400G QSFP-DD to QSFP-DD Active Optical Cable (AOC)
Compliant with theSFF-8436 QSFP-DD MSA standard
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| SPECIFICATIONS | |||
|---|---|---|---|
| Cable End Connector A | SFP+ | Cable End Connector B | SFP+ |
| Jumper Type | Direct-Attach | Data Rate | 10G |
| Aggregate Bit Rate | 10.3125Gbps | Lane Bit Rate | 10Gbps |
| Number of Channels | 1 | Single Channel Rate | 10G |
| Array Transmitter | VSCEL | Array Receiver | PIN |
| Minimum Bend Radius | 30mm | Factory Brand | PHILISUN |
| Center(Operating) Wavelength | 850nm | Bit Error Rate | ≤10-12 |
| Fiber Type | OM3 MMF MAX 300m | Cable Colour | Aqua |
| Cable Material | LSZH/OFNP | Cable Length Selection | 1-300 meter |
| Safety Certification | TUV/UL/FDA | Application Scenarios | 10 Gigabit Ethernet (10GbE) |
| Protocols | SFF-8636/SFF-8431/SFP MSA 10 Gigabit Ethernet 1x InfiniBand QDR, DDR, SDR | DDMI(Commercial) | YES |
| Supply Voltage | 3.3V | Power Dissipation | <0.8W |
| Operating Temperature | 0 to 70℃ (32 to 158℉) | Storage Temperature | -40 to 85℃ (-40to185℉) |
PRODUCT PRESENTATION
The PHILISUN QSFP-DD(200G) Active Optical Cable is a direct-attach fiber assembly utilizing QSFP-DD connectors and the Multi-Mode Fiber (MMF) scheme. The product complies with the SFF-8665 MSA standard and is suitable for 200Gbps connections within racks and across adjacent racks. It uses OM3/OM4 Multimode Fiber. Its compact structure and fully sealed integrated optics reduce costs compared to conventional optical modules and jumpers, while significantly improving reliability and reducing maintenance. This AOC guarantees broad compatibility with major vendor platforms including Cisco, H3C, Huawei, Juniper, and Arista, and more.
AOC SERIES PRODUCTS
PRODUCTION & TESTING EQUIPMENT
PERFORMANCE PARAMETER
| Absolute Maximum Ratings | |||||||||
| Parameter | Symbol | Unit | Min | Max. | |||||
| Storage Temperature Range | Ts | ℃ | -40 | +85 | |||||
| Relative Humidity | RH | % | 0 | 85 | |||||
| Power Supply Voltage | VCC | V | -0.3 | +3.465 | |||||
| Recommended Operating Conditions | |||||||||
| Parameter | Symbol | Unit | Min | Typ. | Max. | ||||
| Operating Case Temperature Range | Tc | ℃ | 0 | – | 70 | ||||
| Power Supply Voltage | VCC | V | 3.135 | 3.3 | 3.465 | ||||
| Bit Rate(Per channel) | BR | GBd | – | 26.5625 | – | ||||
| Electric Ports Definition | |||||||||
| Parameter | Symbol | Unit | Min. | Typ. | Max. | Note | |||
| Supply Voltage | VCC VCC3.3-Tx VCC3.3-Rx |
V | 3.135 | 3.3 | 3.465 | – | |||
| Power Consumption | Pc | W | – | – | 8.5 | – | |||
| Transceiver MgmtInitDuration Time | – | ms | – | – | 2000 | – | |||
| Transmitter | |||||||||
| Differential Peak-to-Peak Input Voltage tol | – | mV | 900 | – | 10% | – | |||
| Differential Termination Mismatch | – | V | – | – | – | – | |||
| Differential Input Return Loss(SDD11) | – | dB | – | IEEE Equation (83E-5) |
– | – | |||
| Common-Mode to Differential Conversion and Differential to Common-Mode Conversion(SCD11,SDC11) |
– | dB | – | IEEE Equation (83E-6) |
– | – | |||
| Stressed Input Test | – | – | IEEE 120E.3.4.1 |
– | – | – | |||
| Vcsel Wavelength | – | nm | 840 | 850 | 860 | – | |||
| Vcsel Beam Divergence | – | – | – | – | 25。 | – | |||
| Receiver | |||||||||
| Differential Peak-to-Peak Output Voltage | – | mV | – | – | 900 | – | |||
| DC Common Mode Voltage | Vcm | mV | -350 | – | 2850 | – | |||
| Common Mode Noise, RMS | VcmAC | mV | – | – | 17.5 | – | |||
| Differential Termination Mismatch | – | % | – | – | 10 | – | |||
| Differential Output Return Loss(SDD22) |
– | dB | – | IEEE Equation (83E-2) |
– | – | |||
| Common-mode to Differential Conversion and Differential to Common-Mode Conversion(SCD22,SDC22) |
– | dB | – | IEEE Equation (83E-3) |
– | – | |||
| Near-End ESMW (Eye Symmetry Mask Width) | – | UI | – | 0.265 | – | – | |||
| Near-End Eye Height, Differential | – | mV | – | 70 | – | – | |||
| Far-End ESMW (Eye Symmetry Mask Width) | – | UI | – | 0.2 | – | – | |||
| Far-End Eye Height, Differential | – | mV | – | 30 | – | – | |||
| PD Wavelength | – | nm | 840 | 850 | 860 | – | |||
| IIC communication | |||||||||
| IIC Clock Frequency | – | kHZ | / | 400 | 1000 | – | |||
| Clock Stretching | – | us | / | / | 500 | – | |||
PIN DESCRIPTIONS
Electrical Pin-out Details
| PIN | Logic | Symbol | Description | Note | |||||
| 1 | – | GND | Ground | 1 | |||||
| 2 | CML-I | Tx2n | Transmitter Inverted Data Input | – | |||||
| 3 | CML-I | Tx2p | Transmitter Non-Inverted Data output | – | |||||
| 4 | – | GND | Ground | 1 | |||||
| 5 | CML-I | Tx4n | Transmitter Inverted Data Input | – | |||||
| 6 | CML-I | Tx4p | Transmitter Non-Inverted Data output | – | |||||
| 7 | – | GND | Ground | 1 | |||||
| 8 | LVTTL-I | ModSelL | Module Select | – | |||||
| 9 | LVTTL-I | ResetL | Module Reset | – | |||||
| 10 | – | VccRx | +3.3V Power Supply Receiver | 2 | |||||
| 11 | LVCOMS-I/O | SCL | 2-Wire Serial Interface Clock | – | |||||
| 12 | LVCOMS-I/O | SDA | 2-Wire Serial Interface Data | – | |||||
| 13 | – | GND | Ground | 1 | |||||
| 14 | CML-0 | Rx3p | Receiver Non-Inverted Data Output | – | |||||
| 15 | CML-0 | Rx3n | Receiver Inverted Data Output | – | |||||
| 16 | – | GND | Ground | 1 | |||||
| 17 | CML-0 | Rx 1p | Receiver Non-Inverted Data Output | – | |||||
| 18 | CML-0 | Rx 1n | Receiver Inverted Data Output | – | |||||
| 19 | – | GND | Ground | 1 | |||||
| 20 | – | GND | Ground | 1 | |||||
| 21 | CML-0 | Rx2n | Receiver Inverted Data Output | – | |||||
| 22 | CML-0 | Rx2p | Receiver Non-Inverted Data Output | – | |||||
| 23 | – | GND | Ground | 1 | |||||
| 24 | CML-0 | Rx4n | Receiver Inverted Data Output | – | |||||
| 25 | CML-0 | Rx4p | Receiver Non-Inverted Data Output | – | |||||
| 26 | – | GND | Ground | 1 | |||||
| 27 | LVTTL-0 | ModPrsL | Module Present | – | |||||
| 28 | LVTTL-0 | IntL | Interrupt | – | |||||
| 29 | – | VccTx | +3.3 V Power Supply transmitter | 2 | |||||
| 30 | – | Vcc1 | +3.3 V Power Supply | 2 | |||||
| 31 | LVTTL-I | LPMode | Low Power mode | – | |||||
| 32 | – | GND | Ground | 1 | |||||
| 33 | CML-I | Tx3p | Transmitter Inverted Data Input | – | |||||
| 34 | CML-I | Tx3n | Transmitter Non-Inverted Data output | – | |||||
| 35 | – | GND | Ground | 1 | |||||
| 36 | CML-I | Tx 1p | Transmitter Inverted Data Input | – | |||||
| 37 | CML-I | Tx 1n | Transmitter Non-Inverted Data output | – | |||||
| 38 | – | GND | Ground | 1 | |||||
| 39 | – | GND | Ground | 1 | |||||
| 40 | CML-I | Tx6n | Transmitter Inverted Data Input | – | |||||
| 41 | CML-I | Tx6p | Transmitter Non-Inverted Data output | – | |||||
| 42 | – | GND | Ground | 1 | |||||
| 43 | CML-I | Tx8n | Transmitter Inverted Data Input | – | |||||
| 44 | CML-I | Tx8p | Transmitter Non-Inverted Data output | – | |||||
| 45 | – | GND | Ground | 1 | |||||
| 46 | – | Reserved | For future use | 3 | |||||
| 47 | – | VS1 | Module Vendor Specific 1 | 3 | |||||
| 48 | – | VccRx1 | +3.3V Power Supply Receiver | 2 | |||||
| 49 | – | VS2 | Module Vendor Specific 2 | 3 | |||||
| 50 | – | VS3 | Module Vendor Specific 3 | 3 | |||||
| 51 | – | GND | Ground | 1 | |||||
| 52 | CML-0 | Rx7p | Receiver Non-Inverted Data Output | – | |||||
| 53 | CML-0 | Rx7n | Receiver Inverted Data Output | – | |||||
| 54 | – | GND | Ground | 1 | |||||
| 55 | CML-0 | Rx5p | Receiver Non-Inverted Data Output | – | |||||
| 56 | CML-0 | Rx5n | Receiver Inverted Data Output | – | |||||
| 57 | – | GND | Ground | 1 | |||||
| 58 | – | GND | Ground | 1 | |||||
| 59 | CML-0 | Rx6n | Receiver Inverted Data Output | – | |||||
| 60 | CML-0 | Rx6p | Receiver Non-Inverted Data Output | – | |||||
| 61 | – | GND | Ground | 1 | |||||
| 62 | CML-0 | Rx8n | Receiver Inverted Data Output | – | |||||
| 63 | CML-0 | Rx8p | Receiver Non-Inverted Data Output | – | |||||
| 64 | – | GND | Ground | 1 | |||||
| 65 | – | NC | Not Connect | 3 | |||||
| 66 | – | Reserved | For future use | 3 | |||||
| 67 | – | VccTx 1 | +3.3 V Power Supply transmitter | 2 | |||||
| 68 | – | Vcc2 | +3.3 V Power Supply | 2 | |||||
| 69 | – | Reserved | For future use | 3 | |||||
| 70 | – | GND | Ground | 1 | |||||
| 71 | CML-I | Tx7p | Transmitter Inverted Data Input | – | |||||
| 72 | CML-I | Tx7n | Transmitter Non-Inverted Data output | – | |||||
| 73 | – | GND | Ground | 1 | |||||
| 74 | CML-I | Tx5p | Transmitter Inverted Data Input | – | |||||
| 75 | CML-I | Tx5n | Transmitter Non-Inverted Data output | – | |||||
| 76 | – | GND | Ground | 1 | |||||
| Notes: 1. QSFP-DD uses common ground (GND) for all signals and supply (power). All the common within the QSFP-DD module and all module voltages are referenced to this potential unless otherwise noted. Connected theses directly to the host board signal common ground plane.2. VccRx, VccRx 1, Vcc1, Vcc2, VccTx, and VccTx 1 shall be applied concurrently. Requirements defined for the host side of the Host Card Edge Connector are listed in Table 4. VccRx, VccRx 1, Vcc1, Vcc2, VccTx, and VccTx 1 may be internally connected within the module in any combination. The connector Vcc pins are each rated for a maximum current of 1000mA. 3. All Vendor Specific, Reserved and No Connect pins may be terminated with 50 ohms to ground on the host. Pad 65 (No Connect) shall be left unconnected within the module. Vendor Specific and Reserved pads shall have an impedance than 10 kOhms and less than 100pF. |
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