[MMS1C10-CM] Mellanox 100GBASE-PSM4 QSFP28 1310nm 500m DOM MTP/MPO-12 SMF Optical Transceiver Module

NVIDIA MMS1C10-CM Optical Transceiver 100Gb/s QSFP MPO 1310nm PSM4

100GbE QSFP28 PSM4 Optical Transceiver

NVIDIA Networking MMS1C10-CM transceiver is a parallel single mode, 4-channel (PSM4), pluggable, QSFP28, optical transceiver designed for use in 100 GbE Ethernet applications.

This module incorporates a state-of-the-art uncooled DFB laser and integrated circuit technology, in order to provide high performance operation. The transceiver operates over 2x4-lane parallel single mode fiber (SMF), using a nominal wavelength of 1310 nm in compliance with the 100G PSM4 MSA.

The transceiver is SFF-8665 compliant, i.e. it has a standard QSFP28 connector on the electrical side towards the host system, single 3.3 V supply, hot pluggable, and two-wire serial management interface.

The transceiver has Digital Diagnostic Monitoring (DDM) functions for supply voltage, temperature, laser bias current, optical transmit and receive levels with associated warning and alarm thresholds.

Adjustment of the Tx input equalizer, Rx output amplitude/emphasis, and (de)selection of retiming is controlled via registers defined in the SFF-8636 standard.

The optical interface is composed of four optical channels/fibers in each direction, intended for a parallel single-mode optical cable via a standard MPO/APC connector.

Rigorous production testing ensures the best out-of-the-box installation experience, performance and durability.

Highlights
Up to 100 Gb/s data rate
Up to 500 m reach over single mode fiber at 100 Gb/s
Selectable retiming enabling 40G operation
SFF-8665 compliant
3.3 V power supply
QSFP28 Power Class 4 (<3.5 W)
Class 1 laser safety
Hot pluggable
RoHS, UL & TUV compliant
100G-PSM4 compliant
SFF-8636 compliant two wire interface with Digital Diagnostic Monitoring
Applications:
IEEE 802.3bm CAUI-4 100G Ethernet
100G and 40G Ethernet on PSM4 (Parallel Single Mode 2x4-Fiber) links
Qualified for use in NVIDIA Ethernet end-to-end systems