Oclaro is sampling a suite of integrated optical components that enable transmission solutions up to 600 Gb/s per wavelength for long-haul, regional, metro and data centre interconnect applications.

Components in the portfolio include: a 64Gbaud micro-Intradyne Coherent Receiver (micro-ICR); 64Gbaud Integrated Coherent Transmitter (ICT); a 100kHz micro-integrated tunable laser assembly (micro-ITLA); 64Gbaud high-bandwidth co-packaged driver modulator (HB-CDM); and a high-bandwidth LiNbO3 polarisation multiplexed - quadrature Mach-Zehnder (PM-QMZ) modulator.

At ECOC 2017 in Sweden, Oclaro unveiled photonic integrated coherent transmitters (ICTs) and intradyne coherent receiver (ICRs) that enable optical transmission speeds up to 600Gb/s. Both products support baud rates up to 64Gbaud and complex modulation schemes up to 64-QAM.

These high-performance components can be configured for data rates from 100Gb/s to 600Gb/s, enabling customers to build modules supporting a variety of network applications from data centre interconnect (DCI) to ultra-long-haul transmission.

Oclaro has announced sampling of a 400G CFP8 optical transceiver to support the ultra-high bandwidth requirements of core routers and optical transport applications. Oclaro held a live demo of the CFP8 at its booth #2747 at OFC 2017.

Delivering four times more bandwidth than existing 100G CFP-family devices in a small and compact footprint, the device operates with eight lasers using 50Gb/s per channel and PAM4.

Oclaro is sampling of its second-generation tunable SFP+ module operating at high temperatures of up to 85°C with very low power consumption. The device paves the way for tunable lasers to be used in cost-sensitive, environmentally challenging applications like fibre-to-the-home (FTTH) and mobile fronthaul applications, the company says.

Oclaro says it is sampling a new dual micro-ITLA (integrable tunable laser assembly) containing two micro-ITLA devices in the same package. The dual micro-ITLA enables a 25 per cent reduction in size and 1W lower power consumption compared to using two discrete micro-ITLAs, while providing the same optical performance and reliability as the discrete devices.