Microsemi DIGI-G5 supports 1.2 Tbps of combined OTN, client interfaces

April 19, 2018
Microsemi Corp. (NASDAQ: MSCC) has extended its family of DIGI Optical Transport Network (OTN) silicon with the DIGI-G5, which the company says delivers a 3X increase in capacity while reducing power consumption per port by 50%. In addition to OTN 3.0 and Flexible OTN (FlexO), the device will support 25 Gigabit Ethernet (GbE), 50GbE, 200GbE, 400GbE, and Flexible Ethernet (FlexE). The DIGI-G5 will enable designs that support 1.2 Tbps of combined OTN and client interfaces, Microsemi asserts, while offering an integrated security engine.

Microsemi Corp.(NASDAQ: MSCC) has extended its family of DIGI Optical Transport Network (OTN) silicon with the DIGI-G5, which the company says delivers a 3X increase in capacity while reducing power consumption per port by 50%. In addition to OTN 3.0 and Flexible OTN (FlexO), the device will support 25 Gigabit Ethernet (GbE), 50GbE, 200GbE, 400GbE, and Flexible Ethernet (FlexE). The DIGI-G5 will enable designs that support 1.2 Tbps of combined OTN and client interfaces, Microsemi asserts, while offering an integrated security engine.

Additional features include 56G PAM4 serializer/deserializer (SerDes) functionality that enables direct connection to QSFP-DD, OSFP, and coherent digital signal processors (DSPs). An integrated packet test set enables remote troubleshooting and debug, while the integrated CrypOTN security engine supports end-to-end AES-256 based encryption and authentication. The device also features integrated G.HAO bandwidth-on-demand processing for OTN switching networks

For implementation ease, Microsemi offers the DIGI OTN Switching Software Development Kit (SDK), which provides an application-driven hardware abstraction layer (HAL) to simplify data path setup to a handful of application program interface (API) calls, according to the company. An onboard ARM® processor enables terabit per second application performance by offloading the host central processing unit (CPU) from such operations as data path provisioning, protection switching, and overhead management.

The DIGI-G5 aims to support what Microsemi expects to be an increase in demand for 100G OTN switched connections, driven by growth in IP/MPLS traffic as well as the upcoming rollouts of 5G mobile networks. The device will enable 400G linecards on the path toward 1-Tbps designs.

"China Mobile operates one of the world's largest OTN switched networks," said Li Han, deputy director of the Network Technology Research Institute, China Mobile Communications Co., Ltd. "To meet bandwidth needs as we enter the 5G and cloud era, our metro network must scale by leveraging new higher speed OTN rates while reducing both cost and power per bit. Microsemi's DIGI-G5 platform will enable our suppliers to build higher capacity scalable systems to support our long-term network expansion needs."

The DIGI-G5 is expected to begin sampling this quarter.

For related articles, visit the Optical Technologies Topic Center.

For more information on communications semiconductors and suppliers, visit the Lightwave Buyer's Guide.

Sponsored Recommendations

Coherent Routing and Optical Transport – Getting Under the Covers

April 11, 2024
Join us as we delve into the symbiotic relationship between IPoDWDM and cutting-edge optical transport innovations, revolutionizing the landscape of data transmission.

Data Center Network Advances

April 2, 2024
Lightwave’s latest on-topic eBook, which AFL and Henkel sponsor, will address advances in data center technology. The eBook looks at various topics, ranging...

From 100G to 1.6T: Navigating Timing in the New Era of High-Speed Optical Networks

Feb. 19, 2024
Discover the dynamic landscape of hyperscale data centers as they embrace accelerated AI/ML growth, propelling a transition from 100G to 400G and even 800G optical connectivity...

Supporting 5G with Fiber

April 12, 2023
Network operators continue their 5G coverage expansion – which means they also continue to roll out fiber to support such initiatives. The articles in this Lightwave On ...