PRODUCT

US Conec offers MTP-16 multi-fibre connector for 400G applications

US Conec, a developer of optical interconnects, has unveiled the new MTP-16 multi-fibre optical connector at ECOC 2015 in Valencia, Spain. The MTP-16 connector offers the highest density physical contact for multi-fibre connector format on the market today, the company says.

“Comprised of the proven US Conec MT Elite ferrule technology, the MTP-16 connector hardware is ideal for structured cabling applications supporting parallel or duplex links that require low insertion loss,” said Shelly Buchter, product manager at US Conec.

The new MTP-16 connectors for high-density trunk cables can efficiently aggregates eight-lane QSFP+ and QSFP28 links while directly coupling into emerging 16x25G active devices.

The MTP-16 connector family encompasses the 16-fibre MT ferrule, connector hardware, and bulkhead adapters. Using the same external footprint as the traditional 12-fibre MT ferrule, the 16-fibre MT Elite is available in one or two rows of 16 fibres. It is based on the. It also benefits from the proven features and technology of US Conec’s traditional polyphenylene sulfide MT ferrules

The connector hardware offers a new keying design, as opposed to the centred keying feature on the traditional MPO hardware. This new design, currently being standardised by TIA 604-18 (FOCIS 18) and IEC (61754-7-3), ensures proper mating of the MTP-16 connector while preventing inadvertent mating of the 16-fibre connector with standard MPO-compliant hardware. The MTP-16 adapters are available in full or reduced flange mounting and opposed or aligned key orientation.

Company: 
Feature

Cost and compatibility can make a compelling case for pushing 100Gb/s bandwidth over a single optical channel, both as individual links and supporting 400Gb/s Ethernet, finds Andy Extance

Analysis and opinion
Analysis and opinion
Feature

Robin Mersh takes a look at how the industry is creating next-generation optical access fit for 5G

Feature

Technological advances to aid the increasing demand for bandwidth, on the path towards the terabit network, should lead to optical signals that are flexible and adaptive, like water, argues Dr Maxim Kuschnerov and Dr Yin Wang