Recommended Changes to Optical PMD Proposal

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Recommended Changes to Optical PMD Proposal Steve Swanson Corning Incorporated 607 974 4252 tel 607 974 4941 fax swansonse@corning.com Paul Kolesar Lucent Technologies 908 957 5077 tel 908 957 5604 fax pkolesar@lucent.com IEEE 802.3z Gigabit Ethernet November 13, 1996 0

8B10B PMD sublayer: SWL optics NOTE: Changes are noted as shown here Table - Operating distance for each fiber type Optical Source 62.5 µm MMF 50 µm MMF SMF Shortwave laser 300 m200 m 950 m450 m N/A Laser Safety As written with the following changes: IEC 825... should read IEC 825-1. Provide formal reference for the laser safety certification Bit Error Ratio Objective As written with the following changes: Delete the last sentence or provide as a note. 8b/10b Encoding Reword as follows: The SWL optical link shall use 8b/10b encoding. 8b/10b encoding provides a balanced, DC, bit stream with a maximum run length of 5. SWL Transmitter As written with the following changes: The first paragraph needs completion The second paragraph on modal noise needs clarification The third paragraph on jitter needs clarification Include the transmit eye mask figure from Fibre Channel 1

Table - SWL transmit characteristics Description Unit Value Transmitter type laser Wavelength nm 770-860 Spectral width nm RMS 0.85 4 (see note 1) Effective max optical rise/fall time ns 0.35-0.45 (see note 1) Max launch power @770 nm dbm average -5 Max launch power @860 nm dbm average -4 Min launch power dbm average -10 Extinction ratio db 9 RIN (max) db/hz -117 (see note 2) Eye opening (see note 3) Replace current notes with the following: Note 1: The effective rise/fall time is not a specification, but is provided for the purpose of calculating optical link distances. The likely value is 0.35-0.45 ns, 10-90%. The final value will be selected after the jitter study group completes its work. The value given provides equivalent performance to that of the transmit eye mask requirement. We have tentatively agreed that it is sufficient to specify the transmit eye mask in a way that allows the implementor to trade-off rise-time, fall-time and jitter. Note 2: Replace the current text with the wording in 8.2.4 of ANSI X3.230-1994 Fibre Channel 2

Table - SWL receive characteristics Description Unit Value Minimum receive power dbm, avg. -17 Maximum receive power dbm, avg. T.B.D. (see note 1)? BER per baud 1E-12 (see note 2) Return loss db, min 12 Effective max Optical rise/fall time assumed for these measurements ns 0.75-0.80 (see note 3)? Notes as written with the following changes: In note 1, PDRH and EIA 825-1 should read CDRH and IEC 825-1 ; also add the following: Setting the maximum receive power to match the current transmit limit will cause incompatibility with potentially more powerful future transmitters and in effect caps the transmit power at current levels. On the other hand, specifying a level higher than the current transmit limit increases the dynamic range requirement, potentially raising the cost of the receiver. Replace Note 3 with the following: The effective rise/fall time is not a specification, but is provided for the purpose of calculating optical link distances. The likely value is in the range 0.75-0.80 ns, 10-90%. The final value will be selected after the jitter study group completes its work. The value given provides equivalent performance to that of the receive eye mask requirement. We have tentatively agreed that it is sufficient to specify the receive eye mask in a way that allows the implementor to trade-off rise-time, fall-time and jitter. A worst case received eye signal is required for the purpose of testing clock recovery systems. Delete General note. 3

Table - Media characteristics for use with SWL Description Unit Value 62.5 µm MMF 50 µm MMF Guaranteed Ooperating distance (typ) m 300* (see figure 2)200 950* (see figure 2)450 Maximum attenuation @ 850 nm db/km 3.5 4.0 3.5 Minimum modal bandwidth @850 nm MHz-km 160 500 400 Dispersion slope ps/km-nm 2 see figure 3 0.093 see figure 3 0.105 ZeroMin. dispersion wavelengthpoint µm see figure 3 1.36 see figure 3 1.33 Modal noise penalty allocation db T.B.D. (see note A) T.B.D. (see note A) Dispersion penalty allocation db T.B.D. (see note A) T.B.D. (see note A) Maximum link attenuation @ 850 nm db T.B.D. (see note B) T.B.D. (see note B) * Final values for distance are dependent on jitter budget and effective optical rise/fall times. Notes as written with the following changes: Delete Note 1 Note A: Values should be provided for power penalties of the types specified for LWL media. Note B: Must reconcile link attenuation dependent on the values for modal noise and dispersion penalties. 4

8B10B PMD sublayer: LWL optics Table - Operating distance for each fiber type Optical Source 62.5 µm MMF 50 µm MMF SMF Longwave laser 950 m >550 m (perhaps as much as 850 m) 950 m >550 m(perhaps as much as 850 m) 3000 m 2000 m (or more) Laser Safety As written with the following changes: IEC 825... should read IEC 825-1. Provide formal reference for the laser safety certification Bit Error Ratio Objective As written with the following changes: Delete the last sentence or provide as a note. 8b/10b Encoding Reword as follows: The LWL optical link shall use 8b/10b encoding. 8b/10b encoding provides a balanced, DC, bit stream with a maximum run length of 5. LWL Transmitter As written with the following changes: The first paragraph needs completion The second paragraph on modal noise needs clarification The third paragraph on jitter needs clarification Include the transmit eye mask figure from Fibre Channel 5

Table - LWL transmit characteristics Description Unit Value Transmitter type laser Wavelength nm 1270-1355 Spectral width nm RMS nm FWHM 4 14 Effective max optical rise/fall time ns 0.35-0.45 (see note 1) Max launch power dbm average -3 Min launch power dbm average -13 Extinction ratio db 9 RIN (max) db/hz -116 (see note 2) Eye opening see note 3 Replace current notes with the following: Note 1: The effective rise/fall time is not a specification, but is provided for the purpose of calculating optical link distances. The likely value is 0.35-0.45 ns, 10-90%. The final value will be selected after the jitter study group completes its work. The value given provides equivalent performance to that of the transmit eye mask requirement. We have tentatively agreed that it is sufficient to specify the transmit eye mask in a way that allows the implementor to trade-off rise-time, fall-time and jitter. Note 2: Replace the current text in Note 3 with the wording in 8.2.4 of ANSI X3.230-1994 Fibre Channel for multimode fiber and 8.1.3 of ANSI X3.230-1994 Fibre Channel for single-mode fiber 6

Table - LWL receive characteristics Description Unit Value Min receive power dbm average -20 Max receiver power dbm average -3 BER per baud 1E-12(see note 2) Return loss db, min 12 Effective max Optical rise/fall-time assumed ns 0.75-0.80 (see note 3) Notes as written with the following changes: In note 1, PDRH and EIA 825-1 should read CDRH and IEC 825-1. Replace Note 3 with the following: The effective rise/fall time is not a specification, but is provided for the purpose of calculating optical link distances. The likely value is 0.75-0.80 ns, 10-90%. The final value will be selected after the jitter study group completes its work. The value given provides equivalent performance to that of the receive eye mask requirement. We have tentatively agreed that it is sufficient to specify the receive eye mask in a way that allows the implementor to trade-off rise-time, fall-time and jitter. A worst case received eye signal is required for the purpose of testing clock recovery systems. Delete General note 7

Table - Media characteristics for use with LWL Description Unit Value 62.5 µm MMF 50 µm MMF SMF Guaranteed Ooperating distance m 950* 550-850 950* 550-850 3000 2000+ Maximum attenuation @ 1300 nm db/km 1.5 1 1.5 1 1.0 <1 Minimum modal bandwidth @ 1300 nm Mhz km 500 500 N/A Maximum dispersion slope ps/km nm 2 see figure 2 0.093 see figure 20.105 0.093 ZeroMin.dispersion wavelengthpoint µm see figure 21.36 see figure 21.33 1300-1324 Dispersion (up to max. distance) ps/nm, RMS 18 12 Modal noise penalty allocation db T.B.D. T.B.D. T.B.D. Dispersion penalty allocation db T.B.D. T.B.D. T.B.D. Maximum link attenuation @ 1300 nm db T.B.D. T.B.D. T.B.D. * Final values for distance are dependent on jitter budget and effective optical rise/fall times. Notes as written with the following changes: Delete Note 1 B. Must reconcile link attenuation dependant on values for modal noise and dispersion penalties 8

Figure 2 - SWL Operating Distance Ranges 1200 1100 1000 900 800 700 600 500 400 300 200 100 0 100 150 200 250 300 350 400 450 500 160 Fiber Modal Bandwidth at 850 nm (MHz-km) 9

Figure 3 - Fiber Chromatic Dispersion Characteristics Template 0.11 0.105 0.10 0.093 0.09 0.08 0.07 1290 1300 1310 1320 1330 1340 1350 1360 13 1295 1348 1365 Zero Dispersion Wavelength (nm) 10

Figure 1F - SWL Operating Distance Ranges for various combinations of channel input and output speeds 1200 1100 1000 900 Ttx = 0.35 ns Trx = 0.80 ns 800 700 600 Ttx = 0.45 ns Trx = 0.75 ns 500 400 300 200 100 0 100 150 160 200 250 300 350 400 450 500 Fiber Modal Bandwidth at at 850 nm (MHz-km) 11