SOA + PIN-PD receiver performance

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SOA + PIN-PD receiver performance Naruto TANAKA Daisuke UMEDA January 10-12 th, 2017 Sumitomo Electric Industries, LTD.

Introduction 25G APD receiver sensitivity was discussed in previous meeting. We showed the investigation about OMA sensitivity degradation of it. 25G receiver sensitivity in OLT side is still problem to overcome PR30 power budget and SOA pre-amplifier is desired to be applied for 100G-EPON with PIN-PD Rx. Sensitivities of SOA + PIN-PD Rx are evaluated. Those are evaluated with multiple WDM filters. ER dependency of OMA sensitivities is also checked. 2/7

Sensitivities of SOA + PIN-PD Rx PIN-PD ROSA and DML TOSA are the same samples used in tanaka_3ca_1116. SOA gain of sensitivity is 10.4dB@BER:1e-3 under Isoa:130mA and Tsoa:40degC with LAN-WDM filter of LR4/ER4. SOA+PIN-PD PIN-PD Rx only Isoa: 100, 70 40 [ma] 130 Gain:10.4dB DML ER is tuned to 4.5dB in this result. SOA current, Isoa is biased 40 to 130mA Received power are defined as the input to SOA in case SOA pre-amp is applied. Sensitivities are almost same at Isoa 100mA and 130mA because ASE power increases proportionally to gain increase in this region. 3/7

Pass bandwidth of WDM filters ASE spectrum passed through WDM filters. Isoa:130mA, Tsoa:40degC, SOA input power:-20dbm as average FWHM (Full width of -3dB magnitude) LAN-WDM BPF Lane3: 3.66nm, CWDM BPF 1311nm port: 18.4nm ASE spectrum through BPF (Filter loss is shifted for visibility) Wavelength at -3dB magnitude [nm] (ASE level w/o filter [dbm]) Left Right BW CWDM 1301.61 (-33.54) LANWDM 1307.37 (-34.47) 1320.01 (-36.91) 1311.03 (-35.19) 18.4 3.66 4/7

Influence of pass bandwidth of WDM filter Sensitivities are also compared to those with CWDM filter. Sensitivity is 0.85dB worse with CWDM filter @BER:1e-3. FWHM of this CWDM filter is 18.4nm. SOA+PIN-PD PIN-PD Rx only 0.85dB FWHM of LANWDM BPF: 3.66nm CWDM BPF : 18.4nm SOA DC gain: 16.49dB, NF: 5.87dB WDM BPF is indispensable (compare w/ WDM BPF to w/o BPF) 5/7

ER dependency of SOA + PIN-PD Rx OMA sensitivities are measured with 2 ER of DML TOSA. Those are 4.5dB and 6.1dB. OMA sensitivity is 0.99dB@BER:1e-3 better with 6.1dB ER than with 4.5dB. SOA+PIN-PD PIN-PD Rx only 0.99dB 6/7

Summary SOA + PIN-PD performances are simply shown with the measured data. Its sensitivity depends on the pass bandwidth of WDM BPF and ER of transmitter. 0.85dB worse w/ 5x wider bandwidth BPF in this measurement. ER dependency is observed and is caused by SOA ASE. Further considerations are needed if SOA pre-amp are applied on OLT side, for example receiving overload. Thank you 7/7

Back Up 8/7

Transmitters waveforms Transmitters waveforms for receiver evaluation Tx ER is tuned to 4.5, 6.1dB for DML. (Same sample shown in tanaka_3ca_1_1116.pdf) DML ER:4.5dB ER:5.3dB ER:6.1dB EML ER:4.9dB ER:5.8dB ER:9.5dB ER:9.9dB 0 level of low ER is noisy a little. 9/7

Measurement setup Measurement setup and losses of WDM filters are summarized. NRZ PRBS 2 31-1 1309.04nm ER:4.5dB, 6.1dB Spectrum Analyzer PPG (25.8Gbps) MP1800 25G DML Tx Waveforms are in previous page ATT SOA IN O-Band SOA A WDM DeMux Losses of WDM filters & splitter CWDM 1311nm port: 1.18dB LAN-WDM Lane3 : 0.60dB Splitter 9/10 port : 0.62dB (measured w/ DML source) Error Detector 25G CDR 25G PIN-PD Rx B 9/10 1:9 Splitter 1/10 for monitoring Losses b/w A and B LANWDM L3 : 1.22dB CWDM : 1.80dB No WDM filter: 0.62dB Measuring points of received power Case w/ SOA : SOA IN Case w/o SOA : B 10/7

SOA Gain and NF characteristics Gain is compressed with high SOA input power. (left graph) Data pattern effects will be observed in case of overload input. Wasting high SOA current is useless to get better NF. (right graph) linear region compressed 11/7

ASE spectrum Whole ASE spectrum passed WDM BPFs are plotted. 12/7

Amplified waveforms (10G) Amplified waveforms are observed with WDM filters. Isoa:130mA, Tsoa:40degC, Pin:-20dBm, 4dB ATT for SOA output to protect DCA port (10G waveforms are shown because we can t prepare 25G DCA for this measurement.) Waveforms are opened w/o filter and ASE biases their DC level. No WDM BPF Pave :-3.9dBm ER :2.40dB OMA :-6.6dBm CWDM BPF Pave :-7.1dBm +filter Loss => Pave :-5.9dBm ER :4.13dB OMA :-6.5dBm LANWDM BPF Pave :-7.2dBm +filter Loss => Pave :-6.5dBm ER :4.62dB OMA :-6.7dBm Same vertical scale and offset are applied in all figures. Pave increases w/ wide pass band filter and ER decreases. OMA is almost same without regard to the pass band width. 13/7