Wednesday, July 27, 2011

ElectroniCast's new Fiber Optic Industry Monthly Review (FOIMR)

Complimentary offer – ElectroniCast, is offering anyone interested in the fiber optic industry an opportunity to preview a full issue ($100 value) of ElectroniCast’s newest periodical, “Fiber Optic Industry Monthly Review”

For more information e-mail me at: stephen_montgomery@electronicastconsultants.com

The Fiber Optic Industry Monthly Review (FOIMR) is released the last Monday of every month.  The annual subscription fee is $1,200.  ElectroniCast clients of current fiber optic based market forecast studies, may qualify for a full-year subscription at no charge, please contact ElectroniCast or your sales agent to see if you qualify.

Each issue features a comprehensive overview of at least two (2) fiber optic oriented market forecast and technology-based market analysis (about 5-pages each).

There is also a 10 to 15-page section dedicated to the latest news on the fiber optic industry, which discusses topics ranging from financial and venture capital (V.C.) news to new products and fiber optic deployments and installations. Each Fiber Optic Industry Monthly Review newsletter also provides summaries of recent ElectroniCast market and technology analysis reports.

Topics discussed in the July 2011 issue of Fiber Optic Industry Monthly Review (FOIMR) include:
• Fiber optic communication collimator market forecast
• Planar MicroLens Array (PML)
• Integrated and hybrid components
• Harsh environment (HE) fiber optic market trends for industrial and commercial applications
• The undersea fiber-optic cable deployed between Venezuela and Cuba in early 2011
• Optical sensor technology in high-speed rail
• Embedded processors with China Telecom
• Fiber Optic Tunnel Detection System
• Acquisition of Ignis by Finisar Corporation
• Results of Fiberzone Networks Inc. venture capital raising round

Monday, July 25, 2011

Free Space Optics (FSO) communication links

In a presentation by Mohsen Kavehrad (FIEEE) of the Department of Electrical Engineering, Center for Information and Communications Technology Research (CICTR) at Pennsylvania State University (University Park, Pennsylvania, USA) discussed Free Space Optics (FSO) technology advances on July 12, 2011 in Toronto, Ontario (Canada).

The following summary was provided regarding Free Space Optics (FSO) communication links in clouds and turbulence:

  • Cloud Monte-Carlo Ray Tracing (MCRT) speeded up by Markov chain scattering phase model is a great numerical evaluation tool.
  • Turbulence modeling via different phase screens used and compared based on accuracy and computational complexity.
  • Effects of clouds and aerosols can be practically modeled only with the LoS (line-of-sight) component of the scattered beam due to link and receiver geometry, resulting in a time-varying attenuation coefficient.
  • Turbulence-induced amplitude variations can be modeled by Lognormal fading for small apertures.
  • For larger apertures, aperture-averaging can significantly reduce intensity fluctuations of received light.
  • Under increased turbulence, MIMO (Multiple-Input Multiple-Output) systems are more robust to PSF distortions and intensity fading.
  • With adequately spaced smaller apertures, paths correlation affects MIMO gain minimally, given adaptive optics.


India: National Optical Fiber Network (NOFN)

Shri Kapil Sibal, Minister of Communication and Information Technology in India said the Telecom Commission has proposed to create the National Optical Fiber Network (NOFN) that would which will extend the country's existing fiber optic network.

According to Sibal, the fist part of the project is estimated to cost US$4.5 billion and would be funded by the Universal Service Obligation Fund (USOF). He added that private sector is expected to make similar investment to complement the infrastructure and to provide services to users.

"The proposed NOFN will enable effective and faster implementation of various mission mode e-governance projects amounting to approx 500 billion Indian rupee (US$11.25 billion) initiated by Department of Information Technology as well as delivery of a whole range of electronic services in the above areas by the private sector to citizen in rural areas," stated Shri Kapil Sibal.

Fiber–Optic Long-Line Position Sensor

Sandia National Laboratories is a multi-program laboratory managed and operated by Sandia Corporation, a wholly owned subsidiary of Lockheed Martin Corporation, for the U.S. Department of Energy’s National Nuclear Security Administration.


Technology Summary (SAND # 2011-4635P)      Sandia has developed a side-emitting fiber optic position sensor and method of determining an unknown position of an object by using the sensor. Non-electrical position sensors like the one developed by Sandia are desirable for use in hazardous environments, e.g., for measuring the liquid level in gasoline or jet fuel tanks. This sensor is an attractive option because it does not introduce electrical energy, is insensitive to electromagnetic interference, has very few moving parts, and could provide continuous measurements.

Large-scale rotary drilling for oil and gas, minerals, and water wells have a need for measuring the depth of drill bits and pipe segments. Measuring the length of a cable played out is often inaccurate because the cable stretches under heavy loads. There is a need for a long-range position sensor that is non-contact, simple, cheap, reliable, compact, non-electrical, and robust. These and other features have been achieved in the present Sandia invention.

Technology Readiness Level    Sandia estimates this technology at approximately TRL 5. Key elements of the technology have been demonstrated in relevant environments.

ElectroniCast Note: Technology Readiness Level (TRL) is a measure used to assess the maturity of evolving technologies (materials, components, devices, etc.) prior to incorporating that technology into a system or subsystem. Generally speaking, when a new technology is first invented or conceptualized, it is not suitable for immediate application. Instead, new technologies are usually subjected to experimentation, refinement, and increasingly realistic testing. Once the technology is sufficiently proven, it can be incorporated into a system/subsystem. (TRL 5 means that the basic technological components are integrated with reasonably realistic supporting elements so that the technology can be tested in a simulated environment).

Benefits:          

  • Sensor does not introduce electrical energy and is insensitive to electro-magnetic interference
  • Does not require the use of fluorescent dopants
  • Can operate over a wide range of wavelengths at a reduced cost
  • Has very few moving parts
  • Provides continuous Measurement

Potential Market Applications:

  • Oil and Gas
  • Minerals
  • Water Wells
  • Fuel Tank measurement
  • Hazardous Environments
Intellectual Property: US Patent  #7,329,857; SD# 10001

Source Website: HTTPS://IP.SANDIA.GOV

Wednesday, July 20, 2011

Q2 Financial Report - Infinera Corporation

Sunnyvale, CA, July 19, 2011 - Infinera Corporation (NASDAQ: INFN), a leading provider of digital optical communications systems, today released financial results for the second quarter ended June 25, 2011.

    * GAAP revenues for the second quarter of 2011 were $96.0 million compared to $92.9 million in the first quarter of 2011 and $111.4 million in the second quarter of 2010.
    * GAAP gross margin for the quarter was 39% compared to 46% in the first quarter of 2011 and 42% in the second quarter of 2010.  GAAP net loss for the quarter was $24.2 million, or $(0.23) per share, compared to net loss of $16.4 million, or $(0.16) per share, in the first quarter of 2011 and net loss of $9.6 million, or $(0.10) per share, in the second quarter of 2010.
    * Non-GAAP gross margin for the second quarter of 2011 was 41% compared to 48% in the first quarter of 2011 and 44% in the second quarter of 2010, excluding restructuring and other related costs and non-cash stock-based compensation expenses.  Non-GAAP net loss for the second quarter of 2011 was $11.7 million, or $(0.11) per share, compared to net loss of $4.0 million, or $(0.04) per share, in the first quarter of 2011 and net income of $3.0 million, or $0.03 per diluted share, in the second quarter of 2010.

Management Commentary

"We are encouraged by our second quarter performance, including an improvement in bookings momentum," said Tom Fallon, president and chief executive officer. "We saw a continuation of healthy tributary adapter module purchases by a broad base of customers looking to meet their current bandwidth growth needs. The MSO space-which we placed a strategic focus on several years ago-was especially strong with two customers from that category in our top 5 customer count.  In addition, we saw growth in new optical capacity deployments by our customers, establishing a base for future TAM purchases.

"On the new product front, we made excellent progress in the development of our next-generation 500Gbs/s PIC solution which will support 100G transmissions and on our 40G product with FlexCoherent technology.  During this period of significant product development investment and transition to new products, we remain focused on delivering on our PIC-based digital optical strategy and product roadmap in order to generate the revenue growth necessary to achieve our long-term business model objectives."

About Infinera

Infinera provides Digital Optical Networking systems to telecommunications carriers worldwide.  Infinera's systems are unique in their use of a breakthrough semiconductor technology: the photonic integrated circuit (PIC). Infinera's systems and PIC technology are designed to provide customers with simpler and more flexible engineering and operations, faster time-to-service, and the ability to rapidly deliver differentiated services without reengineering their optical infrastructure.

Q2 2011 Financial Report - Amphenol Corporation

Wallingford, Connecticut. July 20, 2011. Amphenol Corporation (NYSE-APH) reported today second quarter 2011 diluted earnings per share of $.85 compared to $.74 per share for the comparable 2010 period. Such per share amount for the 2011 quarter includes an $18 million ($11 million after tax), or $.06 per share gain related to the adjustment of a contingent purchase price obligation for a 2010 acquisition. Such per share amount for the 2010 quarter included a $10 million, or $.06 per share, net tax benefit relating to a reduction in international tax expense due primarily to the favorable settlement of certain tax positions and the completion of prior year audits. Excluding these effects, diluted earnings per share were a record $.79 for the quarter ended June 30, 2011 compared to $.68 for the 2010 period. Sales for the second quarter 2011 were a record $1,018 million compared to $885 million for the 2010 period. Currency translation had the effect of increasing sales by approximately $29 million in the second quarter 2011 compared to the 2010 period.

For the six months ended June 30, 2011, diluted earnings per share were $1.57 compared to $1.30 for the 2010 period. Sales for the six months ended June 30, 2011 were $1,958 million compared to $1,656 million for the 2010 period. Currency translation had the effect of increasing sales by approximately $35 million for the six month 2011 period compared to the 2010 period.

Amphenol President and Chief Executive Officer R. Adam Norwitt stated “The second quarter results established a new record of performance for Amphenol with sales of $1,018 million and EPS of $.79 (excluding one-time items). We are especially excited that we achieved a significant new milestone for the Company with quarterly sales in excess of $1 billion. Sales growth of 15% over last year was driven by strength across most of our served markets, led by Mobile Devices, Industrial and Automotive. We continue to perform well in a dynamic electronics market due to our leading technology, broad and increasing positions with our customers across all of our diverse markets, worldwide presence and lean cost structure. In addition, despite what continues to be an extremely challenging cost environment, our entrepreneurial management team executed well in the quarter, achieving industry leading operating margins of 19.4%, net income margins of 13.4% (both excluding one-time items) and operating cash flow of $105 million.”

“Our ongoing strategy of market and geographic diversification combined with a steadfast commitment to developing enabling technologies for our customers in all markets, both through organic product development and through our acquisition program, continues to expand the Company’s opportunities for growth. In addition, the Company continues to deploy its financial strength in a variety of ways to increase shareholder value including, in this quarter, the purchase of 3 million shares of the Company’s stock pursuant to our new stock repurchase plan announced in January.”

“Based on constant currency exchange rates, we expect third quarter 2011 revenues in the range of $1 billion to $1.015 billion and EPS in the range of $.77 to $.79. For the full year 2011, we expect to achieve revenues and EPS in the range of $3.975 billion to $4.005 billion and $3.13 to $3.17 as reported ($3.07 to $3.11 excluding one-time items), respectively, an increase of 12% to 13% and 14% to 15% over 2010 revenues and EPS (excluding one-time items), respectively. We continue to be extremely excited about the future. The accelerating proliferation of new electronics in all of our end markets presents a unique expansion opportunity for Amphenol. Our ongoing actions to enhance our competitive advantages and build sustained financial strength have created a solid base for future performance. I am confident in the ability of our outstanding management team to dynamically adjust to the constantly changing market environment, to continue to generate strong profitability and to further capitalize on opportunities to expand our market position.”


Fiber Optic Sensors: Call for Papers (Announcenment)

Fiber Optic Sensors: Call for Papers from Hindawi Publishing Corporation

The special issue scope covers all aspects of the advanced and emerging technologies in the field of fiber-optic sensing devices and systems, theories and techniques for research, and their applications in manufacturing and materials, oil and gas, structural engineering and plant monitoring, aerospace, security and defense, life sciences, medicine, and biotechnology, among others. Potential topics include, but are not limited to:

    * Novel fiber and fiber sensor structures
    * Fiber sensors in nonsilica fibers
    * Active fiber sensor and fiber laser sensors
    * Micromachined, microstructured fiber, nanomaterial, and nanostructure-based sensors
    * Point sensors, for example, Bragg gratings, interferometers, and polarimetric sensors
    * Multiplexed sensors and sensor networking
    * Distributed sensors based on Rayleigh, Raman, and Brillouin techniques
    * Fiber-optic sensors signal processing methods, systems, and devices
    * Sensors fabrication and packaging techniques
    * Industrial, biomedical, scientific, security, and defense applications
    * Smart structures and materials, structural health monitoring
    * System installations and field demonstrations

Before submission authors should carefully read over the journal's Author Guidelines, which are located at http://www.hindawi.com/journals/js/guidelines/ . Prospective authors should submit an electronic copy of their complete manuscript through the journal Manuscript Tracking System at http://mts.hindawi.com/ according to the following timetable:

    Manuscript Due      Friday, 2 December 2011
    First Round of Reviews            Friday, 2 March 2012
    Publication Date     Friday, 1 June 2012

Journal of Sensors is a peer-reviewed, open access journal that publishes original research and review articles related to all aspects of sensors, from the theory and design of sensing devices to the applications of sensors.

Journal of Sensors was founded in 2007 by Professor Francisco J. Arregui who served as the Editor-in-Chief of the journal between 2007 and 2011.


Tuesday, July 19, 2011

Fiber Optic Fusion Splicer Global Market Forecast & Analysis (July 2011)

Fiber Optic Fusion Splicer

Global Market Forecast & Analysis (July 2011)



Published:                  July 20, 2011
Text Pages:               304
Also Includes:            Excel worksheets and PowerPoint Slides
Journal:                       Fiber Optic Industry Monthly Review (12-issues)
Fee:                            From $4,800
Contact:                     stephen_montgomery@electronicastconsultants.com


This ElectroniCast report provides the review of 2010 and a 5-year (2011-2015) forecast of the consumption value of fiber optic fusion splicers, segmented into the following geographic regions:
                    
·        North America
·        Europe
·        Asia Pacific Region (APAC)
·        Rest of the World

A Fusion Splicer is specialized instrument used to join optical fibers to each other. This is the report of the ElectroniCast study of fusion splice machines used for selected fiber optic-based communication applications and for the purpose of the manufacturing of components to be used (consumed) in the selected communication applications. 

APAC to Take Market Share Lead    Last year in 2010, North America led in the consumption value of fiber optic fusion splicers; however, helped along substantially by consumption in China, the Asia Pacific region (APAC) is forecast increase in relative market share during the forecast period, driven by countries throughout the region that are bringing fiber closer to the drop-areas (FTTx), as well as the use of fusion splicers in the manufacturing of fiber optic components/devices.

Rest of World          The Rest of World (ROW) regional segment covers the Middle East, Africa (MEA) and Central/South America.  The Central/South America region, especially, is showing aggressive growth rates in terms of fiber optic fusion splicer purchases.  ElectroniCast Consultants has recently opened an office in South America to assist our clients that have an interest in expanding their sales revenue in the region.

Note: Market forecast data in this study report refers to consumption (use) for a particular calendar year; therefore, this data is not cumulative data.
Market Forecast by End-Use Application        The ElectroniCast global fiber optic fusion splicer market is segmented into the following major application categories:

-           Telecommunications
-           Private Enterprise Networks
-           Cable TV
-           Military/Aerospace (Commercial and MIL-SPEC)
-           Specialty (intra-enclosure, test and measurement, rental units, harsh environment industrial, laboratory, other applications, and non-specific)
-                      Manufacturing/Production of fiber optic components/devices    

Telecommunication Maintains Leadership     According to ElectroniCast Consultants, the Telecommunications application currently represents 55% of the worldwide consumption of fiber optic fusion splicers. The use of fusion splice machine in the manufacturing of fiber optic components/devices is forecast to maintain the 2nd place market share position. Consumption of fusion splice equipment in cable TV, military/aerospace and various specialty/other applications are also quantified in this report of the study. Electrical and communication wiring contractor’s annual use of fusions splicers to deploy optical fiber Private Enterprise Networks is forecast to increase (2x) from 2010 to 2015.
   
Within each of these applications, the ElectroniCast market forecast is segmented into each fusion splice (machine) type, as shown in Table 1.

Table 1
Fiber Optic Fusion Splice Product Categories
(Source: ElectroniCast)


                                 FIBER OPTIC FUSION SPLICER PRODUCTS

                                              Fusion Splicers
                                                         Single Fiber
                                                                      Bench top
                                                                                 Core-to-Core
                                                                                 Fixed Alignment
                                                                      Micro / Handheld
                                                                                 Core-to-Core
                                                                                 Fixed Alignment 
                                                         Multi-fiber (Ribbon)
                                                                      Bench top
                                                                      Micro / Handheld
                                             



In 2011, single fiber fusion splicers represent 57% of worldwide consumption value.The global consumption value of mass fiber (multiple fiber or ribbon) splicers is forecast to increase at a double-digit average growth rate from 2010-2015.

The Telecommunications application currently dominates the worldwide consumption of fiber optic fusion splicers with 55% market share. Fusion splicers use to manufacture fiber optic devices is holding on to the 2nd place position.



Research Paper: Nanocrystalline ZnO coated fiber optic sensor for ammonia gas detection

A cladding modified fiber optic sensor coated with nanocrystalline ZnO is proposed for ammonia gas detection. As-prepared and annealed zinc oxide (500 and 1200 °C) samples are used as the gas sensing media. The spectral characteristics of the fiber optic gas sensor are studied for various concentrations of ammonia (0–500 ppm). The sensor exhibits linear variation in the spectral peak intensity with the ammonia concentration. The characteristics of the sensor when exposed to ethanol and methanol gases are also studied for gas selectivity. The time response characteristics of the sensor are reported.

Source: Optics & Laser Technology; Volume 43, Issue 8, November 2011, Pages 1398-1404 doi:10.1016/j.optlastec.2011.04.008 – B. Renganathana, D. Sastikumara, , , G. Gobib, N. Rajeswari Yogamalara and A. Chandra Bosea; (a) Department of Physics, National Institute of Technology, Tiruchirappalli 620015, India; (b) Department of Physics, Government Arts College, Salem 636007, India; Received 3 November 2010;  revised 31 March 2011;  accepted 8 April 2011.  Available online 4 May 2011.

Monday, July 18, 2011

Fiber Optic Sensors - LEONI Fiber Optics Inc.

LEONI Fiber Optics Inc introduces their line of standard and custom medical probes for the laser energy transmission of Argon, Nd:YAG, Excimer, KTP, and Diode lasers.  The company offers complete solutions from design, to prototype, to ship-to-stock.  All medical probes are assembled in a controlled environment and available with double sterile packaging, labeling and ETO sterilization performed on premises under ISO 13485 and FDA QSR.
Bare Fiber for Urology General Surgery:
  • All silica optical fiber, low OH, N.A. 0.22
  • Core diameters of 200µ, 365µ, 550µ, 1000µ
  • Silicone TM / Tefzel TM buffer
  • High Power SMA 905 connector on proximal end.  Distal end cleaved
  • Reduced external diameter
  • Heat resistant up to 142°C / 287.6°F
  • ETO sterilized
Bare Fiber for Arthroscopy, Dermatology, Gynecology, Lithotripsy, Endovascular, Gastroenterology and General Surgery:
  • All silica optical fiber, low OH or high OH N.A. 0.22
  • Hard clad silica optical fiber, low OH N.A. 0.37, high OH all silica
  • Core diameters from 200µ to 1000µ
  • SMA 905 connector on proximal end.  Distal end cleaved
  • ETO sterilized
Ophthalmological Probes:
  • Endoprobes – All silica optical fiber, low OH, N.A. 0.22, 200µ core diameter
  • Endoillumination probe – All silica optical fiber, low OH, N.A. 0.22 200µ core diameter
  • Retinopexy probe – All silica optical fiber, low OH, N.A. 0.22, 600µ core diameter
  • Cycloprobe – All silica optical fiber, low OH, N.A. 0.22, 600µcore fiber, ball tip 900µ
  • Silicone sleeve 2.00mm diameter
  • SMA 905 connector on proximal tip
  • Endoprobe distal end straight or curved cleaved end
  • Cycloprobe distal end ball tip
  • Retinopexy probe distal end side-firing
  • Endoillumination probe distal end illuminated tip
  • ETO sterilized
Fiber and Probes for Dentistry:
  • All silica optical fiber, low OH N.A. 0.22
  • All silica, germanium doped optical fiber, low OH, N.A. 0.38
  • Core diameters of 200µ, 320µ, 400µ and 600µ
  • Polyimide buffer with thickness of only 15µ
  • C-flex or silicone outer jacket with 2.00mm O.D., fiber 10cm free standing
  • SMA 905 connector on proximal end
  • ETO sterilized
Side Fire Fiber:
  • All silica optical fiber low OH or high OH, N.A. 0.22
  • Core diameter 600µ
  • Capillary diameter 1.75mm or 2.05mm
  • High power SMA connector on proximal end
  • Fiber adjusting aid and direction indication marking for fiber positioning
  • ETO sterilized
The Fiber Optics Business Unit of the LEONI Group is a prime supplier of optical fibers for special industrial applications, sensor technology and optical analysis, scientific purposes, the telecommunication sector and laser medicine.

LEONI Fiber Optics is one of a limited number of companies who offers a unique product portfolio from preforms and drawn fibers, to standard and custom optical fiber based assemblies, to fiber optic cables and entire optical fiber systems fitted with in-house design components.  We deliver fiber optic products not only for general applications but also where systematic problem solutions are needed.
Employing more than 450 and operating from multiple sites world-wide, including several manufacturing sites in Germany, the USA, China and Canada, with our primary manufacturing site for the NAFTA Region located in Williamsburg, VA, stands ready to respond with the full spectrum of LEONI Fiber Optics products and capabilities to solve even the most difficult photonic problems.

Friday, July 15, 2011

Fiber Optic Cable Installation Planned - Angola


Luanda, formerly named São Paulo da Assunção de Loanda, is the capital and largest city of Angola (Africa region). Located on Angola's coast with the Atlantic Ocean, Luanda is both Angola's chief seaport and administrative center and has a population of at least 5 million.  The city is currently undergoing a major reconstruction, with many large developments taking place that will alter the cityscape significantly.

Luanda – A line of more than 10,000 kilometres of optical fiber will connect the country in the near future so as to enable the communication through Internet broadband. 

The fiber optic cable installation plan was announced on July 15 (2011), in Luanda, by the Deputy Minister for Information Technology, Pedro Sebastião Teta.  He said that the construction of this line will cover Angola and it will contribute to the resolution of current difficulties in the communications field.

The official said so to Angop on the sidelines of the presentation of the Master Plan of the Angolan Media Library Network (REMA) and he ensured that the project will solve the problem of Internet communications.

Angola, which is forecast to be one of the world's fastest growing economies, has been undergoing a massive national reconstruction. The central government allocates funds to all regions of the country, but the capital region receives the bulk of these funds. Since the end of the Angolan Civil War (1975–2002), stability has been widespread in the country, and major reconstruction has been ongoing since 2002.

Major reconstruction in Luanda has been in nearly all aspects of society. Major road rehabilitation, including road widening, application of asphalt, and re-routing efforts are all currently being done throughout Luanda. The Brazilian construction firm Odebrecht, are currently constructing two six-lane highways.

Major social housing is also being constructed to house those who reside in slums, which dominate the landscape of Luanda. A large Chinese firm has been given a contract to construct the majority of replacement housing in Luanda. The Angolan minister of health recently stated poverty in Angola would be overcome by an increase in jobs and the housing of every citizen.

Thursday, July 14, 2011

Fiberzone raises $11,624,816 in Venture Capital Round

Fiberzone Networks Inc, based in Bethesda, MD, has raised $11,624,816 of a $18,630,000 private offering. Fiberzone Networks Inc reported this private offering July 6, 2011 in an SEC Filing with the U.S. Securities and Exchange Commission (Form D).

Automated Fiber Management (AFM)             FiberZone AFM brings next-generation flexibility, reliability, and automation to the fiber infrastructure. By automating end-to-end provisioning, maintenance, inventory documentation, and troubleshooting, AFM significantly reduces operating costs, minimizes network faults and human error, and improves overall quality of service. In short, AFM transforms the physical fiber infrastructure into a managed layer.

FiberZone AFM was developed from the ground up for fiber management and is optimized for connectivity applications. At the heart of the company's solutions lies its patented Latched Optical Coupling (LOC) fiber-switching technology. Leveraging LOC high precision coupling, active-passive structure, and latching mechanism, AFM delivers superior optical performance, scalability, high reliability and repeatability, and connection reliability. Their LOC technology provides these requirements and offers unmatched price-to-performance without utilizing any exotic materials. All components have been deployed for years in high-volume applications and are easily manufactured.

The company is a privately held Delaware C-Corporation with offices in the United States and Israel, backed by international, communications-industry focused venture capital firms:

  • Novak Biddle Venture Partners
  • Portview Communications Partners
  • StageOne Ventures


Wednesday, July 13, 2011

The United States' DHS Video Quality in Public Safety (VQiPS) Initiative

The United States’ National Public Safety Telecommunications Council (NPSTC) recently announced the creation of a practitioner advisory group, the Video Technical Advisory Group (VTAG), to provide input to the Department of Homeland Security (DHS) Video Quality in Public Safety (VQiPS) Initiative on choosing, using, and improving the ways video technologies serve the public safety community.

DHS’s Science and Technology Directorate (DHS S&T), Office for Interoperability and Compatibility (OIC), initiated the video quality project in 2009. The public safety community uses video applications in transportation, crime solving, and public works efforts. With emergency responders increasingly relying on closed circuit TV technology and systems, they have needed to increase their attention to video quality issues so that they can use and share images across disparate video systems.

The first VQiPS conference assembled a working group which created a Users Guide and developed common definitions, a user requirements framework, and an investigation into applicable standards. To support the technical needs of assuring video quality and interoperability, DHS S&T has partnered with the Public Safety Communications Research (PSCR) program supported by the National Institute of Science and Technology (NIST).

NPSTC’s role in supporting the VTAG is to provide advice and input to the DHS VQiPS Working Group. The VTAG comprises senior-level practitioners from technology and public safety who can provide the benefit of their insight and experience through the review of various work products and processes developed by the VQiPS Working Group. The VTAG will also champion the cause of the effective use of video by leveraging the communications networks in their respective disciplines and organizations.

The members of the VTAG are invited volunteers but anyone who is interested in video quality in public safety is welcome to fill out a Volunteer Form and participate. Please specify that you would like to participate in the VTAG. Quarterly conference calls are expected with a potential for periodic calls to provide input on special projects. For more information, visit the VTAG web page.  Source web-site: http://www.npstc.org/

Tuesday, July 12, 2011

Conference Announcement: China International Optoelectronic Exposition (CIOE 2011)


The 13th  China International Optoelectronic Exposition (CIOE) in 2011 will be on September 6 to 9, held at Shenzhen Convention & Exhibition Center.
Last year, there were attendees from the United States, Germany, Japan, France, Italy, Russia, Switzerland, South Korea and Hong Kong, Macao, Taiwan and others (a total of 52 countries were represented).

Products Interests: Optical communication and laser infrared optical communication system equipment exhibition, optical components (active device, passive components), optical communication equipment, network engineering auxiliary equipment and materials, digital video optical transceiver lasers and laser application, laser processing equipment/auxiliary equipment and accessories, photoelectric infrared sensor, light/infrared thermal imaging device, and infrared night vision, infrared measuring temperature, photoelectric attached and photoelectric equipment precision optical exhibition optical materials, optical element, optical instrument, optical processing testing equipment, optical coating, machine vision LED exhibition LED components and materials, the LED encapsulation/module, LED semiconductor lighting and application, LED manufacturing/testing equipment global electronic product sourcing fair consumer electronics

E-mail: cioe@cioe.cn
Tel: 13824323204 / 0755-86290852
Fax: 0755-86290951

Monday, July 11, 2011

Optical Sensor Technology in High-Speed Rail


The Hong Kong Polytechnic University (PolyU) is collaborating with Southwest Jiaotong University and Dalian Jiaotung University to study the use of its proprietary Advanced Fiber Bragg Grating Sensor (FBG) Systems for monitoring the structural health and safety of the nation’s fast-expanding High-Speed Rail.

PolyU President Professor Timothy W. Tong and Vice President (Research Development) Professor Alex Wai have been recently invited to lead a delegation to join a test ride along the Beijing-Shanghai High-Speed Rail before its official opening. The delegation members included several Council Members, key researchers and student representatives. They were all impressed by the expedient services of the High-Speed Rail.

PolyU researchers and their mainland partners have already installed the “Advanced Fibre Bragg Grating Railway Monitoring System” in several parts of the high-speed rail across the country. The hundreds of optical sensors will provide information on vibration, acceleration and temperature change for engineering staff, helping them to monitor the condition of tracks and railcars as well as structural health of the rail foundation.

Professor Alex Wai, who is also Chair Professor of Optical Communications, said optical fibre technology has radically changed the way people communicate and its application has extended to a wide range of fields including sensing systems, life science, measuring and structural engineering. The unique characteristics of optical fiber sensing technology offer many advantages that make them ideal for use in railway systems.

The University has already established a strong inter-departmental research team to study the use of optical fibre technology in different settings. Its key members include Professor Ho Siu-lau, Professor Tam Hwa-yau and Dr Michael Liu of the Department of Electrical Engineering; Professor Ni Yiqing and Professor Yan Jianhua of the Department of Civil and Structural Engineering; Professor Zhou Limin and Professor Cheng Li of the Department of Mechanical Engineering; and Dr Wang Dan of the Department of Computing.

In regard to monitoring track and trains, the team under Professor Ho Siu-lau and Professor Tam Hwa-yaw has already completed the installation of the “Advanced Fibre Bragg Grating Railway Monitoring System” in several important parts of the high-speed rail. The system now provides real-time data for analysis by engineering experts of PolyU. It can also keep track of train speed, axle balance and vibration data for record and further analysis. The system not only benefits the high-speed rail in operation, but also contributes to further research in this important area.

On the other hand, Professor Ni Yiqing, Co-ordinator for the University-wide Interdisciplinary Research on Railway-related Projects, has been working closely with Dalian Jiaotung University to install PolyU’s optical sensors on the new generation of high-speed inspection trains for monitoring purpose. The optical sensors for wind pressure measurement developed by the team have been successfully installed and used for this important pilot run.

At the same time, Professor Ni and Professor Yan Jianhua are collaborating with Southwest Jiaotung University to monitoring the settlement of rail foundation with the use of another kind of optical sensors. The study is important for understanding the safety of foundation and related changes. The team has also kicked off a project together with China CNR Corporation, Southwest Jiaotung University and Dalian Jiaotung University on the use of smart damping technology for enhancing the stability of high-speed trains.

PolyU will host the First International Workshop on High-Speed and Intercity Railways from 20 to 22 July (2011) in Shenzhen and Hong Kong. The workshop is co-organised with Southwest Jiaotung University, Beijing Jiaotung University, Dalian Jiaotung University, China Engineering Consultants, Inc. (Taiwan), Zhejiang University and Tsinghua University.

Over the years, the FBG technology developed by PolyU researchers has won international acclaim. In 2004, the FBG railway monitoring systems developed by Professor Tam Hwa-yaw won a Gold Award in the 32nd International Exhibition of Inventions held in Geneva. In the same year, the project of sensors and its application in the railway monitoring systems jointly developed by Professor Ho Siu-lau and Professor Tam Hwa-yaw also won a Bronze Award in the 5th China International Invention Expo of Shanghai.

PolyU has a Smart Railway Research Laboratory on its campus. Under the headship of Professor HO Siu-lau, the lab focuses on the study and improvement of the railway operation and safety. PolyU researchers have also made concerted efforts to improve such technology and explore their use in different real-life settings.

Meanwhile, the research team at the Department of Mechanical Engineering will consolidate their experience and expertise in the area of structural health monitoring for use in the High-Speed Rail. Using ultrasonic wave technology, the team has already developed an instantaneous diagnosis system which can detect cracks arising from metallic fatigue and corrosion of key parts in the track and rail. This new technology can be also combined with the use of laser actuating/sensing technology for monitoring the structural health of bridges, tunnels, tracks, train bodies, bogie frames and wheel axles.

About FBG Sensors

The FBG sensors developed by PolyU are small periodic structures created inside the 10-µm core diameter of standard 125-µm thick optical fibers. The measurement information is encoded in the wavelength of the reflected light from the FBG’s.  Wavelength is an absolute parameter and any changes in the received signal strength do not affect the sensing information, ensuring highly reliable sensing information.  Another unique feature of the FBG sensing systems is that hundreds of FBG sensors along a single optical fiber as long as 100 km long can be utilized to measure many different parameters such as temperature, strain, vibration, acceleration, and inclination, replacing many different types of conventional sensing systems. These features greatly enhance the reliability of the FBG sensing systems, which provide the industry a very cost-effective integrated solution.

While traditional electronic sensors require large space for instrumentation, EMI shielding and cabling to withstand electromagnetic interferences, FBG sensors are fabricated onto tiny optical fibers and not affected by external interferences and so can monitor points not reachable by electrical sensors. With the use of FBG sensors, many of the previously inaccessible points now become readily accessible. PolyU has used this cutting-edge technology in different large-scale projects. One of the recent applications is in the structural health monitoring of the 610-meter Guangzhou TV Tower, which is currently the tallest TV tower in the world. (Source: The Hong Kong Polytechnic University – Media Releases)

Sunday, July 10, 2011

Conference Notice: SPIE Security + Defence

Conference Notice
SPIE Security + Defence
September 19-22, 2011
Clarion Congress Hotel Prague, Prague, Czech Republic

Technologies:

  • Electro-Optical Sensing
  • Infrared Systems
  • Biological and Chemical Sensing Imaging and Display Technologies
  • Optical Materials and Technologies Unmanned/Unattended Sensors and Networks

According to the Symposium co-Chairs, new challenges continue to emerge in areas such as in relation to network-enabled capability/network-centric warfare and military operations/peace-keeping in the urban theatre, which are changing the way that the technology base is likely to be exploited in the future. This unique symposium is the seventh of its kind to be held in Europe, and will offer many opportunities to network with colleagues from a variety of disciplines in academia, industry, and government from all over the world.

Designed to complement SPIE Defense, Security, and Sensing Symposium held annually in Orlando, Florida, this Symposium will consider and discuss all aspects of this evolving field. Materials, optical devices, enabling technologies, advanced system concepts, sensors (including design and fabrication), silicon micro-systems, nanotechnology, electro-optic systems, lasers, millimetre wave/THz technology to name but a few.

Engineers and researchers from government, military, academia and the commercial sector will discuss current status and future directions. This year’s meeting also features a new conference discussing the important topic of quantum cryptography.

This meeting will be a showcase for multi-disciplinary research and should provide an excellent opportunity for individuals and organisations to explore new opportunities to collaborate with new partners from other fields of activity. The event will be co-located with the 18th SPIE Remote Sensing, which further enhances opportunities to collaborate with new partners and/or individuals from related fields of activity.

The Symposium will open just after the tenth Anniversary of the attacks on the World Trade Centre in New York and the Pentagon in Washington. Those horrific events fundamentally and irreversibly influenced the course of mankind’s future and posed major challenges for those agencies entrusted with the security of the public at large.  Subsequent atrocities in Bali, Madrid, Moscow, London and Sharm el-Sheikh, as well as attacks on people in other nations demonstrated that the threat of terrorism must to be pursued at an International level using ever evolving techniques and methods.

Major advances continue to be made in dealing with the asymmetry of such threats as a result of the level of collaboration between nations and people around the globe.
All papers from this symposium will be permanently archived in the SPIE Digital Library, where they will be made available to others in the international scientific community who seek to learn, make discoveries, and innovate.

Fiber Optic Tunnel Detection System

US Seismic Systems Inc. (USSI), a subsidiary of Acorn Energy, Inc. (NASDAQ: ACFN), recently announced that the company demonstrated its Ultra High Sensitivity (UHS) Tunnel Detection product at the Force Protection Equipment Demonstration (FPED VIII) sponsored by (US) Department of Defense's Physical Security Equipment Action Group held last week in Stafford, Virginia. Designated GroundAlert-UHS, the system is based upon USSI’s revolutionary all-optical geophone, which can detect underground activity at levels more than 100 times quieter than competing systems.

The need for a tunnel detection solution around the world is becoming increasingly urgent, with 129 tunnels detected under U.S. borders since 1990. The Department of Homeland Security, U.S. Northern Command, the Army Corps of Engineers and other agencies formed the rapid reaction tunnel detection joint capability technology demonstration in 2010 to address this pressing issue. The highly publicized escape of 480 Taliban fighters in April (2011) month through a tunnel from a prison in Afghanistan has now heightened awareness by the DOD for the need for a tunnel detection capability at secure sites around the world.

Fiber Optic Tunnel Detection System              USSI’s GroundAlert-UHS fiber optic tunnel detection system, which is powered only by light, utilizes highly sensitive, yet unobtrusive fiber optic geophones planted in the ground to detect subsurface digging activity at distances in excess of 100 feet, coupled with a real-time signal processing suite for screening out nuisance/false alarms. “GroundAlert-UHS is a solid example of the broader applications and markets available for our Ultra High Sensitivity (UHS) fiber optic oilfield seismic systems,” stated Jim Andersen, CEO of US Seismic Systems. “The requirements for tunnel detection closely align with those needed for detecting microseismic events in the oilfield, that being small, rugged, ultra-sensitive sensors that are simple to install requiring no insitu electronics and no maintenance.”

Security Project in Latin America              Late last year, USSI announced that its GroundAlert security system had been selected for a 20-site maximum-security project in Latin America. 

Force Protection Equipment Demonstration (FPED) serves leaders and other decision-makers in defense, homeland security, nuclear security, and first-response, as well as officials in state and local law enforcement, physical security and first-responder organizations, and defense and homeland security media. Military and civilian personnel in command, physical security and first response positions are encouraged to attend and see the latest in immediately available integrated force protection, anti-terrorist and first-response solutions presented in 20 equipment categories.

US Seismic Systems Inc. (“USSI”), formerly US Sensor Systems Inc., designs, integrates, manufactures, and sells fiber optic sensing systems and solutions for the Energy and Defense markets. USSI utilizes all-optical fiber sensing technology for
its state-of-the-art sensors. USSI’s proprietary optical fiber and electronics combine to form the sensor system. It is designed to replace the legacy electronic-based sensor systems at a lower cost and with improved performance and reliability. For more information visit the USSI website at: www.ussensorsystems.com

Acorn Energy, Inc. is a holding company focused on technology driven solutions for energy infrastructure asset management. Our four businesses in which we have controlling interests, improve the world's energy infrastructure by making it cleaner and less expensive to operate air pollution systems for coal and gas-fired power plants (CoaLogix), more secure by providing security solutions for underwater energy infrastructure (DSIT), more reliable by providing condition monitoring instruments for critical assets on the electric grid (GridSense) and more productive and efficient by increasing oil and gas production while lowering costs through use of ultra-high sensitive seismic tools for more precise pinpointing of oil and gas reservoirs (USSI). For more information visit www.acornenergy.com

This press release includes forward-looking statements, which are subject to risks and uncertainties. There is no assurance that US Sensor Systems Inc. or Acorn Energy, Inc. will continue to grow their respective businesses, execute the initiatives described above or meet the expectations described above. A complete discussion of the risks and uncertainties which may affect Acorn Energy’s business generally and the businesses of its subsidiaries is included in “Risk Factors” in the Company’s most recent Annual Report on Form 10-K as filed by the Company with the Securities and Exchange Commission.

Friday, July 8, 2011

Fiber Optic Position Sensor (FOPS)

Micronor announced that their series position sensor (Model MR330) employs an all-optical design immune to any electromagnetic interference (EMI) such as lightning, radiation, and magnetic fields, and other harsh environmental conditions. The fiber-optic position sensor (FOPS) measures absolute angular position from 0° to 360° with 13 bit (8192 count) resolution at speeds exceeding 2500 rpm.

The absolute FOPS use a novel optical technique embedded in a passive sensor and active controller connected by a duplex fiber optic link. The controller transmits a burst of light to the code disk in the sensor, which accurately modulates the spectral components of the light based on angular position. The position information is imprinted in the optical spectrum of the light and guided back to the controller for precise position readout. The sensor requires no electrical power and houses no electronic components whatsoever.

The MR330's accuracy and EMI immunity make it an ideal sensor for applications that require precise motion control and position measurement in challenging environments:

  • Oil rigs
  • Satellite antennas
  • Solar panel arrays
  • Actuator systems
  • Transportation systems
  • Steel mills
  • Medical instrumentation

The sensor is also classified as a “simple apparatus” and meets ATEX (ATmosphères Explosives) requirements for use in mines and other hazardous environments. The sensor's immunity to lightning makes it especially suited for outdoors applications such as wind turbines and antennas.

This innovative product measures absolute angular position from 0° to 360° with 13-bit (8192 count) resolution at speeds exceeding 2500 rpm.   A complete system consists of the MR332 Passive Sensor, and MR330 Controller, which interconnect via a duplex fiber optic link. The fiber cable used is readily available industry standard 62.5/125µm multimode fiber with Duplex LC connections. The MR330 controller is powered by 24 VDC and features multiple built-in interfaces and protocols for position read-out making it compatible with most any motion systems.

The MR330 controller’s powerful embedded processor and firmware offers an extended set of built-in functions and multiple interface options not available in conventional encoders or resolvers.  The Model MR330-1 SSI Controller offers SSI, USB, RS485 Serial, Modbus RTU, two analog outputs (4-20mA and ±10V) and two digital set points.

Unit price for a complete MR330 controller/MR332 sensor system is $5790 in small quantities with a typical lead time of 2-3 weeks ARO. Special versions can also be engineered for radiation environments, MRI applications and OEM product integration.

The debut of the MR330 series absolute position sensor complements Micronor's existing MR310 series incremental fiber optic encoder system.  The company’s expanded range of fiber optic rotary sensors ensures the right solution is available for those applications where conventional encoder or resolver performance falls short.

Since 1968, Micronor has been a leading global supplier of automation and motion control products for industrial applications as well as military, aerospace, medical and other harsh/hazardous environments. Products include fiber optic sensors, encoders, resolvers, cam timers, programmable limit switches, motorized potentiometers, pulse generators, handheld pendants and custom engineered feedback and control units. Micronor maintains regional sales, service, engineering and manufacturing facilities in both California USA and Switzerland.

Micronor
Newbury Park, CA

Thursday, July 7, 2011

NASA - Electronic Radiation Characterization Project (ERC)

Among the most unique aspects of developing systems for space is the performance of electronic systems in the natural space radiation environment. Long and short term radiation effects such as total ionizing dose (TID), displacement damage (DD), and single event effects (SEE) provide aerospace designers’ a myriad of challenges for system design.

The radiation hazard that a designer faces is not generic: each mission orbit, timeframe, duration, and spacecraft design (mechanical and electrical) provides differing requirements and challenges to deal with. This hazard varies:from missions with severe requirements that fly in the heart of the Van Allen belts (such as a medium earth orbit or MEO) to avionics systems in the upper atmosphere that are protected from many energetic particle concerns, but still must deal with secondary particles such as neutrons. The thought of an error occurring in the electronics of a manned aircraft or spacecraft is unsettling at best.


With this in mind, NASA’s ERC Project is responsible for supporting NASA’s current and future needs in providing reliable electronic systems in the natural space and terrestrial radiation environments. These systems range from deep space probes with long lifetimes to earth and space science missions to the Space Shuttle short duration missions to avionics in aircraft. In this regard, the ERC project’s roles are to:
  • Provide radiation evaluations and assessments of new and emerging microelectronic and photonic technologies to enhance infusion into NASA missions, 
  • Develop guidelines for technology usage in radiation environments, 
  • Investigate radiation hardness assurance (RHA) issues in order to increase system reliability and reduce cost and schedule.
NASA's - Electronic Radiation Characterization Project (ERC) works collaboratively with technology developers and users to understand radiation needs, issues, sensitivities, and hardening solutions. The underlying goal of the ERC Project is to aid NASA’s and the aerospace industry’s designers to meet their challenges in areas such as performance, reliability, and resources.

NASA - Electronic Radiation Characterization Project (ERC)

Tuesday, July 5, 2011

Finisar Announces Successful Completion of Acquisition of 100% of Ignis

SUNNYVALE, CA -- (MARKET WIRE) -- 07/05/11 -- Finisar Corporation (NASDAQ: FNSR) reported today that it has successfully completed its acquisition of the entire equity interest in Ignis ASA, a Norwegian company whose shares are currently listed on the Oslo Stock Exchange (OSLO: IGNIS). As a result of its previously-announced recommended voluntary public offer and subsequent mandatory public offer to acquire all outstanding Ignis shares at a cash NOK 8 per share, Finisar acquired approximately 97.25% of the outstanding Ignis shares and subsequently acquired the remaining shares through the compulsory transfer provisions of Norwegian law.

Ignis is applying to the Oslo Stock Exchange for the delisting of its shares. The Exchange has suspended trading in the Ignis shares pending delisting.
SEB Enkilda has acted as Finisar's financial advisor, and DLA Piper has acted as Finisar's legal advisor, in connection with Finisar's acquisition of Ignis.
 
About Ignis
Ignis ASA is an innovative provider of optical components and network solutions for fiber optic communications. The company operates globally through four subsidiaries: Fi-ra Photonics in Korea (71.8% owned) and wholly-owned subsidiaries Syntune in Sweden, Ignis Photonyx in Denmark, and SmartOptics in Norway. Ignis's product and services portfolio comprises passive optical components including optical chips, splitters and multiplexers, active optical components such as tunable lasers and modulators, and WDM-based solutions enabling the building of simple and cost effective high-capacity optical networks. Headquartered in Oslo, Norway, Ignis ASA is listed on the Oslo Stock Exchange under the OSE ticker IGNIS. www.ignis.com
 
About Finisar
Finisar (NASDAQ: FNSR) is a global technology leader for fiber optic subsystems and components that enable high-speed voice, video and data communications for telecommunications, networking, storage, wireless, and cable TV applications. For more than 20 years, Finisar has provided critical optics technologies to system manufacturers to meet the increasing demands for network bandwidth and storage. Finisar is headquartered in Sunnyvale, California, USA with R&D, manufacturing sites, and sales offices worldwide. For additional information, visit www.finisar.com.
 
Additional Information
This press release is not an offer to purchase shares of Ignis. A notice is being separately sent to those former Ignis shareholders whose shares have been compulsorily transferred to Finisar advising them of Finisar's decision and related information. The notice contains important information about the compulsory transfer. Former Ignis shareholders affected by it are urged to read the notice carefully when it becomes available.
Contacts:

Investor Contact:
Kurt Adzema
Chief Financial Officer
+1 408-542-5050

Investor.relations@Finisar.com

Source: Finisar
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