PALO ALTO, Calif.--()--GigOptix Inc. (OTCBB: GGOX), announced today that they have successfully demonstrated error-free 10 Gb/s optical links over 100m of multi-mode fiber (MMF) operating with less than 81mW per channel or 8mW/Gb/s. These links used ‘off the shelf’ 850 nm O/E components and GigOptix’s HXT/R4 series of multichannel VCSEL driver and receiver arrays with a single power supply. This is a major step in parallel optics solutions as it will enable 12 channel links used in SNAP12, CXP, for and 100GBASE-SR10 standards to achieve sub 1W power dissipation.
“System integrators can now produce unprecedented power efficiency for high-density, board-to-board interconnects for high-end servers and routers. This new generation provides higher bandwidths and greatly reduces system power dissipation which will enable data center managers to save significantly on energy costs due to heat management.”
Commercially available 12 channel parallel optics modules operating at 6.25Gb/s per channel offer an aggregate bandwidth of 75Gb/s with power consumption of 53mW/Gb/s or in the range of 300mW per channel. GigOptix 10Gb/s solution offers 120Gb/s and results demonstrate more than 6 x improvement over the previous generations with a single power supply.
"Network demand continues to grow at a fast pace and parallel optics provides many benefits over traditional copper connections in broadband networks," commented Daryl Inniss, Vice President and Practice Leader of Communications Component of Ovum. “Continuously driving down the energy per bit is key to accelerating the adoption in the Enterprise segment. GigOptix is setting a significant benchmark with these results.”
“This is a great result that confirms the value of the 10Gb/s implementation with new technology concepts to reduce power. We also have more system optimization ideas which, we believe, can improve on these results with further cooperation with our customers,” stated Joerg Wieland, Vice President and General Manager of GigOptix-Helix. “System integrators can now produce unprecedented power efficiency for high-density, board-to-board interconnects for high-end servers and routers. This new generation provides higher bandwidths and greatly reduces system power dissipation which will enable data center managers to save significantly on energy costs due to heat management. ”
The HXT/R4 family is designed for use in Active Optical Cables (AOC), SNAP12 and QSFP optical modules while serving the fast growing markets of high performance computing optical interconnects, switch and router optical backplanes and the new 40G and 100G Ethernet standards.
About GigOptix Inc.
GigOptix is a leading fabless manufacturer of electronic engines for the optically connected digital world. The Company offers a broad portfolio of high speed electronic devices including polymer electro-optic modulators, modulator drivers, laser drivers and TIAs for telecom, datacom, Infiniband and consumer optical systems, covering serial and parallel communication technologies from 1G to 120G. For more information, please visit www.GigOptix.com.
Forward-Looking Statements
This release may contain "forward-looking statements" within the meaning of Section 27A of the Securities Act of 1933 and Section 21E of the Securities Exchange Act of 1934. All statements by GigOptix regarding its expected financial position, revenues, cash flow and other operating results, business strategy, financing plans, forecasted trends related to the markets in which it operates, and similar matters are forward-looking statements. GigOptix's actual results could be materially different from its expectations because of various risks to its business. Many of these risks are discussed under the caption "Risk Factors" in GigOptix' registration statement on Form S-4 on file with the SEC, Except for any obligation to disclose material information under the Federal securities laws, GigOptix undertakes no obligation to release publicly any revisions to any forward-looking statements to reflect events or circumstances after the date of this document.

