Xyratex Solves Connector Alignment Problem - Empowers Competitive Optical Backplane Solutions
January 04 2006 - 9:00AM
PR Newswire (US)
HAVANT, United Kingdom, Jan. 4 /PRNewswire-FirstCall/ -- Xyratex
Ltd (NASDAQ:XRTX) today announced its latest patent applications,
enabling embedded waveguide technology to be used competitively
inside an optical backplane solution. "One of the main issues
preventing the wider deployment of this technology has been the
inability to adequately and cost effectively align the photonic
signal path through a connector or other component to a waveguide
buried within the layers of an optical backplane or plug-in card,"
explained Ian Johnson, Xyratex Chief Scientist. "Even very small
misalignments will result in substantial signal losses thereby
reducing the performance of the ultra high speed interconnect
channel. Further, conventional micro-manipulator alignment
techniques are perceived to be far too expensive to be practical."
The IT and Communication industry is continuously deploying ever
increasing numbers of high-speed devices, densely packaged within a
high availability solution. For instance, the next generation Fibre
Channel standard is researching into an 8 Gb/s data rate, the next
generation SAS/SATA standards are looking towards 6 Gb/s and the
Infiniband standard has already started deploying 10 (4x) and 30
(12x) Gigabaud connections. In addition, the emerging PCI Express
standard can be configured in multiples of 2.5 Gigabaud channels,
and 10 Gigabit Ethernet is beginning to be deployed more widely.
Continued Johnson, "These higher data rates make the provision of
high speed interfaces and the subsequent design of systems within
specified cost targets much more difficult due to the challenge of
managing conflicting requirements such as crosstalk and RFI
emissions." Most of these high performance interconnects make up
their high speed channels with multiple 2.5 Gigabaud links today,
but Double Data Rate (DDR), i.e. 5 Gigabaud individual links, are
already emerging and Quad Data Rate (QDR), 10 Gigabaud individual
links are also being discussed in some of the standards. Further,
the use of copper as the source material to carry these high speed
electrical signals becomes problematic at speeds higher than 3 or 4
Gigabaud. More costly dielectric materials are usually required
above these speeds to ensure signal integrity over useful
distances. This is to sustain the low bit error rate requirements
of these high speed digital communication channels. Additionally,
as the individual electrical links approach or exceed 10 Gb/s, any
purely electrical implementation becomes very difficult and the
costs begin to significantly rise. A recent research study has
suggested that the optimum cross over to optical based solutions
could be as low 6.25 Gigabaud per link. Historically photonic
solutions have been considered too expensive, but now optical
component costs are falling and densely packaged VCSEL lasers can
be purchased at prices approaching $1 per Gb/s in volume. Below
this cost point, the issue begins to move toward the system
integration implementation problems of high density and low cost
optical paths. To address this, Xyratex has researched a completely
new method of repeatable line card insertion and cost effective
connection to an embedded optical backplane and has successfully
created a practical design demonstration with respect to high-speed
data transfer across multimode polymer waveguides. "We have
successfully focused our attention on the development of a low cost
optical connector with a particularly cost effective waveguide
alignment and a highly practical daughtercard accommodation
methodology that can be widely used in many storage, networking and
telecommunications applications," added Johnson. The Xyratex
solution satisfies the following requirements: * High bandwidth
connection with low latency optical interconnect * Reliable high
precision connection with immunity to movements between line card
and backplane (vibrations, air flow and PCB deformation due to
thermal and mechanical stresses) * High connection repeatability
> 100 cycles * Scalable to accommodate more channels and more
connectors per board * Low cost in mass production "This is another
good example of Xyratex spotting an industry bottleneck or road
block and then researching the solution with our academic
partners," said Steve Thompson, Xyratex CTO. "Our OEM business
model requires us to maintain our technology leadership in
providing innovative high density, high speed, storage and network
solutions for our customers. The 3 patent applications filed and 3
being prepared identified in this important area will enable
opportunities for innovative system architectures within our
strategic roadmap." Xyratex anticipates that the market will start
to emerge in 2007 with volume product becoming commercially
available in 2008. There may also be opportunities for earlier
deployment in certain niche applications where device density or
RFI issues are particularly difficult. The Storlite research
project was a 30-month optical research and development program
based in the UK and supported by the Department of Trade and
Industry. The project involved the collaboration of University
College London, Edinburgh University and our industrial research
partner, Glasgow-based Exxelis. About Xyratex Xyratex is a leading
provider of enterprise class data storage subsystems and network
technology. The company designs and manufactures enabling
technology that provides OEM and disk drive manufacturer customers
with data storage products to support high-performance storage and
data communication networks. Xyratex has over 20 years of
experience in research and development relating to disk drives,
storage systems and high-speed communication protocols. Founded in
1994 in a management buy-out from IBM, and with its headquarters in
the UK, Xyratex has an established global base with R&D and
operational facilities in Europe, the United States and South East
Asia. DATASOURCE: Xyratex Ltd CONTACT: Public Relations, Curtis
Chan, +1-714-447-4993, , for Xyratex Ltd; or Investor Relations,
Brad Driver of Xyratex Ltd, +1-408-325-7260,
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