Toward Baseline for 400GBASE-ZR Optical Specs

Similar documents
100G-FR and 100G-LR Technical Specifications

400G-FR4 Technical Specification

100GBASE-DR2: A Baseline Proposal for the 100G 500m Two Lane Objective. Brian Welch (Luxtera)

200GBASE-DR4: A Baseline Proposal for the 200G 500m Objective. Brian Welch (Luxtera)

SMF Ad Hoc report. Pete Anslow, Ciena, SMF Ad Hoc Chair. IEEE P802.3bm, Geneva, September 2012

100G SR4 Link Model Update & TDP. John Petrilla: Avago Technologies January 2013

40G SWDM4 MSA Technical Specifications Optical Specifications

40GBASE-ER4 optical budget

Cisco 10GBASE Dense Wavelength-Division Multiplexing XFP Modules

Cisco ONS Exposed Faceplate Mux/Demux 48-Channel Extended Bandwidth Patch Panel and Splitter Coupler Module

Proposal for 400GE Optical PMD for 2km SMF Objective based on 4 x 100G PAM4

100G CWDM Link Model for DM DFB Lasers. John Petrilla: Avago Technologies May 2013

40G SWDM4 MSA Technical Specifications Optical Specifications

10GBASE-LRM Interoperability & Technical Feasibility Report

Cisco 10GBASE Dense Wavelength-Division Multiplexing SFP+ Modules

100G MMF 20m & 100m Link Model Comparison. John Petrilla: Avago Technologies March 2013

100GBASE-FR2, -LR2 Baseline Proposal

100GBASE-SR4 Extinction Ratio Requirement. John Petrilla: Avago Technologies September 2013

Component BW requirement of 56Gbaud Modulations for 400GbE 2 & 10km PMD

MTS/T-BERD 8000 Platform

Tunable SFP+ DWDM 10G 80Km ZR SLSSD-10GE-ZR-T

MTS/T-BERD 8000 Platform Optical Spectrum Analyzer Modules

Technical Feasibility of Single Wavelength 400GbE 2km &10km application

64G Fibre Channel strawman update. 6 th Dec 2016, rv1 Jonathan King, Finisar

MTS/T-BERD Platforms WDMPMD Module

50 Gb/s per lane MMF baseline proposals. P802.3cd, Whistler, BC 21 st May 2016 Jonathan King, Finisar Jonathan Ingham, FIT

Recommended Changes to Optical PMD Proposal

WaveReady WRT Gbps Extended-Reach DWDM Tunable Transponder with XFP Client Interface

EVLA Fiber Selection Critical Design Review

Comparison of options for 40 Gb/s PMD for 10 km duplex SMF and recommendations

PAM8 Baseline Proposal

LambdaFLEX Zero Chirp Tunable XFP Module TL8800ZPCND

DWDM Cards. 6.1 DWDM Card Overview CHAPTER

Baseline Proposal for 200 Gb/s Ethernet 40 km SMF 200GBASE-ER4 in 802.3cn

Ordering information. 40Gb/s QSFP+ ER4 Optical Transceiver Product Specification. Features

Extended Reach, Client-Side SFP, Multi-Rate, Multi-Protocol, DWDM, 3R Transponder WaveReady Transponder 740 XLR

Features: Compliance: Applications: Warranty: QSFP-40G-LR4-GT 40GBASE-LR4 QSFP+ SMF Module Cisco Compatible

Using SOAs as Booster and/or Pre-Amplifier for 4x25-Gb/s 40-km 1310-nm PMD

Emerging Subsea Networks

100G PSM4 & RS(528, 514, 7, 10) FEC. John Petrilla: Avago Technologies September 2012

An Approach To 25GbE SMF 10km Specification IEEE Plenary (Macau) Kohichi Tamura

LambdaFLEX Tunable XFP Module

QSFP SV-QSFP-40G-PSR4

LambdaFLEX Negative Chirp Tunable XFP Module TL8900NACND

HDBS-5000DW Series. 950MHz~2400 MHz

Product Specification 40BASE-SR4 QSFP+ Gen3 Optical Transceiver Module FTL410QE3C

40GBd QSFP+ SR4 Transceiver

Hardware Specifications

Product Specification 10km Multi-rate 100G QSFP28 Optical Transceiver Module FTLC1151SDPL

Product Specification 100m Multirate Parallel MMF 100/128G QSFP28 Optical Transceiver FTLC9551SEPM

LASERS. Fabry Perot (FP) Distributed Feedback (DFB) Vertical Cavity Surface Emitting Laser (VCSEL)

Features: Compliance: Applications: Warranty: 49Y7928-GT QSFP+ 40G BASE-SR Transceiver IBM Compatible

Improved extinction ratio specifications. Piers Dawe Mellanox

Systematic Tx Eye Mask Definition. John Petrilla, Avago Technologies March 2009

OSICS 8-Channel Modular Platform for DWDM Testing

Optical transmission feasibility for 400GbE extended reach PMD. Yoshiaki Sone NTT IEEE802.3 Industry Connections NG-ECDC Ad hoc, Whistler, May 2016

OPTICAL MEASURING INSTRUMENTS. MS9710C 600 to 1750 nm OPTICAL SPECTRUM ANALYZER GPIB. High Performance for DWDM Optical Communications

Product Specification 40BASE-SR4 100m QSFP+ Gen2 Optical Transceiver Module FTL410QE2C

Hardware Specifications

from ocean to cloud ADAPTING THE C&A PROCESS FOR COHERENT TECHNOLOGY

Parameter Symbol Min. Typ. Max. Unit. Supply Voltage Vcc V. Input Voltage Vin -0.3 Vcc+0.3 V. Storage Temperature Tst C

100G QSFP28 SR4 Transceiver

Ver.0.3 Sept NTC2-HFER-3SOH. 100Gbps CFP2 Transceiver 1/7. 100Gb/s CFP2 Optical Transceiver Module. Feature. Application

Hardware Specifications

On Figure of Merit in PAM4 Optical Transmitter Evaluation, Particularly TDECQ

500 m SMF Objective Baseline Proposal

10Gbps SFP+ Optical Transceiver, 10km Reach

Product Specification 56Gbps 60/100m QSFP+ Optical Transceiver Module FTL414QB2C APPLICATIONS

LaserPXIe Series. Tunable Laser Source PRELIMINARY SPEC SHEET

! "#$ ' % & % & ' ( )!' *!+, ( *-"(! './ 0 / 0/ $ 1/ 2$3 1

Headend Optics Platform (CH3000)

RLT 1550 d10. DWDM High Power, Ultra Wide Band CATV & SAT MHz Laser Optical Transmitter, with pre-correction, LAN remote control and alarms

OC-48/STM-16 Bi-directional SFP Transceiver (40km) RBT25SI2

Optical Add/Drop Cards

Baseline proposal update

50 Gb/s per lane MMF objectives. IEEE 50G & NGOATH Study Group January 2016, Atlanta, GA Jonathan King, Finisar

H5000 Outdoor Mini Virtual HUB

o-microgigacn Data Sheet Revision Channel Optical Transceiver Module Part Number: Module: FPD-010R008-0E Patch Cord: FOC-CC****

DATA SHEET. Two (2) fibers Detachable HDMI 2.0 Extender,

Draft Baseline Proposal for CDAUI-8 Chipto-Module (C2M) Electrical Interface (NRZ)

10Gbps 10km Range SFP+ Optical Transceiver

Agilent 86120B, 86120C, 86122A Multi-Wavelength Meters Technical Specifications

SPCxxB10100D SFP+ Dual Fiber CWDM CWDM / 10dB / 10 Gigabit Ethernet

Overcoming Nonlinear Optical Impairments Due to High- Source Laser and Launch Powers

2.5 Gb/s Transponder with Mux/Demux (1310 and 1550 nm) 54TR Series

SPDxx040100D SFP+ Dual Fibre DWDM 100GHz DWDM / 40 km / 10 Gigabit Ethernet

MTP1000 with LaserBlade, VOABlade, PowerBlade & SwitchBlade Smarter Modular Test Platform

Model GS Port Node 1 GHz with 65/86 MHz split

2015 OPTICAL TRANSMITTERS

TP2 and TP3 Parameter Measurement Test Readiness

10Gbps 10km Range 1310nm SFP+ Optical Transceiver

11 GHz MDD FIBER OPTIC LINK FEATURES TYPICAL APPLICATIONS

SFP-10G-LR (10G BASE-LR SFP+) Datasheet

EMPOWERFIBER 10Gbps 2km SFP+ Optical Transceiver EPP C

Module 11 : Link Design

FIBRE CHANNEL CONSORTIUM

Model DM8000-U Optical Transmitter Direct Modulation, DWDM, Low Distortion, Wideband

XFP Optical Transceiver

Cisco Prisma II 1310 nm, High-Density Transmitter and Host Module for 1.2 GHz Operation

CFPQD010C10D CFP Dual Fibre 1310nm* / 10km / 100GBASE-LR4 & OTN OTU4

Transcription:

Toward Baseline for 400GBASE-ZR Optical Specs Ilya Lyubomirsky, Bo Zhang, Inphi Corp., Mike Sluyski, Acacia Communications, Inc., Rich Baca, Mark Filer, Microsoft Corp., Gary Nicholl, Mark Nowell, Cisco Systems, Inc., John DeAndrea, Finisar Corp. IEEE P802.3ct Meeting, Vancouver, Canada, March 11-12, 2019

Supporters Paul Brooks, Viavi Solutions Brian Taylor, Facebook Chengbin Wu, ZTE Jeffery Maki, Juniper Xiaoxia Wu, Juniper Matthew Schmitt, Cablelabs Tomoo Takahara, Fujitsu Laboratories Ling Li, CICT-FiberHome 2

Introduction This contribution proposes to leverage OIF 400ZR optical specs as a starting point for 400GBASE-ZR Proposed specs include some modifications from OIF 400ZR based on discussions during Feb. 21 ad-hoc call Microsoft DCI DWDM link data is provided as a reference 3

Black Link Methodology Ethernet Interface with +/-100ppm line interface with +/-20ppm line interface with +/-20ppm Ethernet Interface with +/-100ppm 400GBASE-ZR Module S s R s 400GBASE-ZR Module HOST 400GBASE-ZR DSP Optics R s Black Link <80 km S s Optics 400GBASE-ZR DSP HOST 1x400GAUI-8 400GBASE-ZR link 1x400GAUI-8 4

(0,1] (1,2] (2,3] (3,4] (4,5] (5,6] (6,7] (7,8] (8,9] (9,10] (10,11] (11,12] (12,13] (13,14] (14,15] (15,16] (16,17] (17,18] (18,19] (19,20] >20 % of total % of total AWG Multiplexer Microsoft Reference Link Ref link assumptions distance 0-80 km Tx 1 Tx 2 Tx N booster 80km 24dB pre-amp AWG Demultiplexer Rx 1 Rx 2 Rx N high-power booster w/voa at output high-gain pre-amp 100 or 75 GHz AWGs Optical Channel Monitor (OCM) at ingress / egress 35% Microsoft DCI fiber plant distance and loss distributions as of 03/2018 14% 30% 25% 12% 10% 20% 8% 15% 6% 10% 4% 5% 2% 0% 0% (0,10] (10,20] (20,30] (30,40] (40,50] (50,60] (60,70] (70,80] distance [km] loss [db] 5

AWG mux/demux Line system/component assumptions Tx 1 Tx 2 Tx N booster 80km 24dB pre-amp AWG mux/demux Rx 1 Rx 2 Rx N Element Specification Value Unit Booster amp gain 11.5-25 db max power 24.5 dbm output VOA range 0-18 db gain flatness 1.0 db Pre-amp gain 19-35 db max power 21 dbm gain flatness 1.0 db Mux/demux AWG mux/demux loss 4.0 db 400G 64 Gbaud 16QAM module spectral uniformity 0.5 db Tx power (swept for study) -14 to -2 dbm Tx uniformity (incl. cabling loss) 0.5 db Rx req d OSNR* 26 db Rx req d Power* -12 dbm Sample specifications 6

Result: 48 ch @ 100 GHz spacing Assumptions: 48 channels / 100 GHz spacing ext. C-band G.652 with up to +7.5 dbm/ch booster and pre-amp present for all cases Tx power: range [-14,-2] dbm Rx power: -12 dbm Span loss: range [0,36] db 7

Microsoft Reference link Summary Assuming line system specs from earlier slide with: 400G Tx: -10 to -6 dbm 400G Rx: -12 dbm 400G Required OSNR: 26 db # carriers max P fib EOL OSNR margin* EOL max loss 48 (100 GHz) +7.5 dbm 3.2 db 31 db 64 (75 GHz) +6.4 dbm 2.0 db 30 db * 24 db max span loss; G.652 fiber (non-g652 reduces max loss by 3-4 db) 8

Black Link Channel Characteristics Description Value Unit Channel Spacing 100 GHz Residual Chromatic dispersion (min) 0 ps/nm Residual Chromatic dispersion (max) 2000 ps/nm Polarization Mode Dispersion (ave) a 10 ps Polarization dependent loss (max) b 2 db Polarization rotational speed (max) 50 krad/s Optical Channel 1 db Bandwidth (min) c TBD GHz Optical Channel 20 db Bandwidth (min) c TBD GHz Optical Channel IL Ripple (max) d TBD db a). 10 ps of average PMD corresponds to max 33 ps of instantaneous DGD and max 500 ps 2 of SOPMD. b). Does not include transmitter polarization imbalance. c). Effective optical channel bandwidth due to DWDM optical filtering. d). In-band IL ripple due to DWDM optical filtering. 9

Tx Optical Specs I Description Value Unit Signaling rate, (range) per polarization 59.84375 +/-100ppm GBd Modulation Format DP-16QAM Start Channel Frequency 191.3 THz Stop Channel frequency 196.1 THz Laser frequency accuracy ± 1.8 GHz Laser line-width (max) a 500 khz Laser relative intensity noise (ave) b -145 db/hz Laser relative intensity noise (peak) c -140 db/hz Optical Output Power (max) -6 dbm Optical Output Power (min) -10 dbm Transmitter reflectance (min) d -20 db Transmitter back reflection tolerance (min) e -24 db Spectral Excursion (max) f TBD GHz a). Full Width Half Maximum (FWHM) high frequency component of the Tx laser phase noise (100MHz and above). b). Average over 0.2GHz < f < 10GHz. c). Peak over 0.2GHz < f < 10GHz. d). Optical power ratio of the reflected light of Tx output port back to fiber network vs. the external incident light into the Tx output port. e). Maximum light power (relative in decibel w.r.t. Tx output) reflected back to transmitter while still meeting performance requirements. f). Defined in G.698.2 for DP-QPSK; may need refinement for 16QAM. 10

Tx Optical Specs II Description Value Unit Transmitter polarization power imbalance 1.5 db In-band OSNR (min) per 0.1 nm a 37 db Out-of-band OSNR (min) per 0.1 nm b 23 db Total output power with transmitter disabled (min) -20 dbm Total output power during channel change (min) -20 dbm X-Y polarization skew 5 ps I-Q DC offset c -26 db Error Vector Magnitude (max) d TBD % a). Signal power over noise power in-band, measured with 12.5 GHz noise bandwidth. b). Signal power over peak noise power in the whole frequency range, measured with 12.5 GHz noise bandwidth. c). Ratio of unmodulated power to total signal power. d). Defined in G.698.2 for DP-QPSK; measurement data provided in anslow_3cn_01_181025 for DP-16QAM. 11

Rx Optical Specs Description Value Unit Input Power Range (min) -12 dbm Input Power Range (max) 0 dbm Frequency Offset Tolerance (min) a ± 1.8 GHz OSNR Tolerance (min) b 26 db CD Tolerance (min) c 2000 ps/nm DGD (max) d 33 ps SOPMD (max) d 500 ps 2 Peak PDL Tolerance (min) e 3.5 db Change in SOP Tolerance (min) f 50 rad/ms Optical Power Transient Tolerance (min) g ± 2 db Optical Return Loss (min) 20 db DWDM Transmission Penalty (max) h 0.5 db a). Rx must tolerate this amount of Tx frequency offset from the nominal ITU frequency grid based on 100 GHz channel spacing. b). Minimum value of OSNR (referred to 0.1 nm noise bandwidth @ 193.6 THz) that can be tolerated while maintaining the maximu m BER below the CFEC threshold. Must be met for a back-to-back measurement configuration at all input powers defined above. c). Tolerance to chromatic dispersion with <0.5 db OSNR penalty d). Tolerance to max DGD and max SOPMD [according to 10ps mean PMD] with < 0.5 db OSNR penalty and change in SOP < 1 rad/ms. e). Peak PDL includes both transmitter polarization imbalance and link PDL. Tolerance to peak PDL with < 1.3 db OSNR penal ty. Tested with noise injected before PDL emulator and PSP < 1 rad/ms. f). Tolerance to change in SOP with < 0.5 db OSNR penalty. g). Tolerance to change in input power with < 0.5 db OSNR penalty. h). OSNR penalty due to DWDM optical filtering effects [bandwidth and IL ripple], DWDM nonlinear transmission effects, and link r eflections. Verified by design. 12

Next Steps Work toward reaching consensus on a 400GBASE-ZR optical specs baseline proposal 13