Showing posts with label Finisar. Show all posts
Showing posts with label Finisar. Show all posts

Tuesday, March 10, 2020

II-VI launches pluggable Optical Line Subsystem for 400ZR

II‐VI introduced a pluggable optical line subsystem (POLS) platform to enable the 400ZR coherent transceivesr ecosystem for next-generation datacenter interconnects (DCIs).

II-VI’s initial product from the POLS platform is the OSFP-LS, designed in the very compact OSFP form factor, that plugs directly into a datacenter interconnect (DCI) switch port and enables full-duplex multi-channel 400ZR transport, including multiplexing, demultiplexing, and variable-gain amplification. The OSFP-LS supports up to 8 DWDM wavelengths, or 3.2 Tbps per fiber pair.

“The POLS platform is a revolution in datacenter interconnects,” said Martin Hull, VP of Platform Products at Arista Networks. “Just as a 400ZR transceiver collapses the 400G transponder linecard functionality into a pluggable module, so does the OSFP-LS in relation to an optical line system linecard. The plug-and-play functionality of the OSFP-LS will enable our switch customers to deploy them quite easily and cost-efficiently as they migrate to 400ZR.”

“The POLS platform leverages significant breakthroughs in the areas of miniaturizing optical components for amplification and wavelength management, while simultaneously improving performance and reducing power consumption,” said Dr. Sanjai Parthasarathi, Chief Marketing Officer, II-VI Incorporated. “The POLS platform is enabled by II-VI’s vertically integrated portfolio of best-in-class components in the industry, including our uncooled, highly compact, 3-pin micropump, the smallest of its kind on the market.”

Monday, September 30, 2019

II‐VI completes merger with Finisar

II‐VI completed its acquisition of Finisar, bring together two optical networking industry leaders serving the broad set of fast-growing markets of communications, consumer electronics, military, industrial processing lasers, automotive semiconductor equipment and life sciences. The combined company's portfolio will span high-performance datacom transceivers, products based on coherent transmission technology and ROADM solutions for next-generation undersea, long-haul and metro networks, hyperscale datacenters and 5G optical infrastructure.

The new II-VI will be organized into two segments:

The Compound Semiconductors Segment is expected to be a market leader in differentiated materials and devices such as those based on gallium arsenide, indium phosphide, gallium nitride and silicon carbide, by independently driving investments that advance its technology roadmaps. The segment will be led by Dr. Giovanni Barbarossa – Chief Strategy Officer, II-VI Incorporated and President, Compound Semiconductors.

The Photonic Solutions Segment leverages II-VI’s compound semiconductor technology platforms to deliver components and subsystems that are differentiated based on deep knowledge of end user applications for our key end markets. The segment will be led by Sunny Sun – President, Photonic Solutions.

“Today our company is taking a giant leap forward in our scale to serve a significantly increasing addressable market,” said Dr. Vincent D. Mattera, Jr., Chief Executive Officer, II-VI Incorporated. “The powerful combination of II-VI and Finisar makes us the global leader in optical communications and continues our leadership in our other key end markets, with a world-class product portfolio and deep technology expertise that enables us to offer more tightly integrated solutions and exceptional overall value for our customers.”

“With nearly 80 years of combined business leadership in photonics and compound semiconductors, it makes sense for Finisar to join the II-VI family to continue to deliver the best products and solutions possible,” said Todd Swanson, Finisar’s Chief Operating Officer and co-CEO. “Thanks to the talents of numerous individuals across this new global powerhouse, II-VI and Finisar are ready to merge into one highly efficient and seamless company with a common culture, vision and mission.”

Under the deal, which was first announced on November 9, 2018, Finisar shareholders will receive on average $15.60 in cash and 0.2218 shares of II-VI common stock per 1.0 share of Finisar common stock depending on each shareholder’s election as laid out in the merger agreement. This transaction is fully taxable to Finisar shareholders. The company expects to achieve $150M in run rate synergies over the next three years. The financing for the transaction was $1.9B of cash raised in a combination of Term Loans A and B with a combined interest rate of L+251 and $1.1B of the company’s stock.  Finisar shareholders will own approximately 32% of the combined company.

II-VI also confirmed the following executive team:

  • Dr. Vincent D. Mattera, Jr – Chief Executive Officer
  • Walter R. Bashaw II –  President
  • Mary Jane Raymond –  Chief Financial Officer
  • Dr. Giovanni Barbarossa – Chief Strategy Officer, II-VI Incorporated and President, Compound Semiconductors
  • Jo Anne Schwendinger – Chief Legal & Compliance Officer, Corporate Secretary
  • Dr. Christopher Koeppen – Chief Technical Officer

II-VI to acquire Finisar in $3.2 billion deal

II-VI agreed to acquire Finisar in a cash and stock deal valued at approximately $3.2 billion, creating one of the largest photonics and compound semiconductor companies.

The deal, which has been approved by the boards of both companies, brings together two optical networking industry leaders serving the broad set of fast-growing markets of communications, consumer electronics, military, industrial processing lasers, automotive semiconductor equipment and life sciences. The combined company's portfolio will span high-performance datacom transceivers, products based on coherent transmission technology and ROADM solutions for next-generation undersea, long-haul and metro networks, hyperscale datacenters and 5G optical infrastructure.

The companies said their combined optoelectronics technology leadership based on GaAs and InP compound semiconductor laser design platforms, together with one of the world’s largest 6-inch vertically integrated epitaxial growth and device fabrication manufacturing platforms, will enable faster time to market for a greater number of opportunities in 3D sensing and LiDAR.

“Disruptive megatrends driven by innovative uses of lasers and other engineered materials present huge growth opportunities for both of our companies,” said Dr. Vincent D. Mattera, Jr., President and CEO, II-VI Incorporated. “In communications, materials processing, consumer electronics and automotive, we expect that the combination with Finisar will allow us to leverage our combined technology and intellectual property in InP, GaAs, SiC, GaN, SiP and diamond to achieve faster time to market, cost and scale. Together, we believe that we will be better strategically positioned to play a strong leadership role in the emerging markets of 5G, 3D sensing, cloud computing, electric and autonomous vehicles, and advanced microelectronics manufacturing.”

“The combination of our state-of-the-art technology platforms, deep customer relationships, great assets and amazing talent will enhance our ability to hit market windows that won’t stay open for long,” said Michael Hurlston, Finisar’s CEO. “This combination will accelerate our collective growth and will take advantage of the technology, products and manufacturing expertise that Finisar has uniquely developed over the course of its 30 year history.”

Highlights of the deal:
  • Finisar’s stockholders will receive, on a pro-rated basis, $15.60 per share in cash and 0.2218x shares of II-VI common stock, valued at $10.40 per share based on the closing price of II-VI’s common stock of $46.88 on November 8, 2018. 
  • The transaction values Finisar at $26.00 per share, or approximately $3.2 billion in equity value and represents a premium of 37.7% to Finisar’s closing price on November 8, 2018. 
  • Finisar shareholders would own approximately 31% of the combined company. 
  • Together, II-VI and Finisar will have 24,000 employees in 70 locations.
  • The combined company will hold over 2,700 patents
  • The combined company had approximately $2.5 billion of annual revenue. 
  • The combined company expects to realize $150 million of run-rate cost synergies within 36 months of closing. Synergies are expected to be achieved from procurement savings, internal supply of materials and components, efficient research and development, consolidation of overlapping costs and sales and marketing efficiencies.
  • The transaction is expected to drive accretion in Non-GAAP earnings per share for the first full year post close of approximately 10% and more than double that thereafter.
  • II-VI intends to fund the cash consideration with a combination of cash on hand from the combined companies’ balance sheets and $2 billion in funded debt financing.
  • The transaction is expected to close in the middle of calendar year 2019.


Thursday, September 5, 2019

Finisar intros L-band High Resolution Optical Spectrum Analyzer

Finisar introduced its WaveAnalyzer 1500S/L High Resolution Optical Spectrum Analyzer designed to inspect the spectral characteristics of optical channels in the L-band of the telecommunications spectrum.

This instrument has been developed for researchers and engineers focused on optical communication systems operating in the L-band as well as for manufacturing test applications on the production floor.

The new WaveAnalyzer 1500S/L is based on heterodyne measurement technology and offers a resolution bandwidth of 180 MHz. It provides a high scan rate of four updates per second for full L-band scans and up to 10 updates per second for smaller range scans.

Similar to the C-band version of the WaveAnalyzer 1500S, the new L-band unit also has a built-in web server which includes a Graphical User Interface (GUI) and an Application Programming Interface (API). Additional analysis functions include Optical Signal to Noise Ratio (OSNR) measurements and Multi-Wavelength Analysis or Side Mode Suppression Ratio (SMSR) measurements.

https://www.finisar.com/optical-instrumentation

Tuesday, March 5, 2019

Finisar expands its optical portfolio, conducts OFC demos

Finisar introduced several new products and technology demonstrations at OFC in San Diego, including:

Suite of 200G, 2x200G, and 400G FR4 modules for data centers -- building on the industry’s massive adoption of 100G CWDM4 in data centers for links up to 2 km, Finisar is extending this technology to both 200G and 400G data rates. Finisar is demonstrating a 200G FR4 module in a QSFP56 form factor, a 2x200G FR4 in an OSFP form factor, and a 400G FR4 in a QSFP-DD form factor, each running over single mode fiber.

400G DR4 QSFP-DD modules in break-out and shuffle configurations -- Finisar is demonstrating its 400G DR4 QSFP-DD module in both break-out and shuffle configurations, allowing maximum deployment flexibility. In the break-out configuration, two 400G DR4 modules receiving data streams from an Ixia AresONE QSFP-DD test system, transmit four independent 100G PAM4 lanes to four separate Finisar 100G FR QSFP28 modules. In the shuffle configuration, 100G PAM4 lanes from a 400G DR4 module connect to another 400G DR4 module via shuffled lane assignments. The 400G DR4 transceiver module, compliant to the IEEE802.3bs standard, is critical not only to support the continuing growth in network bandwidth, but also to provide the flexibility needed by large scale data center customers that require 100G granularity in their architectures.

400G SR8 OSFP modules for multimode applications -- Finisar is unveiling 400G transceiver modules designed for short reach, multimode applications. This demonstration will showcase IEEE-compliant 400G SR8 optical modules in the OSFP form factor, running over 100 meters of standard OM4 multimode fiber. The modules use a 16-fiber, MPO-16 optical connector and can be deployed as point-to-point or in a break-out configuration of its 50G PAM4 lanes. They leverage VCSEL technology in the 850nm band to achieve the lowest power dissipation and lowest cost structure.

Finisar has actively participated in the definition of the QSFP-DD (Quad Small Form Factor Pluggable Interface Double Density) and OSFP (Octal Small Form Factor Pluggable) MSA modules, which are the latest form factors targeting 400G data rates. Both designs provide an eight-lane electrical interface, compared to traditional single or four-lane interfaces, thereby increasing bandwidth, channel capacity and port density. These form factors address the need for high-density, high-speed networking solutions.

25G Direct Detect Tunable Bidi SFP28 technology for 5G wireless networks -- Building on the success of Finisar’s first-to-market 10G tunable Bidi SFP+ transceiver, the company is demoing its next generation 25G tunable Bidi technology in an SFP28 form factor. This technology is the key building block for deploying these transceivers and will enable cost-effective next generation 5G wireless build-outs while also providing significantly more data capacity per fiber than other 25G-based optical architectures. The Bidi technology will also incorporate innovative and unique Finisar transceiver features, such as T2DOC and Flextune. These features enable transceiver-to-transceiver communications and self-wavelength tuning of remote modules during commissioning without host interaction. Both T2DOC™ and Flextune™ simplify field installation and remote maintenance while lowering operational expenses.

25G LR Lite SFP28 transceiver for 5G networks -- Finisar is demonstrating a new, cost-optimized 25G SFP28 module for front-haul applications in 5G wireless networks, which uses a Fabry-Perot (FP) laser. Most single-mode 25G optical modules rely on more costly Distributed Feedback (DFB) lasers to reach the 10km distances set by the IEEE standard. Finisar’s demonstration shows that low-cost FP lasers running at 25G data rates can support not only the 300 meters of reach required by the majority of 5G front-haul deployments, but also exceptional cases of 1km spans. The company has been a strong supplier of optical modules for 3G and 4G mobile infrastructure, and it is now rolling out its portfolio for 5G.

64Gbaud Integrated Coherent Transmit & Receive Optical Sub-Assembly -- Progressing on the path to miniaturize coherent optics, Finisar is exhibiting the industry's first technology demonstration of an Integrated Coherent Transmit & Receive Optical Sub-Assembly, designed to the current draft of the OIF IC-TROSA Type-2 requirements. The IC-TROSA Type-2 is an optical sub-assembly combining all key building blocks of a coherent optical front-end (i.e. tunable laser, optical amplifier, modulators, drivers, coherent mixer, photodiode array, and TIAs) – with internal control electronics. The device is Flexgrid® C-band tunable and supports multiple modulation formats, including QPSK, 8QAM, and 16QAM, at symbol rates up to 64Gbaud, enabling data transmission up to 400 Gb/s. The IC-TROSA’s low power dissipation and miniature footprint enables small form factor Digital Coherent Optics (DCO) transceivers in a QSFP-DD or OSFP form factor, as well as very high-density coherent line card or daughtercard designs.

http://www.finisar.com

Thursday, January 24, 2019

Perspective: The Best of Optics Technology in 2019

by Martin Zirngibl, Finisar CTO 

400G needed for explosive bandwidth growth everywhere in the network

It seems like 100G pluggable modules were introduced just yesterday but they are already running out of steam for leading-edge applications. 2019 will be the year of the early roll-outs of 400G across the entire network, for short-reach links such as server-to-top-of-rack switches in data centers, for leaf-to-spine connections inside data centers, for data center interconnection links (DCI) and DWDM metro networks.

But there is no one-size-fits-all solution

Although 400G will appear almost simultaneously throughout the network, there is no one-size-fits-all solution. Cost, power and footprint per bit need to be carefully tailored for each application, requiring a diverse set of technologies to optimally address the various distances and capacities. There is a strong trade-off between power consumption, footprint and cost of transponders versus their performance in reach and fiber capacity, which translates into the cost of the link. For instance, an electrical copper link based on direct attach copper cables (DAC) consumes on the order of 1W/100G and costs a few dollars but it can only reach three meters. On the other end of the spectrum, an optical transmitter transponder for long haul (several thousand km) burns up to 30-40W/100G and costs about three orders of magnitude more than the above copper link. A network provider must carefully choose the interconnection technology in their network. If the technology has too much performance, then there is a penalty to be paid in terms of power and cost. However, a transponder with low performance may constrain the scalability of future network expansions.

Multimode fiber (MM) will increasingly replace copper for high volume server to TOR links
 There are three types of optical interconnection technologies today: optical multimode, optical single-mode direct detect, and optical signal-mode coherent. Optical multimode transponders can be as low as 2W per 100G power consumption. They are based on Vertical Cavity Emitting Lasers (VCSEL) which are directly modulated. VCSEL-based multimode technology is very cost-effective since VCSELs can be processed and tested on wafer scale and the alignment tolerances of MM is very forgiving, allowing low-cost packaging technology. The main disadvantage of MM is their short reach: At 400G it is typically 30-70m, limited by modal dispersion. Multimode links can come in the form of parallel fibers, where there is typically one fiber per 50G lane capacity; or wavelength division multiplexed channels, where there are 4 lanes of 50G per fiber, the latter reducing the amount of fiber four times.

It is expected MM links will become the “new copper” and therefore their volumes will explode. Indeed, the great majority of links in a data center are between the servers and the top-of-rack switch and currently, they are based on electrical copper cables. Their volume dwarfs that of all the other optical links in a data center. But as SERDES speeds increase to 100G, the reach of copper links will be significantly curtailed, thus many of these high-volume links will need to become optical. This transition represents a significant opportunity for optical multimode VCSEL technology and they will be even more ubiquitous in all data centers.

For links beyond 100m, SiP and InP are competing for lowest cost solution
Once reach needs to extend beyond 100 meters at 400G, single mode optics is required. There are several technology options: Silicon Photonics (SiP), direct modulated lasers (DML) and externally modulated lasers (EML). It is generally accepted in the technical community that SiP-based transponders are best suited for parallel fiber, with one 100G lane per fiber, because this technology allows sharing of a single laser source amongst multiple modulators, each one creating a 100G lane. The sweet spot for parallel-fiber solutions is around 500m applications, although technically SiP can go longer reaches, the cost of the parallel fibers starts to outweigh the transponder cost savings. For links that need to reach 2km or 10km, most network providers, therefore, prefer duplex fiber, reducing the amount of fibers fourfold. Since either four or eight separate wavelengths are now required, the above described laser sharing is no longer an option thereby making DMLs and EMLs appealing. However, SiP solutions are also competing in this space and the jury is still out about which technology will eventually dominate.
 
Coherent transponders will dominate the DCI and metro applications 

Of course, the bandwidth explosion will ripple through data center interconnection, metro and access networks as well. It is the consensus in the technical community that for distances >30km and rates of 100G and above coherent technologies offer the best trade-offs between cost of the transponders versus cost of the fiber plant. One big advantage of coherent is that the fiber plant does not have to be engineered, because a coherent transponder can undo most of the transmission impairments on its own. Coherent transponders can also bridge very lossy links without need of optical amplification, making them attractive even for access networks.

Finisar to play in all segments: multimode, single-mode direct detect and coherent

In 2019, Finisar expects to ship 400G products across all reaches. We are now sampling single mode parallel 400G modules based on internal Silicon Photonics (shown at ECOC 2018), supporting up to 500m links.  For longer reaches (2km) and duplex fiber, 400G FR8 pluggable modules based on InP components are also available. Direct detect at 400G can even go much longer; our recently demonstrated QSFP-DD “eLR8” module with directly modulated 50G lasers can transmit data up to 30km through unamplified grey optics links. For coherent optical links we have developed what we believe is the highest integrated, lowest power coherent optical components on the market. The integrated tunable transmitter receiver assembly (ITTRA) integrates all the optical and control functionality into a single gold box. These very small form factor components are designed to fit into future coherent pluggable modules such as QSFP-DD, OSFP, CFP2, and CFP4. Its bandwidth of 40GHz will enable capacities of about 600Gb/s per single wavelength, something that was unimaginable only a few years ago. The low power, cost and footprint profile of the ITTRA will make coherent competitive for new non-unamplified applications that have been, up to now, the undisputed domain of direct detect technology.

Only the future will tell where the boundaries between multimode, single-mode direct detect, and coherent lies. There are powerful new technologies such a Silicon Photonics, low-power CMOS, chip-on-glass packaging technology and high-volume applications in data centers and 5G Mobile networks that will push the boundaries in unknown directions. What is clear is that Finisar has all the tools and technologies in-house to offer products that are cost and performance competitive for any of the emerging optical interconnection needs.


Martin Zirngibl was named Corporate CTO of Finisar in June 2018. He joined the company in 2016 as a VP Technology Fellow responsible for coherent product strategy. Prior to Finisar, he held progressive managerial roles at Nokia Bell Labs including Director of Optical Networking Research and Executive Director of Device and Subsystems Research. He also served as a member of technical staff at AT&T Bell Laboratories. Dr. Zirngibl holds a PhD in Physics from the Swiss Institute of Technology, Lausanne and a Diploma in Theoretical Physics from the same Institute. He received the Bell Labs Fellow award in 2008 and has published more than 100 scientific papers and filed over 50 patents.

Monday, November 12, 2018

II-VI to acquire Finisar in $3.2 billion deal

II-VI agreed to acquire Finisar in a cash and stock deal valued at approximately $3.2 billion, creating one of the largest photonics and compound semiconductor companies.

The deal, which has been approved by the boards of both companies, brings together two optical networking industry leaders serving the broad set of fast-growing markets of communications, consumer electronics, military, industrial processing lasers, automotive semiconductor equipment and life sciences. The combined company's portfolio will span high-performance datacom transceivers, products based on coherent transmission technology and ROADM solutions for next-generation undersea, long-haul and metro networks, hyperscale datacenters and 5G optical infrastructure.

The companies said their combined optoelectronics technology leadership based on GaAs and InP compound semiconductor laser design platforms, together with one of the world’s largest 6-inch vertically integrated epitaxial growth and device fabrication manufacturing platforms, will enable faster time to market for a greater number of opportunities in 3D sensing and LiDAR.

“Disruptive megatrends driven by innovative uses of lasers and other engineered materials present huge growth opportunities for both of our companies,” said Dr. Vincent D. Mattera, Jr., President and CEO, II-VI Incorporated. “In communications, materials processing, consumer electronics and automotive, we expect that the combination with Finisar will allow us to leverage our combined technology and intellectual property in InP, GaAs, SiC, GaN, SiP and diamond to achieve faster time to market, cost and scale. Together, we believe that we will be better strategically positioned to play a strong leadership role in the emerging markets of 5G, 3D sensing, cloud computing, electric and autonomous vehicles, and advanced microelectronics manufacturing.”

“The combination of our state-of-the-art technology platforms, deep customer relationships, great assets and amazing talent will enhance our ability to hit market windows that won’t stay open for long,” said Michael Hurlston, Finisar’s CEO. “This combination will accelerate our collective growth and will take advantage of the technology, products and manufacturing expertise that Finisar has uniquely developed over the course of its 30 year history.”

Highlights of the deal:
  • Finisar’s stockholders will receive, on a pro-rated basis, $15.60 per share in cash and 0.2218x shares of II-VI common stock, valued at $10.40 per share based on the closing price of II-VI’s common stock of $46.88 on November 8, 2018. 
  • The transaction values Finisar at $26.00 per share, or approximately $3.2 billion in equity value and represents a premium of 37.7% to Finisar’s closing price on November 8, 2018. 
  • Finisar shareholders would own approximately 31% of the combined company. 
  • Together, II-VI and Finisar will have 24,000 employees in 70 locations.
  • The combined company will hold over 2,700 patents
  • The combined company had approximately $2.5 billion of annual revenue. 
  • The combined company expects to realize $150 million of run-rate cost synergies within 36 months of closing. Synergies are expected to be achieved from procurement savings, internal supply of materials and components, efficient research and development, consolidation of overlapping costs and sales and marketing efficiencies.
  • The transaction is expected to drive accretion in Non-GAAP earnings per share for the first full year post close of approximately 10% and more than double that thereafter.
  • II-VI intends to fund the cash consideration with a combination of cash on hand from the combined companies’ balance sheets and $2 billion in funded debt financing.
  • The transaction is expected to close in the middle of calendar year 2019.

Tuesday, September 25, 2018

ECOC 2018: Finisar debuts 400G QSFP-DD DR4 transceiver

At ECOC 2018, Finisar is demonstrating several 200G and 400G transceivers, including 400G QSFP-DD DR4, 400G QSFP-DD eLR8 (extended-reach), 200G QSFP56 FR4 and 200G QSFP56 eFR4.

In addition, Finisar is showing the industry’s first 64 Gbaud Integrated Tunable Transmitter and Receiver Assembly (ITTRA) and a new Flextune self-tuning feature for tunable DWDM modules.

Some highlights:

400G QSFP-DD DR4 Transceivers -- a new 400G QSFP-DD DR4 transceiver targets parallel single mode fiber (SMF) links in hyperscale cloud data centers. Finisar is demoing an optical module transmitting data point-to-point over parallel single mode fiber (SMF) using four 100G PAM4 optical lanes, per the IEEE 802.3bs 400GBASE-DR4 standard. These DR4 modules can also be used in break-out applications to four 100G QSFP28 DR transceivers.

400G QSFP-DD eLR8 Transceivers -- Finisar is performing the industry's first public demonstration of a 400G QSFP-DD eLR8 extended-reach transceiver, transmitting data over 30km of duplex SMF. These modules provide a cost-effective option for router-to-router, or router-to-transport interconnections and use a DML-based 8x50G PAM4 optical architecture. This demonstration shows an extension of the technology which is already in production in Finisar’s 400G CFP8 LR8 modules and which has been demonstrated in Finisar’s 400G QSFP-DD LR8 modules over 10km at OFC 2018.

200G QSFP56 FR4 and eFR4 Transceivers -- for hyperscale cloud data centers that require 200G optical connectivity, Finisar is demonstrating both an IEEE Standard-based 200G QSFP56 FR4 module operating over 2km of duplex SMF and an extended-reach eFR4 version operating over 10km of duplex SMF. Both types of modules employ low-cost DML transmitters, providing cost-effective options for both standard and longer reaches.

64 Gbaud ITTRA demonstration-- Finisar is showing 64 Gigabaud Integrated Tunable Transmitter and Receiver Assembly (ITTRA) transmitting and receiving data error-free at 400 Gbps using DP-16QAM modulation. The ITTRA is a complete coherent optics assembly, which integrates a transmitter and a receiver into the smallest 64 Gbaud footprint in the market. It can be integrated into coherent line cards or 400G Digital Coherent Optics (DCO) transceivers, accelerating time to market and decreasing development and manufacturing labor costs due to fewer assembly steps and lower test times. This 64 Gbaud ITTRA product complements the 32 Gbaud ITTRA introduced by Finisar earlier this year at OFC.

Flextune Automatic Wavelength Tuning Feature Demonstration -- Finisar's Flextune is an automatic transceiver wavelength tuning feature which can significantly reduce provisioning time and operating expenses when deploying tunable DWDM transceivers. Using Finisar-patented technology, each transceiver on a DWDM optical link can self-tune to the correct wavelength determined by its physical connection to the passive mux/demux infrastructure, and without intervention by the host system or technicians. Finisar will perform a functional demonstration of Flextune™ on duplex Tunable SFP+ transceivers this week, and the feature is also being implemented on bidirectional Tunable SFP+ as well as on coherent transceivers.

Measurement Capabilities Added to Optical Instrumentation Portfolio -- Finisar's new WaveAnalyzer GUI release 1.8 now supports measurements of the Side Mode Suppression Ratio (SMSR) of lasers, an important performance characteristic for such devices operating in optical communication systems. Also, release 1.8 provides an in-channel Optical Signal to Noise Ratio (OSNR) measurement technique which is important in networks with filter elements like ROADMs.

Finisar -- booth #400

ECOC 2018: Finisar shows transceivers with Flextune self-tuning

At ECOC 2018, Finisar is demonstrating its new Flextune self-tuning feature for tunable DWDM transceiver modules. 

Finisar says its new Flextune automatic transceiver wavelength tuning feature can significantly reduce provisioning time and operating expenses when deploying tunable DWDM transceivers.  Using Finisar-patented technology, each transceiver on a DWDM optical link can self-tune to the correct wavelength determined by its physical connection to the passive mux/demux infrastructure without intervention by the host system or technicians.

This industry-first feature by Finisar allows up to 96 wavelength-tunable optical transceivers in a network to self-tune their wavelengths and operate over the DWDM infrastructure. Technicians simply insert the tunable DWDM transceivers into any host port on both ends of the link, and connect them to any of the optical mux/demux ports with fiber optic patch cables. Firmware contained in the transceivers determines the proper wavelengths to connect each host port to its remote end of the link, which can reduce provisioning time from hours to minutes. This can result in significant OpEx savings for service providers in DWDM metro and access applications such as mobile front-haul, Remote PHY, and data center interconnections (DCI).

“The Flextune functionality is an example of adding value through real innovation in the transceiver market,” said Vladimir Kozlov, founder and CEO of LightCounting. “Eliminating manual wavelength configuration and patching not only saves cost by minimizing deployment time and human errors, but it also enables DWDM in access topologies like passive front haul where equipment from different vendors can more easily interoperate.”

The Flextune feature is expected to be implemented on Finisar’s duplex and bidirectional Tunable SFP+, as well as on coherent transceivers. Samples are available now.

Wednesday, August 22, 2018

Interview with Finisar's Michael Hurlston

This year, Finisar marks its 30th anniversary in the optical components and subsystems business. I recently sat down with Michael Hurlston, who took over as CEO in January following the retirement of founder Jerry Rawls. Hurlston previously served as a Senior Vice President and General Manager of the Mobile Connectivity Products/Wireless Communications and Connectivity Division at Broadcom. 


Finisar has more than 1,000 US patents and over 13,000 employees worldwide, with its HQ in Sunnyvale, California and additional product development and manufacturing facilities located in California, Pennsylvania and Texas (USA), Australia, China, Germany, Malaysia, Singapore and Sweden. Its portfolion spans optical transceivers, active optical cables, optical engines, communication and sensing components, wavelength management devices, RF-over-Fiber transmitters, and optical instrumentation.

Jim Carroll: Tell me about Finisar, the 30th anniversary, and the company’s strategic direction, especially in regard to the hyperscalers. How has the vision of the company changed over time? 

Michael Hurlston: Finisar is one of the longest and most successful companies in optical communications and with an incredible history. For any company to survive for 30 years is a remarkable achievement, especially for one that has a huge manufacturing component,  such an important part of our story. The credit belongs to our founding CEO, Jerry Rawls, who guided the company for all of those 30 years. It was an incredible run for both the company and for Jerry. Now that he has stepped down, I've come in at a true inflection point in the history of optics. Your question about the hyperscalers is right on target because they are driving a lot more of the decision making in optics than ever before. The major network equipment OEMs, like Cisco or Nokia, are still very influential in setting the course of the industry, but clearly, the hyperscalers are becoming more influential. And each of the hyperscalers has a different way to build data centers, both inside the building and between nearby and distant data centers.  They think about these things very differently. Each of the big ones has a different way they employ optics. In addition, a lot of these guys are buying optics directly. They are moving to a disaggregated model, where instead of procuring attached optics from companies like Cisco, Juniper or Arista for their network switches and routers, it is now a separate decision. They are buying optics from companies like us, and buying  switches and routers from companies like Cisco and Juniper. It is a very complicated landscape and one that brings opportunity for us.

Jim Carroll: You’ve recently taken on the CEO position at Finisar. What attracted you to this company?

Michael Hurlston: It is an unbelievable opportunity for somebody in their first role as CEO to come in to a company like Finisar with a such a great history and a number one market share. Usually, first time CEOs are doing ‘fixer uppers’, the difficult task of trying to save a distressed asset. The opposite is true here. Jerry built quite a legacy in terms of employees that make this company what it is.

This is a great opportunity for me. To be truthful, I didn't know much about optics. My professional focus for the past 15 years has been around mobile phones. So as we look at this mobile opportunity and other consumer opportunities, I understand that quite a bit.  Secondly, I know how to build successful partnerships. In this new world of optics and data networking, we have to think differently about vertical integration, where it makes sense, and where we should adapt.  I may be driving people crazy with all my questions about why we do things this way. Probably 95% of the time the answer is that we have been doing things the right way. But 5% of the time, we may conclude that the old way of doing things is no longer optimal in this current landscape.

Jim Carroll: What is the company's core expertise? Its key differentiator?

Michael Hurlston: We do two things extremely well.  Number one, we're one of the very few companies that have our own component set. If you look at the landscape of optical networking, particularly for transceivers, there are two classes of company: one that actually assembles the transceiver and puts together all the components, wraps it up, tests it and then ships it to the end customer; and, two, companies that actually make components that go inside the transceiver, which are really the heartbeat of what the transceiver does. We're the one company that actually does both. We make the components and we have great strength in lasers, in particular. We manufacture all different kinds of devices, including lasers for coherent optics, long range optics, multi mode and VCSELs (vertical-cavity surface-emitting lasers), etc.  We manufacture the whole landscape of lasers, which is a big core competency. We actually make our own ICs as well, along with key drivers, laser drivers, and re timers. . We also have the second piece, which is assembly and test and when you put these two pieces together, you see that Finisar is very different from the vast majority of our competition.

Jim Carroll:  Every generation in silicon is increasingly difficult. In the optics field, of course, there are even more technical challenges as you move ahead. Can the industry keep up the pace in moving to 400G and beyond?

Michael Hurlston: Yes, I think that you're raising a great point.. Optics are becoming like semiconductors and more specialized over time. We’ve just talked a  bit about the specialization in assembling modules and then making components, but even within the making of components, you've got different tiers of suppliers. In core optics, there are several paths opening up for manufacturing transceivers because the market is fragmenting. The hyperscalers are each taking different approaches as well. What you find is that companies who are specializing and concentrating on specific customers or parts of the market tend to do better. We’ve seen competitors focus, for example, on coherent optics. We’ve also seen competitors focus on one or two of the hyperscalers, and they've done well. What Finisar needs is to focus on is our role as a total supplier, which we’ve been very successful at in the past and which is really about vertical integration. Also, focusing on a few key areas of the market where we see the most opportunity, instead of trying to serve every need, which has been a characteristic of our past.

Jim Carroll:  What is the high-end target for Finisar?

Michael Hurlston: We see increasing opportunities for our components in both core optical networking and mobile. For our module transceivers, we will focus more on the high end -- 100G, 400G and beyond – and perhaps do less of what we've done before.Regarding mobile, there is a big opportunity in  upgrading the metro transport networks.  Over the years, we’ve made millions of VCSELs for core optical networking, and this will continue. However, there is another huge opportunity related to the use of our VCSELs in handsets for facial recognition.  In fact, we’re ramping up a new 700k square foot manufacturing facility  in Sherman, Texas to pursue this opportunity. As you and other members of the media have reported, we are building this facility with the support of a major customer who is already using facial recognition in smartphones.

Jim Carroll: Are there other applications that you anticipate for VCSEL technology?

Michael Hurlston: Sure, there are a number of really compelling possibilities, and we wouldn’t have begun construction of a factory this size if we didn't see multiple opportunities. Gaming is a clear winner.  Imagine if you could do really great gesture recognition. The same thing goes for virtual reality. We're also seeing applications in automotive. Think about advanced sensors in the cabin that are able to detect a driver falling asleep, or not paying attention to the road and an accident is about to happen. There could be applications in vehicle-to-vehicle communications, LiDAR, and other means of detecting objects like approaching vehicles using visual technology. Cool stuff.

Jim Carroll: Let’s jump back to data centers. We’ve talked a little about hyperscalers and their unique network designs. It looks like the industry is just on the cusp of making the next jump to 400G? How do you see that technology coming along, especially compared to the 100G transition?

Michael Hurlston: 400G is coming and people are thinking about it and preparing in different ways. Our view is that we'll probably see the first shipments of 400G at the end of 2019 and going into 2020. I think the transition will be similar to 100G, where we had some slowness in the beginning, perhaps slower than people anticipated. But then suddenly, there was a tidal wave of deployments as most of the hyperscalers converted from 40G to 100G.  I think this 400G transition is going to be very much along the same lines, where a slow ramp suddenly turns into a dramatic transition. But I'm not sure it's going to be 2019 or 2020 when that uptick will occur. More likely, you'll see the beginning of the curve in late 2019, and more of the meat of the curve in 2021 or 2022.

Jim Carroll: Tell us about the enabling technologies that have to come into play for 400G to really have legs. I mean, when you push 400G into a tiny little device, you've got the heat problem, you’ve got the difficulty of very tight fiber alignments. Don’t these impact the manufacturability of 400G devices, the yield?

Michael Hurlston: You've asked a valid question about the degree of difficulty in terms of manufacturing. What we’ve seen is that Chinese module manufacturing competitors have become very adept at 100G. At 400G, the challenge is much tougher. The optical alignments are going to become very difficult as the number of lasers goes up -- let's say, from four to eight, or in some instances, from two to eight.  Depending on what technology you're talking about, it becomes very challenging to couple the light into the fiber.. Finisar has the ability to differentiate because we’ve developed our own tools for optical alignment and as such, we are able to align optical sub-assemblies  properly with the fiber. We think we can deliver differentiation in that manufacturing process for 400G. One of the approaches here is silicon photonics, which has been talked about for quite some time and is one of our areas of R&D. I think we'll begin employing that more frequently in our future 400G products.

Jim Carroll: What do you think about on-board optics? Is it further out?

Michael Hurlston: Yes, I agree with what you just said, it is interesting but further out, at least in our view. I'm not sure we see it at the 400G node, but perhaps at 800G or terabit-class speeds. What's interesting here is that the interface now, between an optical transceiver package and a back plane, is going to cause loss. It's going to cause optical signal noise ratio issues, and a lot of other undesired effects. So people are talking about co- packaging, or bringing the optics right next to a switch or to a processor chip and, and eliminating some of the losses that happen in high frequency applications. We're looking at that challenge as well. I think the whole industry is. However, I don't think on-board optics happens at this transition, probably the next one.

Jim Carroll: To lead the optical components market you must be an R&D centered business. How important are industry partnerships to you? Where are your strategic alliances moving forward?

Michael Hurlston: This question really gets to the heart of our transition from the Finisar of the past 30 years to our vision for the future, which is really much around alliances and partnerships. Historically, we’ve believed in a heavy level of vertical integration, where almost everything in a Finisar optical transceiver came from Finisar. That has been an unbelievably good strategy for getting us to this point. But because of the way the market is changing, because of this diversity of opportunity, and because of specialization, we now must think carefully about where to invest in R&D and where to pursue partnerships.  It is a challenge to change any company’s culture, especially when it has been successful with one way of thinking. We are now looking for opportunities to partner-- whether that be in manufacturing, whether that be in supplying components, whether that be buying lasers outside, or whether it be in selling lasers to some of our competitors, as some of our competitors have begun to do -- all of these are new to Finisar, and I think we're going to be well served by shifting gradually to a less vertically integrated strategy and moving toward one more willing to partner. I know that we've hired some of the best R&D engineers on the planet; we're not number one by accident. But I think in certain instances, the dependency on everything happening in-house because of vertical integration, where our components have to line up with our manufacturing strategy – this can be a challenge.

Jim Carroll:  US-China trade tensions have been a concern this year. What are your thoughts?

Michael Hurlston: China is a very important market for us and a reasonable portion of our business. However, we don't have as much exposure as some of our competitors. One aspect of the Chinese market that is worth talking more about is wireless infrastructure and the coming 5G upgrade cycle. China definitely seems to be taking a lead here. We've got to figure out how to properly partner both with the telecom operators in China as well as the infrastructure suppliers, especially Huawei, ZTE, and Fiberhome.

Jim Carroll: A lot of consolidation is happening among optical vendors. Is getting bigger the best way to compete?

Michael Hurlston: The topic of industry consolidation comes up again and again.  I come from the semiconductor world and for the past five years, mergers & acquisitions has been the name of the game.  It became the new normal. We’ve seen huge companies doing roll ups -- and my former company (Broadcom) being one of the best at it.

I think the situation in this sector is much different because there is a fissure between the transceiver suppliers, the assemblers of goods, and the component companies.  Generally speaking, I think it's much more difficult to consolidate the optics industry than the semiconductor industry. With that said, there was a second part to your question, which was, is bigger better? Of course! I do think that that's true and getting our market valuation up is certainly task number one for me.  I seek to do that through organic moves and making sure we're driving our stock price up. But inorganically, we will look at things that could give us some more bulk.

Sunday, March 18, 2018

Finisar develops Miniature Coherent Transmitter and Receiver Assembly

Finisar introduced the industry's smallest fully integrated coherent optics assembly, designed for coherent line cards or DCO (Digital Coherent Optics) transceivers.

Finisar's Integrated Tunable Transmitter and Receiver Assembly (ITTRA) will be marketed as a new product family for helping customers to accelerate their time to market and reduce program and development costs.  It provides the same functionality as a CFP2-ACO but is 70% smaller than the size of a CFP2 module. All key building blocks of an ACO interface (tunable laser, optical amplifier, modulators, drivers, coherent mixer, photodiode array, and TIAs) are incorporated in a single optical sub-assembly, which is combined with a miniature controller board that provides customers a standardized management interface.

Finisar said that because the ITTRA is a fully calibrated and tested assembly instead of a disaggregated set of components, it yields operational cost savings for the line card or module integrator because test times of the end product are greatly reduced.

"Customers that have previewed this product acknowledge the exceptional level of integration achieved in Finisar's ITTRA, and we have a tremendous amount of interest in this product due to its performance, compact footprint, and low power dissipation," said John DeMott, Senior Director of Marketing at Finisar. "A turn-key solution like the ITTRA, greatly reduces the development effort for the line card or module integrator, allowing them to rapidly respond to new market opportunities." The demonstration at OFC 2018 shows the 32Gbaud ITTRA transmitting and receiving data at 200 Gb/s using DP-16QAM modulation. The product will be sampling in the second quarter of 2018.

At OFC 2018, Finisar also demonstrated its WaveShaper A Series of Programmable Optical Processors with newly released WaveShaper App revision 1.3. This software supports arbitrary power splitting on up to 16 ports with ratios of up to 100 to 1. Finisar demonstrated a WaveShaper processor covering the extended C+L band with a total wavelength range larger than 100 nm. Arbitrary filtering of attenuation and phase is supported across the entire range.

Finisar debuts 400G QSFP-DD Active Optical Cable and Transceivers

Finisar introduced a 400G QSFP-DD LR8 and FR8 transceivers, a 400G QSFP-DD active optical cable, a 100G serial QSFP28 transceiver, and two 50G SFP56 transceivers.  The rollouts were featured in a series of demonstrations at OFC 2018.

The QSFP-DD (Quad Small Form Factor Pluggable Interface Double Density) module form factor provides an eight-lane electrical interface, compared to traditional single or four-lane interfaces, thereby increasing bandwidth, channel capacity and port density.

400G QSFP-DD LR8 and FR8 Transceivers
Finisar' 400G QSFP-DD LR8 transceiver uses 50G PAM4 technology. It offers a 10km reach over duplex single mode fiber (SMF). In addition to the 10km LR8 module, a 2km FR8 variant of this module will also be available from Finisar, primarily for intra-data center applications. Both the LR8 and FR8 modules leverage DML transmitter technology, providing a low power, low risk, cost-effective solution for 400G.

400G QSFP-DD Active Optical Cable
Finisar is introducing the industry's first 400G active optical cable (AOC) in the QSFP-DD form factor. It uses VCSEL technology to achieve the low power dissipation and low cost structure.

100G Serial QSFP28 FR Transceiver
Finisar is introducing a 100G serial FR transceiver in the popular QSFP28 form factor for inter-data center, transport and router applications with 2km reaches. While leveraging a standard 4x25G electrical interface, so that it plugs into standard QSFP28 slots, this module employs just one serial 100G PAM4 optical channel. Once deployed in sufficient volume, it is expected to replace existing 100G QSFP28 CWDM4 modules. Finisar also plans to introduce a 500m DR version of this module. Four of these FR or DR modules will be able to be used in a fan-out configuration with an IEEE standard 400G DR4 module, thus providing both 100G point-to-point and 100G-to-400G fan-out connectivity at 100G per lane. The module transmits data over 2km of SMF.

50G SFP56 SR and LR Transceivers
Finisar is also introducing the industry's first 50G SFP56 SR and LR transceivers, using serial PAM4 technology. Primary applications for these products include server-to-switch and switch-to-switch 50G Ethernet connections, and future 5G wireless applications.

During OFC, Finisar demonstrated the SFP56 SR module transmitting over 100 meters of OM4 multi-mode fiber (MMF), and the SFP56 LR module transmitting over 10km of SMF.

The modules use Finisar's in-house vertically integrated optics and ICs. They provide interoperability with previous generations of 25G SFP28 and 10G SFP+ optical transceivers. Both modules comply with the corresponding 50GBASE-R specifications as defined in the IEEE standards and offer 50G PAM4 electrical and optical interfaces.

"Today, we have established a number of industry first optical modules that will enable Finisar to maintain its leadership position for the next generation of products," said Rafik Ward, Senior Vice President, Global Marketing at Finisar. "Building upon 30 years of success, we are gearing up for a new era of optical interfaces that will be built on 50G and 100G PAM4 technology. This will enable us to deliver unprecedented bandwidth to customers in form factors that are backward compatible with industry established footprints.

Wednesday, January 17, 2018

Finisar's Jerry Rawls steps down, Michael Hurlston takes over as CEO

Michael Hurlston has been appointed as CEO and a director of Finisar following the retirement of Jerry Rawls as Chairman and CEO of Finisar. Rawls will continue to serve as a Director of the Company. Finisar's Lead Director Robert Stephens has been appointed Chairman of the Board of Directors.

"On behalf of the Board of Directors, I want to thank Jerry for his tireless and inspired leadership of Finisar over the past nearly 30 years," stated Robert Stephens. "Under Jerry's leadership, Finisar has grown from its founding in Quonset hut in Menlo Park, California to a world-leading optics company with cutting-edge products and approximately $1.4 billion in revenues in its most recently completed fiscal year. We are deeply grateful to Jerry for his innumerable contributions to Finisar's growth and success to-date and are confident that he has positioned the Company solidly for the great opportunities in our industry today."

Michael Hurlston most recently served as a Senior Vice President and General Manager of the Mobile Connectivity Products/Wireless Communications and Connectivity Division at Broadcom Limited. Previously, he held senior leadership positions in sales, marketing and general management at Broadcom. Prior to joining Broadcom in 2001, Mr. Hurlston held senior marketing and engineering positions at Oren Semiconductor, Inc., Avasem, Integrated Circuit Systems, Micro Power Systems, Exar and IC Works. Mr. Hurlston is also a Director of Ubiquiti Networks, Inc. and a member of the Board of Advisors of Vilynx Inc. Mr. Hurlston received a B.S.E.E., an M.S.E.E. and an M.B.A. from the University of California, Davis.

Wednesday, December 13, 2017

Apple to invest $390 million in Finisar for VCSELs

Apple will invest $390 million in Finisar to support the high-volume production of Finisar's vertical-cavity surface-emitting lasers (VCSELs), which are used power Apple’s TrueDepth camera on the iPhone X as well as the proximity-sensing capabilities of AirPods.  The iPhone X's TrueDepth camera enables Face ID, Animoji and Portrait mode selfie capabilities.

The $390 million investment comes from Apple's $1 billion Advanced Manufacturing Fund supporting innovation and job creation by American manufacturers.

Finisar plans to reopen its 700,000 square foot manufacturing plant in Sherman, Texas. Volume production should be underway in the second half of 2018. The companies estimate this will create more than 500 jobs at the facility. Finisar operates another plant in nearby Allen, Texas. With both plants in full operation, Finisar's payroll in northern Texas is expected to be $65 million.


Sunday, October 22, 2017

Finisar's Flextune simplifies Remote PHY deployments for MSOs

Finisar introduced a new hardware-configurable feature for wavelength-tunable optical transceivers that is designed to simplify the deployment of Remote PHY access networks constructed by Multiple System Operators (MSOs). The Finisar Flextune feature allows up to 96 wavelength-tunable optical transceivers in a Remote PHY network to self-configure their wavelengths to operate over the DWDM infrastructure without input from the host equipment nor intervention from technicians. The feature will be supported on Finisar's 10 Gb/s wavelength-tunable duplex and dual-band bidirectional (BiDi) transceivers.

Finisar described a simplified configuration process for MSOs: technicians insert the universal transceivers into any host port in the headend equipment and remote PHY nodes, and connect them to any of the optical multiplexer ports with fiber optic patch cables. Firmware contained in the transceivers determines the proper wavelengths to link the headend equipment to each Remote
PHY node.

"Wavelength-tunable optical transceivers with the Flextune enhancement significantly reduce operational expenditure for MSOs when deploying Remote PHY networks," stated Shawn M. Esser, Director of Product Management at Finisar. "Cable operators only need to stock one universal wavelength-tunable transceiver compared to stocking many different fixedwavelength
modules. Flextune capability reduces configuration time of the transceivers for a link from hours to minutes. In addition, it simplifies installations because technicians do not have to trace fibers from the optical multiplexer to the Remote PHY nodes, which could be a distance of 2km or longer."

Finisar's recently-launched, tunable dual-band BiDi SFP+ transceiver, which supports this new Flextune feature, fits a pair of wavelengths into each port of standard 100GHz DWDM multiplexers and de-multiplexers, enabling 80 wavelengths to be deployed over existing 40-wavelength DWDM networks, increasing the data capacity from 200 Gb/s to 400 Gb/s in each direction over a single fiber without replacing the entire infrastructure. Because it only has one optical connection for the pair of wavelengths, the BiDi transceiver also reduces the number of fiber optic patch cables by a factor of two, simplifying installation and saving space.

Tuesday, September 19, 2017

Finisar shows 100G QSFP28 eSWDM at 300m

Finisar has demonstrated the first 100G QSFP28 eSWDM4 transceiver with extended reach for multimode fiber (MMF), which could enable data centre operators to upgrade from 10G to 100G without installing additional fiber.

The new device, which is a new member of Finisar's suite of extended reach QSFP28 form factor modules, leverages Finisar's SWDM4 technology and enables 200, 300 and 400 meter links at 100G data rates over OM3, OM4, and OM5 duplex MMF, respectively. Finisar now claims the longest fiber reach among duplex MMF solutions in the industry for 100G QSFP28 Ethernet applications.

In a demo at this week's ECOC 2017 in Sweden, Finisar is showing the new QSFP28 eSWDM4 module transmitting live data over 300 meters of OM4 multimode fiber connected to a receiving QSFP28 eSWDM4 module.

At ECOC, Finisar is also showing  a 10G Tunable BiDi Transceiver for Wireless, CATV and Enterprise networks. The demo features multiple tunable Bidi SFP+ modules supporting 40 bidirectional point-to-point links on a
single fiber.

A third ECOC demonstration features a 100G QSFP28 ER4f transceiver supporting 40km 4WDM applications. This transceiver is the newest member of the Finisar suite of extended reach QSFP28 modules. The ER4f module enables 40 km links at 100G data rates over duplex single mode fiber (SMF) with FEC on the host, or 30 km links with duplex SMF without FEC.

Wednesday, September 6, 2017

Finisar's Jerry Rawls to step down as CEO in 2018

Jerry Rawls informed Finisar's board of directors that he intends to retire as Finisar's Chief Executive Officer by the end of calendar year 2018.

"Jerry's decision to retire as CEO of Finisar caps a remarkable business career and chapter in the company's history," said Robert Stephens, Finisar's lead director. "We are deeply grateful to Jerry for his innumerable contributions to Finisar's growth and success.  Jerry co-founded the company nearly 30 years ago in a Quonset hut in Menlo Park, California.  Under Jerry's leadership, Finisar went public in 1999 and has grown to be one of the world's top optics companies, with industry-leading revenues of more than $1.4 billion during its most recent fiscal year.  While his leadership will be missed, Jerry has placed Finisar on solid ground to continue to build on its success and market-leading position."

http://www.finisar.com

Tuesday, June 20, 2017

Finisar reports Q4 revenue of $357.53m, up 12.1% yr/yr, net income of $130.24m

Finisar, a major supplier of subsystems and components for fibre optic communications, announced financial results for its fourth quarter and full fiscal year 2017, ended April 30, 2017, as follows:

1.  Revenue for the fourth quarter of 2017 of $357.53 million, down 6.1% compared with $380.5 million in the third quarter of fiscal 2017 and up 12.1% from $318.79 million in the fourth quarter of 2016.

2.   Gross profit for the fourth quarter of $125.16 million, down 8.3% compared with $136.64 million in the third quarter of fiscal 2017 and up 38.4% from $90.44 million in the fourth quarter of 2016.

3.  R&D expenditure for the fourth quarter of $58.97 million, up 8.0% compared with $54.59 million in the third quarter of fiscal 2017 and up 17.5% from $50.17 million in the fourth quarter of 2016.

4.  SG&A expenditure for the fourth quarter of $24.64 million, down 6.4% compared with $26.33 million in the third quarter of fiscal 2017 and down 3.3% from $25.47 million in the fourth quarter of 2016.

5.  Total operating expenditure for the fourth quarter of $84.32 million, up 3.2% compared with $81.73 million in the third quarter of fiscal 2017 and up 10.5% from $76.31 million in the fourth quarter of 2016.

6.  On a GAAP basis, net income for the fourth quarter of $130.24 million, compared with net income of $46.39 million in the third quarter of fiscal 2017 and net income of $13.07 million in the fourth quarter of 2016.

On a non-GAAP basis, net income for the fourth quarter of $57.51 million, compared with net income of $67.20 million in the third quarter of fiscal 2017 and net income of $31.82 million in the fourth quarter of 2016.

7.  Cash and cash equivalents as of April 30, 2017 of $260.23 million, versus $240.59 million as at January 29, 2017 and $299.22 million as at May 1, 2016.

Additional results and notes

For the full year 2017, Finisar reported revenue of $1,449.3 million, versus $1,263.2 million a year earlier, with net income of $249.35 million, compared with net income of $35.19 million in fiscal year 2016.

Finisar noted that in the fourth quarter, sales of datacom products increased by $2.8 million (1.1%) compared to the third quarter, with sales of 100 Gbit/s QSFP28 transceivers for datacom applications up approximately 30% sequentially, but offset by lower demand for other datacom products, mainly 10 Gbit/s and below shortwave transceivers.

Sales of telecom products in the fourth quarter decreased by $20.2 million (18.2%) compared to the third quarter, primarily due to lower revenue from Chinese OEM customers and 3 months of annual telecom price erosion.

Outlook

For the first quarter of fiscal 2018, Finisar currently expects revenue in the range $330 to $350 million, representing a sequential decline of 4.9% at the midpoint.

Thursday, March 23, 2017

Finisar Shows 400, 200 and 100G Pluggables

Finisar, a major supplier of subsystems and components for fibre optic communications, announced multiple optics product and technology demonstrations at OFC, including new 400 Gbit/s CFP8 FR8 and LR8 transceiver, 200 Gbit/s QSFP56 FR4 and LR4 transceiver and a 100 Gbit/s QSFP28 eSR4 extended reach transceiver modules.

The company will also demonstrate its new Flexgrid single low-profile wavelength selective switch (WSS) for next generation ROADM subsystems during the OFC event.

400 Gbit/s CFP8 FR8 and LR8 transceivers

Finisar will hold multiple demonstrations of its MSA-compliant 400 Gbit/s CFP8 transceiver, enabled by 50 Gbit/s PAM4 technology. The CFP8 module family includes an FR8 version supporting 2 km reach and an LR8 version for 10 km reach, both operating over single mode fibre. The modules are designed for applications in router-to-router and router-to-transport client interfaces.

At OFC, optical cables will link a number of booths to create a network of systems and test equipment platforms to demonstrate error-free live traffic transmission at 400 Gbit/s using working Finisar CFP8 modules.

200 Gbit/s QSFP56 LR4 transceiver

Finisar's new 200 Gbit/s QSFP56 optical module is an evolution of the four lane QSFP+ form factor designed for hyperscale data centre and high performance computing (HPC) environments. The 200 Gbit/s QSFP56 family initially includes an FR4 version for 2 km and an LR4 version for 10 km reach over single mode fibre. The module utilises 4 x 50 Gbit/s PAM4 electrical and optical interfaces and is designed to work with next generation of switching silicon to enable 6.4 Tbit/s in a 1 RU configuration.

The demonstration at OFC will feature an LR4 module designed for 10 km reach as per the IEEE 200GBASE-LR4 standard.

100 Gbit/s QSFP28 eSR4 transceiver

Finisar's latest 100 Gbit/s QSFP28 extended SR4 (eSR4) module offers long reach over multimode fibre (MMF) and targets enterprises and large data centre applications. Finisar noted that IEEE 100GBASE-SR4 species 70 metres over OM3 fibre or 100 metres over OM4 fibre; the new QSFP28 eSR4 module enables 300 metres over OM3 fibre and 400 metres over OM4 fibre to address typical 10 and 40 Gbit/s applications.

The extended reach capability allows data centres and enterprises with installed multimode fibre to use existing fibre plant to upgrade to 100 Gbit/s. The product employs parallel optics and can interoperate in a fan-out configuration with four of Finisar's 25 Gbit/s SFP28 eSR transceivers. A demonstration will show two Finisar 100 Gbit/s QSFP28 eSR4 transceivers connected over 300 metres of OM3 fibre, with traffic generated and measured by an Anritsu MT1100A network master flex.

Flexgrid single low profile WSS

The new single low profile WSS, designed for single-slot ROADM line cards, expands Finisar's portfolio of WSS based on its Flexgrid and LCoS technology. The ITU Flexible Grid-compliant device enables dynamic deployment of bandwidth at 6.25 GHz spectral width and intra-channel attenuation control to enhance performance over an optical link.

The WSS is offered in configurations from 1 x 2 to 1 x 9 and supports next generation express and colourless/directionless add/drop architectures. The OFC demonstration will feature a 1 x 9 WSS configured to switch a mix of transceiver and ASE inputs to a common output port.

http://www.finisar.com

Wednesday, March 15, 2017

Finisar Introduces 100 GHz Balanced Detector

Finisar, a supplier of subsystems and components for fibre optic communications, has introduced a new product in its family of high-speed photodetectors, the 100 GHz balanced detector (BPDV4121), designed for next generation optical test and measurement equipment.

Finisar claims that the new 100 GHz product is the fastest detector available and enables coherent signal detection and characterisation at rates up to 160 Gbaud.

Designed for next-generation high bit-rate transmission systems, the new photodetector enables accurate measurement, characterisation and verification of performance in real-time. Finisar noted that the increasing baud rates inherent with coherent transmission demand high-frequency optical modulation analysers, sampling scopes and real-time scopes to perform the neessary verification tests.

Finisar's new BPDV4121 detector operates in the C-band and is delivered in a hermetic package equipped with a connector suitable for 100 GHz and-higher RF connections. Additional key features include high responsivity and low polarisation dependent loss (PDL) performance.

The new BPDV4121 product, which will be displayed at OFC 2017, is currently sampling, with general availability scheduled for later in March.

Finisar has also introduced its new WaveAnalyzer 100S compact optical spectrum analyser, designed to enable spectral measurements with advanced optical communication systems in R&D and manufacturing. Finisar's WaveAnalyzer 100S provides two measurements per second across the C-band for optical communications, with a measurement resolution of 1.8 GHz.

The new optical spectrum analyser utilises Finisar's established WaveAnalyzer GUI, which enables analysis functions such as OSNR measurement and WDM analysis, while a programming interface allows integration with automated test systems. The new WaveAnalyzer 100S is due to begin shipping in May 2017.

http://www.finisar.com

Tuesday, March 14, 2017

Finisar reports Q3 revenue of $380.59m, up 23.1% yr/yr

Finisar, a global provider of subsystems and components for fibre optic communications, announced financial results for its third quarter of fiscal year 2017, ended January 29, 2017, as follows.

1. Revenue for the third quarter of 2017 of $380.59 million, up 2.9% compared with $369.86 million in the second quarter of fiscal 2017 and up 23.1% from $309.21 million in the third quarter of 2016.

2. Gross profit for the third quarter of $136.64 million, up 2.2% compared with $133.68 million in the second quarter of fiscal 2017 and up 55.8% from $87.74 million in the third quarter of 2016.

3. R&D expenditure for the third quarter of $54.59 million, up 2.6% compared with $53.24 million in the second quarter of fiscal 2017 and up 9.6% from $49.84 million in the third quarter of 2016.

4. SG&A expenditure for the third quarter of $26.33 million, down 2.3% compared with $26.94 million in the second quarter of fiscal 2017 and down 1.6% from $26.77 million in the third quarter of 2016.

5. Total operating expenditure for t
he third quarter of $81.73 million, up 1.5% compared with $80.53 million in the second quarter of fiscal 2017 and up 5.7% from $77.28 million in the third quarter of 2016.

6. On a GAAP basis, net income for the third quarter of $46.39 million, compared with net income of $48.76 million in the second quarter of fiscal 2017 and net income of $12.08 million in the third quarter of 2016.

On a non-GAAP basis, net income for the third quarter of $67.20 million, compared with net income of $65.15 million in the second quarter of fiscal 2017 and net income of $26.60 million in the third quarter of 2016.

7. Cash and cash equivalents as of January 31, 2017 of $240.59 million, compared with $282.96 million as at October 30, 2016 and $280.41 million as at July 31, 2016.

Additional results and notes

Finisar noted that in the third quarter, sales of datacom products increased by $7.3 million (2.8%) compared to the second quarter, due primarily to growth in demand for 100 Gbit/s transceivers, with sales of 100 Gbit/s transceivers for datacom applications up approximately 9% compared to the second quarter, and over 110% compared to the third quarter of the prior year.
Sales of telecom products in the third quarter increased by $3.5 million (3.2%) compared to the second quarter, based primarily on higher sales of wavelength selective switch and ROADM line card products, driven by demand from Chinese OEM customers.

Outlook

For the fourth quarter of fiscal 2017, Finisar currently expects revenue in the range $360 to $380 million, representing a sequential decline of 2.8% at the midpoint. http://www.finisar.com