ITR-D3T-SD6-A 1310/1490/1555nm Integrated Triplexer Transceiver Features • Single fiber, integrated triplexer transceiver • Compliant to FSAN G.984.2 specifications • Voice/Data/Video FTTx ONT/ONU applications • 1310nm Tx, 1490nm Rx, 1555nm video Rx • 1244Mbps Tx / 2488Mbps Rx asymmetric data rate • Burst mode upstream transmission • 16.5dBmV minimum RF output power • 1GHz video bandwidth, with feedback AGC operation, without MOCA filter • -40 to 85ºC operation • 20km reach • 28dB power budget • RoHS-5/6 compliant (lead exemption) • • GR-326-CORE compliant SC/APC connector Meets UL 94V-1 flammability - Digital Transmitter: A DFB laser diode is employed for upstream transmission at OC-24 (1244Mbps). The optical transmitter includes a back facet photodetector to monitor laser power for APC control. - Digital Receiver: An APD with TIA is employed for downstream data reception at OC-48 (2488Mbps). A post amplifier is also included for CML output compatibility. - Analog Receiver: 1GHz forward path video (CATV) receiver with multiple gain stages, automatic gain control (AGC) and status indicators. Lim. Amp. Rx Data Rx Section TIA 1490nm APD Receiver WDM 1310nm Upstream 1490nm Downstream 1555nm Downstream Tx Section 1310nm Laser Optical Triplexer Module Tx Data LDD RF Tilt / Surge Protection 1550nm PIN Receiver RF Out MOCA AGC D/A A/D Microcontroller RF Detector Video Section Triplexer Block Diagram DS-5863 Rev 01 ITR-D3T-SD6-A Absolute Maximum Ratings Usage of this transceiver shall adhere to the following absolute maximum ratings. Stresses beyond those in Table 1 may cause permanent damage to the unit. These are stress ratings only, and functional operation of the unit at these or any other conditions beyond those indicated in the operational sections of the specifications is not implied. Exposure to absolute maximum rating conditions for extended periods may affect unit reliability. Table 1 - Absolute Maximum Ratings Minimum Maximum -40 85 ºC ESD Sensitivity (Human Body Model) - 1000 V Lead Soldering Temperature - 260ºC 10 sec Vdd_+12V -0.3 15 V Vcc_Rx -0.3 +4.2 V Vcc_Tx -0.3 +4.2 V; Vcc_Tx < (Vcc_Rx + 1V) Vcc_3.3V -0.3 +4.2 V -1500 +1500 V Parameter Ambient Storage Temperature Lightning Surge Unit/Conditions Recommended Operating Conditions The following table identifies the recommended operating condition for optical transceiver use. Table 2 – Recommended Operating Conditions Parameter Minimum Typical Maximum a -40 - 85 Operating Humidity Range 10% - 90% non-condensing Total 3.3V Supply Current - - 350 mA Total 12V Supply Current - - 225 mA Power Supply Ripple - - 100 mVp-p, 100Hz to 1MHz Operating Temperature a Unit/Conditions ºC Minimum is ambient temperature; maximum is module case temperature. DS-5863 Rev 01 ITR-D3T-SD6-A Optical Characteristics The following table summarizes the performance specifications for the integrated optical block located within the transceiver module. Table 3 - Optical Characteristics Minimum Typical Maximum 1555nm external to 1490 nm Rx Isolation 32 - - dB 1490nm external to 1555nm Rx Isolation 32 - - dB 1310nm external to 1555nm Video Isolation 40 - - dB 1310nm external to 1490nm data Isolation 30 - - dB 1310nm Tx to 1490nm Rx Optical Crosstalk - - -47 dB 1310nm Tx to 1555nm Rx Optical Crosstalk - - -47 dB Back Reflection @ 1310nm - - -6 dB Back Reflection @ 1555nm - - -32 dB Back Reflection @ 1490nm - - -20 dB Parameter Unit/Conditions Functional Characteristics The following tables list the performance specifications for the various functional blocks of the integrated optical transceiver module. Table 4 – Digital Transmitter Specifications Parameter Operating Voltage Data Rate Average Optical Output Power, Po Output Power at Transmit Off Extinction Ratio Minimum Typical Maximum Unit 3.14 3.30 3.46 V - 1244.16 - Mbps 0.5 - 5 dBm - - -40 dBm 10 - - dB PRBS 223-1, NRZ, 50% duty cycle - ps 20% to 80% Transmitter Output Eye Optical Rise and Fall Time Notes Vcc referenced to GND_Tx G.984.2 Figure 3 - Side Mode Suppression Ratio (SMSR) 250 See below Center Wavelength,λo 1290 - 1330 nm Dual DFB modes allowed; RMS Spectral line width <1.5nm; SMSR >30dB for FP modes Differential Input Voltage, Vin 300 - 1800 mVp-p BEN+/- and TXD+/-. DC-coupled Input Impedance, differential - 100 - Ω BEN+/-, TXD+/- Common-Mode Input Voltage GND_Tx + 1.4 - Vcc - (Vin/2) 0.1 V DC coupled Tx Burst Enable Time - - 12.86 ns 16 bits data @ 1244Mbps Tx Burst Disable Time - - 12.86 ns 16 bits data @ 1244Mbps DS-5863 Rev 01 ITR-D3T-SD6-A Refer to Figure 1 which schematically describes the high speed data inputs/outputs of the optical transceiver module. Tx Data & Burst Enable 100 Ω TX 100Ω Differential Transmission Line For CML Tx Data LDD/Post amp . 0.1µF RX Rx Data 100Ω Differential Transmission Line 0.1µF Figure 1 - Schematic representation of the module high speed inputs/outputs Table 5 – Digital Receiver Specifications Parameter Operating Voltage Data Rate Operational Wavelength Range Received Optical Power Minimum Typical Maximum Unit 3.14 3.30 3.46 V - 2488.32 - Mbps 1480 - 1500 nm -28 - -8 dBm Bit Error Rate (BER) - CID 10 - Signal Detect Assertion Level Signal Detect De-Assertion Level 160 a - ps -28 dBm Transition during increasing light Transition during decreasing light - - dBm Signal Detect Hysteresis 0.5 - - dB Differential Output Voltage 600 - 900 mV Signal Detect Output HIGH Voltage 2.4 - - V Signal Detect Output LOW Voltage - - 0.5 V -28 - -8 dBm -3 - +3 dB b RSSI Accuracy a 23 PRBS 2 -1, 50% duty cycle bits -38 RSSI Range Vcc referenced to GND_RX -10 72 Data Output Rise and Fall Time Notes 20% to 80% CML output, ac coupled (0.1µF) LVTTL with internal pull up resistor. Asserts HIGH when input data amplitude is above threshold. LVTTL. De-asserts LOW when input data amplitude is below threshold. Rx outputs are squelched upon Signal Detect de-assert DS-5863 Rev 01 ITR-D3T-SD6-A b Externally calibrated. Table 6 – Video Receiver Specifications Parameter Minimum Typical Maximum Unit 11.7 - 13.2 V 54 - 1000 MHz 1550 1555 1560 nm 0.8 - - A/W Video PD Monitor Accuracy - - 10 % AGC Time Constant 1 5 15 s S22 Output Return Loss 14 20 Minimum Typical 12V Operating Voltage Range Frequency Range Receiver Wavelength (Bandwidth) Responsivity dB Notes 75Ω Table 7 - Supported Video Channel Plans Parameter Maximum Unit Notes Channel Plan Analog Channels a Digital Channels 82 - - OMI = 3.4% / channel 34 - - OMI = 1.7% / channel 4 - MHz 6 - MHz 1 dBm Channel Bandwidth Channel Spacing - Received Average Optical Power -6 RF Channel Output Power 55MHz 16.5 - - dBmV RF Channel Output Power Distortion 1000MHz CSO CTB 19.5 - -65 -62 -55 -55 dBmV 45 - - dB Carrier to Noise Ratio (CNR) a dBc Linear lower bound from 55-1000MHz For digital channels, CSO max. and CTB max. will be 7dB higher Total OMI = 32% DS-5863 Rev 01 ITR-D3T-SD6-A Table 8 - Microcontroller Specifications Parameter Operating Voltage SDA SCL Minimum Typical Maximum Unit 3.14 3.30 3.46 V - - - - - - - - 30 - - ms - - - - Notes 2 a b Reset hold Interrupt c LVTTL, open collector serial data line from the I C bus to the on board Microcontroller. 2 LVTTL, open collector serial clock line from the I C bus to the on board Microcontroller. LVTTL input, internal 50kΩ pull-up. Active Low LVTTL output, internal 100kΩ pull-up. Active Low a I C SDA and SCL must be open collector or open drain connections. b 2 Clock stretching, as per paragraph 13.2 of the I C Bus Standard, must be implemented to operate correctly. c Please see Table 9 and the timing diagram in Figure 2 below for the recommended system start-up sequence. 2 Table 9 – Suggested Start-up Sequence Step Action 1 Power up the host system, with the RESET pin pulled to ground via a ≤4.7kΩ resistor. 2 Drive the RESET pin LOW. 3 Set the BEN control lines to disable the transmitter (BEN lines must be driven with differential logic). 4 Ensure power to the unit is on. 5 Drive the RESET pin HIGH to release the unit to become operational. 6 Wait approximately 250ms until the INTERRUPT pin goes LOW. 7 Read bytes A2.70/71/74/75 to clear the interrupt condition. Verify that byte A2.75 bit 7 was set. Use multi-byte read of bytes 70/71 and bytes 74/75. 8 Wait 50ms. Verify that the INTERRUPT pin has changed to HIGH. 9 The unit is now ready for normal operation. Figure 2 - Recommended transceiver module start-up sequence DS-5863 Rev 01 ITR-D3T-SD6-A Pin Definitions Refer to Table 10 for a description of the function of each I/O pin. Table 10 - Module Pin Definitions Pin Number Label Definition 1 GND_A Common ground 2 GND_Rx Digital Rx ground 3 Vcc_Rx Digital Rx Vcc 4 SD 5 RXD+ RX data output, CML. 50Ω terminated to Vcc and AC coupled to module output (0.1µF). 6 RXD- RX data bar output, CML. 50Ω terminated to Vcc and AC coupled to module output (0.1µF). 7 BEN+ Burst Enable input, CML. Internally DC coupled. 100Ω differential termination. 8 BEN- Burst Enable bar input, CML. Internally DC coupled. 100Ω differential termination. 9 GND_Tx 10 TXD+ 11 GND_Tx 12 TXD- 13 Vcc_Tx 14 SDA I2C Data input/output. LVTTL 15 SCL I2C Clock input. LVTTL 16 INT Interrupt output. LVTTL with internal 100kΩ pull-up. Active LOW. 17 Vdd_+12V Video Rx 12V Vdd 18 Vcc_3.3V Microcontroller Vcc 19 Reset 20 GND_A 21 RF_GND RF ground 22 RF_SIGNAL RF signal 23 RF_GND RF ground Signal Detect output. LVTTL with internal 3.3kΩ pull-up. Asserts HIGH when input optical signal level is above threshold. Digital Tx ground Tx data input, CML. Internally DC coupled. 100Ω differential termination. Digital Tx ground Tx data bar input, CML. Internally DC coupled. 100Ω differential termination. Digital Tx Vcc Reset input. LVTTL. Internal pull up. Active low. Common ground DS-5863 Rev 01 ITR-D3T-SD6-A Package Diagram 23.5 ±1.5 [597 ±38] Notes 1. Dimensions in inches [mm] 2. Minimum fiber bend radius = 1.18 [30.00] DS-5863 Rev 01 ITR-D3T-SD6-A Ordering Information Table 11 - Ordering Information Part No. Application Data Rate Laser Source Temp. Range ITR-D3T-SD6-A GPON ONT 1244.16Mb/s / 2488.32Mb/s 1310nm DFB -40 to 85°C Table 12 - Device Handling/ESD Protection The devices are static sensitive and may easily be damaged if care is not taken during handling. The following handling practices are recommended. 1 Devices should be handled on benches with conductive and grounding surfaces. 2 All personnel, test equipment and tools shall be grounded. 3 Do not handle the devices by their leads. 4 Store devices in protective foam or carriers. 5 Avoid the use of non-conductive plastics, rubber, or silk in the area where the devices are handled 6 All modules shall be packaged in materials that are anti-static to protect against adverse electrical environments. 7 Avoid applications of any voltage higher than maximum rated voltages to this part. For proper operation, any VIN or VOUT should be constrained to the range GND ≤ (VIN or VOUT) ≤ VCC. Unused inputs must always be tied to an appropriate logic voltage (e.g. either GND or VCC). Unused outputs must be left open. DS-5863 Rev 01 ITR-D3T-SD6-A Warnings Handling Precautions: This device is susceptible to damage as a result of electrostatic discharge (ESD). A static free environment is highly recommended. Follow guidelines according to proper ESD procedures. Laser Safety: Radiation emitted by laser devices can be dangerous to human eyes. Avoid eye exposure to direct or indirect radiation. Legal Notice IMPORTANT NOTICE! All information contained in this document is subject to change without notice, at Source Photonics’ sole and absolute discretion. Source Photonics warrants performance of its products to current specifications only in accordance with the company’s standard one-year warranty; however, specifications designated as “preliminary” are given to describe components only, and Source Photonics expressly disclaims any and all warranties for said products, including express, implied, and statutory warranties, warranties of merchantability, fitness for a particular purpose, and non-infringement of proprietary rights. Please refer to the company’s Terms and Conditions of Sale for further warranty information. Source Photonics assumes no liability for applications assistance, customer product design, software performance, or infringement of patents, services, or intellectual property described herein. No license, either express or implied, is granted under any patent right, copyright, or intellectual property right, and Source Photonics makes no representations or warranties that the product(s) described herein are free from patent, copyright, or intellectual property rights. Products described in this document are NOT intended for use in implantation or other life support applications where malfunction may result in injury or death to persons. Source Photonics customers using or selling products for use in such applications do so at their own risk and agree to fully defend and indemnify Source Photonics for any damages resulting from such use or sale. © Copyright Source Photonics, Inc. 2007~2008 All Rights Reserved. All information contained in this document is subject to change without notice. The products described in this document are NOT intended for use in implantation or other life support applications where malfunction may result in injury or death to persons. The information contained in this document does not affect or change Source Photonics product specifications or warranties. Nothing in this document shall operate as an express or implied license or indemnity under the intellectual property rights of Source Photonics or third parties. All information contained in this document was obtained in specific environments, and is presented as an illustration. The results obtained in other operating environments may vary. THE INFORMATION CONTAINED IN THIS DOCUMENT IS PROVIDED ON AN ”AS IS” BASIS. In no event will Source Photonics be liable for damages arising directly from any use of the information contained in this document. Contact SOURCE PHOTONICS 20550 NORDHOFF ST. CHATSWORTH, CA 91311 [email protected] Tel: 818-773-9044 Fax: 818-576-9486 Or visit our website: http://www.sourcephotonics.com DS-5863 Rev 01