbm -26 dbm ER=4.5dB (SUMITOMO) -18 dbm - -28.4 dbm - EML PIN [dbm] APD [dbm] SOA+LAN-WDM+PIN [dbm] SOA+LAN-WDM+APD [dbm] ER=6.79dB (ZTE) -25.5-29.4 ER=7dB (ETRI) -24.5-26 ER=6dB (Nokia) -27.2-28.4 ER=9.75dB (ZTE) -13.8-26.8-29.4-31.4 ER=11dB (Huawei) -17-27 -31.8-33.1 10

Experimental set of parameters proposition We propose to use the following parameters as the common set of test condition: 25G TOSA: DML EML ER=6dB ER=8dB O band SOA: Gain=20dB, NF=7dB Filter: LAN-WDM 25G ROSA: Commercial PIN/APD 11

Summary Experiment results of DML+SOA+LAN-WDM+PIN show that when extinction ratio of DML is 4dB, this configuration can improve receive sensitivity by 10dB to about -25dBm. Experiment results of EML+SOA+LAN-WDM+APD show that extinction ratio of EML has influence on the performance of sensitivity. When the extinction ratio is 6.79dB, this configuration can improve receiver sensitivity by 4 db to about -29dBm. The 25G PON power budget can be achieved with the use of SOA. For 100G PON, the additional WDM filter will bring challenges on the power budget. Higher gain of SOA and better OSNR will be needed. SOA sharing and dynamic range issues also need to be considered. Propose reference experimental test parameters to help have a more meaningful comparison of all the experimental results. Next steps Compare burst and continual mode amplification performance Test SOA dynamic range performance 12

Thank you