SFP+ Dual LC 10G SMF 80Km DWDM 50GHz Transceiver. Features. Applications APPLIED OPTOELECTRONICS, INC. A7ELZQxxFDMAx542

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1 Features Applications 10GBASE-ZR Ethernet ( 9.95 to 10.31Gbps ) SONET OC-192 / SDH STM-64 ( 9.953Gbps ) SFP+ Type Dual LC Transceiver C-Band Wavelengths on 50GHz ITU Grid DWDM EML Laser APD Photo Detector 3.3V single power supply Hot-Pluggable Operating Case Temperature : -5 o C to 70 o C Serial ID information support Power Consumption < 2.2 W Compliant with SFP+ MSA Digital diagnostic SFF-8472 compliant Clock and Date Recovery (CDR) Compliant with RoHS Compliant with UL & TUV Page 1 of 10

2 Ordering Information Form Factor Date Rate Media Distance Wavelength (nm) Frequency (THz) TX Power (dbm) RX Sensitivity (dbm) Voltage (V) Coupling Signal Detect DDM (Y/N) Temperature ( C) Part Number SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ17FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ17FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ18FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ18FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ19FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ19FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ20FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ20FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ21FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ21FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ22FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ22FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ23FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ23FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ24FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ24FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ25FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ25FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ26FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ26FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ27FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ27FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ28FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ28FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ29FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ29FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ30FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ30FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ31FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ31FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ32FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ32FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ33FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ33FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ34FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ34FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ35FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ35FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ36FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ36FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ37FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ37FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ38FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ38FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ39FDMAC542 Page 2 of 10

3 Form Factor Date Rate MZDia Distance Wavelength (nm) Frequency (THz) TX Power (dbm) RX Sensitivity (dbm) Voltage (V) Coupling Signal Detect DDM (Y/N) Temperature ( C) Part Number SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ39FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ40FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ40FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ41FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ41FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ42FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ42FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ43FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ43FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ44FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ44FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ45FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ45FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ46FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ46FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ47FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ47FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ48FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ48FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ49FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ49FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ50FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ50FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ51FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ51FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ52FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ52FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ53FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ53FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ54FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ54FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ55FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ55FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ56FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ56FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ57FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ57FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ58FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ58FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ59FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ59FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ60FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ60FDMAH542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ61FDMAC542 SFP+ Dual LC 10G SMF 80km ~ 3 < AC/AC LVTTL Y -5 ~ +70 A7ELZQ61FDMAH542 Page 3 of 10

4 Absolute Maximum Ratings Parameter Symbol Conditions Min Max Unit Storage Temperature T S C Storage Relative Humidity RH Non condensing 5 95 % Supply Voltage V CC V Recommended Operating Conditions Parameter Symbol Conditions Min Typ Max Unit Operating Temperature (Case) T C C Supply Voltage V CC V Supply Current I TX +I RX ma Data Rate DR Gbps Electrical Characteristics Parameter Symbol Conditions Min Typ Max Unit Transmitter Differential Input Impedance R DI Ohm Differential Input Voltage V DI AC-Coupled, peak to peak mv Tx Disable Input-High V DISH V CC+0.3 V Tx Disable Input-Low V DISL V Tx Fault Output-High V FOH V CC+0.3 V Tx Fault Output-Low V FOL V Receiver Differential Output Impedance R DO Ohm Differential Output Voltage V DO AC-Coupled, peak to peak mv Rx LOS Output-High V LOSH V CC+0.3 V Rx LOS Output-Low V LOSL V Optical Characteristics (Vcc=3.14V to 3.46V, 50/125um MMF) Parameter Symbol Conditions Min Typ Max Unit Transmitter Channel Spacing GHz Optical Center Wavelength λc -- See order information table pm Spectral Width -20dB nm Optical Output Power P o (Avg.) dbm Optical Extinction Ratio ER db Side Mode Suppression Ratio SMSR dbm Transmitter and Dispersion Penalty TDP 1450 ps/nm db Relative Intensity Noise RIN db/hz Jitter -- B1 (20kHz 80MHz) UI -- B2 (4MHz 80MHz) UI Eye Mask -- Compliant with IEEE 802.3ae Receiver Operating Wavelength λ nm Receiver Overload P INMAX dbm Receiver Sensitivity P INMIN dbm Rx LOS Assert P A dbm Rx LOS De-Assert P D dbm Rx LOS Hysteresis P A-P D db Receiver Reflectance Rrx db 1. Measured with PRBS at BER, Gbps Page 4 of 10

5 Mechanical Design Diagram Page 5 of 10

6 EEPROM Serial ID Memory Contents (A0h) AOI Add Name of field Description ACSII HEX 0 Identifier 03:SFP or SFP Plus Transceiver 03 1 Ext. Identifier SFP Transceiver 04 2 Connector 07:LC G Ethernet 80:10G Base-ER (ZR) 80 4 SONET/SDH 28: OC SONET/SDH 00 6 Ethernet 00 Transceiver 7 Fiber Channel 00 8 Fiber Channel 00 9 Fiber Channel Fiber Channel Encoding 01:8B10B, 05:SONET, 06:64B/66B, BR, Nominal 100Mbps/unit -> HEX (67: G) Rate Identifier Rate Select Length(9um, km) 1km /unit -> HEX (50:80KM) Length (9um), 100m /unit -> HEX (FF:over 25500M) FF 16 Length (50um), OM1 10m /unit -> HEX Length (62.5um), OM2 10m /unit -> HEX Length (Copper) 1m /unit -> HEX Length (50 um), OM3 10m /unit -> HEX A O 4F 22 I Vendor name SFP Vendor Name (ASCII) Page 6 of 10

7 Reserved Reserved Vendor OUI SFP Vendor IEEE company ID, No ID set "00" A E L 4C 44 Z 5A 45 Q x 47 x Vendor PN SFP Vendor Part Number (ASCII) 48 F D M 4D 51 A x A Vendor rev Vendor Revision level (ASCII) Wavelength 1nm /unit -> HEX Wavelength 0.01nm /unit -> HEX 63 CC_BASE Check Sum 0 to 62 byte Options 18:TX-DIS,TX_Fault 1A:TX-DIS,TX_Fault,RX-LOS 66 BR, max 1% /unit BR, min 1% /unit Vendor SN Vendor SN (ASCII) A Page 7 of 10

8 Year (ASCII) Month (ASCII) 87 Date code 88 Day (ASCII) Blank Diagnostic Monitoring Type 93 Enhanced Options 58:W/I DDM(Ext_Cal), 68:W/I DDM(Int_Cal) E0:A/W, Tx_Dis, Tx_fault F0:A/W, Tx_Dis, Tx_fault, Rx_LOS B0:A/W, Tx_fault, Rx_LOS 94 SFF-8472 Compliance 01:9.3, 02:9.5, 03:10.2, 04: CC_EXT Check Sum 64 to 94 byte Read-only B0 Page 8 of 10

9 Product Label Product P/N Product Spec P/N Character 7 and 8 P/N Character 13 10G SMF CHxx ; xx : Wavelength xx : Wavelength x : C = f + 50GHz upper, H = f + 50GHz down Page 9 of 10

10 Regulatory Compliance Item Electromagnetic Interference (EMI) Standard FCC Part 15 Class B EN55022 Class B (CISPR 22B) VCCI Class B MIL-STD-883E Method Electrostatic Discharge to the Electrical Pins (ESD) Electrostatic Discharge to the Receptacle (ESD) IEC RoHS 2011/65/EC Laser Eye Safety FDA 21CFR and Component Recognition UL and TUV Laser Safety Information All versions of this laser are Class 1 laser products per IEC1/EN :2007. Users should observe safety precautions such as those recommended by ANSI 3 Z , ANSI Z and IEC :2007. This product conforms to FDA (CDRH) 21 CFR and except for deviations of laser safety class designation pursuant to 'Laser Notice No.50', dated June 24, 2007 Product labeling: Class 1 Laser Product Compliance with 21 CFR and If labeling is not affixed to the module due to size constraints; then rather, labeling is placed on the outside of the shipping box. This product is not shipped with a power supply. Caution: use of controls or adjustments or performance of procedures other than those specified herein may result in hazardous radiation exposure. Certifications UL (E243407) TUV EN /A12:2011, EN , EN Documentation is available upon request. (1) IEC is a registered trademark of the International Electrotechnical Commission (2) Within Europe the IEC standard has been adopted as a European Normative standard known as EN 60825, and each European country will have its own version of this standard, for example, the British Standards version known as BS EN There can be small differences between the different countries versions of EN 60825, and these are in part caused by the process of translating the standard into the native language of that country. (3) ANSI is a registered trademark of the American National Standards Institute Note : All information contained in this document is subject to change without notice. Page 10 of 10