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Wiseguyreports.Com Adds “Optical Transceiver -Market Demand, Growth, Opportunities and Analysis of Top Key Player Forecast To 2022” To Its Research Database This report focus on Global and regional market, providing information on major players like manufacturers, suppliers, distributors, traders, customers, investors and etc., major types, major applications from Global and major regions such as Europe, North American, South American, Asia (Excluding China), China and etc. Data type include capacity, production, market share, price, revenue, cost, gross, gross margin, growth rate, consumption, import, export and etc. Industry chain, manufacturing process, cost structure, marketing channel are also analyzed in this report. This report provides valuable information for companies like manufacturers, suppliers, distributors, traders, customers, investors and individuals who have interests in this industry. Major companies are as follows: Finisar Corp., Lumentum Holdings Inc., Accelink Technologies Co. Ltd., Oclaro, Inc., Sumitomo Electric Industries, Ltd., Foxconn Electronics Inc., Neophotonics Corp., Fujitsu Optical Components Ltd., Reflex Photonics Inc., Source Photonics, Inc. and more are profiled in the terms of product picture, specification, capacity, production, price, cost, gross, revenue, and contact information. Chapter One Industry Overview 1.1 Definition 1.2 Specification 1.3 Classification 1.3.1 850nm 1.3.2 1310nm 1.3.3 1550nm 1.4 Application 1.4.1 Telecom 1.4.2 Data Center 1.4.3 Enterprise Chapter Two Industry Chain Analysis 2.1 Up Stream Industries Analysis 2.1.1 Raw Material and Suppliers 2.1.2 Equipment and Suppliers 2.2 Manufacturing Analysis 2.2.1 Manufacturing Process 2.2.2 Manufacturing Cost Structure 2.2.3 Manufacturing Plants Distribution Analysis Chapter Five Major Manufacturers Analysis 5.1 Finisar Corp. 5.1.1 Company Profile 5.1.2 Product Specification 5.1.3 2011-2016 Global Market Performance 5.1.4 Contact Information 5.2 Lumentum Holdings Inc. 5.2.1 Company Profile 5.2.2 Product Specification 5.2.3 2011-2016 Global Market Performance 5.2.4 Contact Information 5.3 Accelink Technologies Co. Ltd. 5.3.1 Company Profile 5.3.2 Product Specification 5.3.3 2011-2016 Global Market Performance 5.3.4 Contact Information 5.4 Oclaro, Inc. 5.4.1 Company Profile 5.4.2 Product Specification 5.4.3 2011-2016 Global Market Performance 5.4.4 Contact Information 5.5 Sumitomo Electric Industries, Ltd. 5.5.1 Company Profile 5.5.2 Product Specification 5.5.3 2011-2016 Global Market Performance 5.5.4 Contact Information 5.6 Foxconn Electronics Inc. 5.6.1 Company Profile 5.6.2 Product Specification 5.6.3 2011-2016 Global Market Performance 5.6.4 Contact Information 5.7 Neophotonics Corp. 5.7.1 Company Profile 5.7.2 Product Specification 5.7.3 2011-2016 Global Market Performance 5.7.4 Contact Information 5.8 Fujitsu Optical Components Ltd. 5.8.1 Company Profile 5.8.2 Product Specification 5.8.3 2011-2016 Global Market Performance 5.8.4 Contact Information 5.9 Reflex Photonics Inc. 5.9.1 Company Profile 5.9.2 Product Specification 5.9.3 2011-2016 Global Market Performance 5.9.4 Contact Information 5.10 Source Photonics, Inc. 5.10.1 Company Profile 5.10.2 Product Specification 5.10.3 2011-2016 Global Market Performance 5.10.4 Contact Information 5.11 5.11.1 Company Profile 5.11.2 Product Specification 5.11.3 2011-2016 Global Market Performance 5.11.4 Contact Information 5.12 5.12.1 Company Profile 5.12.2 Product Specification 5.12.3 2011-2016 Global Market Performance 5.12.4 Contact Information 5.13 5.13.1 Company Profile 5.13.2 Product Specification 5.13.3 2011-2016 Global Market Performance 5.13.4 Contact Information 5.14 5.14.1 Company Profile 5.14.2 Product Specification 5.14.3 2011-2016 Global Market Performance 5.14.4 Contact Information 5.15 5.15.1 Company Profile 5.15.2 Product Specification 5.15.3 2011-2016 Global Market Performance 5.15.4 Contact Information 5.16 5.16.1 Company Profile 5.16.2 Product Specification 5.16.3 2011-2016 Global Market Performance 5.16.4 Contact Information 5.17 5.17.1 Company Profile 5.17.2 Product Specification 5.17.3 2011-2016 Global Market Performance 5.17.4 Contact Information 5.18 5.18.1 Company Profile 5.18.2 Product Specification 5.18.3 2011-2016 Global Market Performance 5.18.4 Contact Information 5.19 5.19.1 Company Profile 5.19.2 Product Specification 5.19.3 2011-2016 Global Market Performance 5.19.4 Contact Information 5.20 5.20.1 Company Profile 5.20.2 Product Specification 5.20.3 2011-2016 Global Market Performance 5.20.4 Contact Information Chapter Six Major Classification Analysis 6.1 2011-2016 Major Classification Market Share 6.2 850nm 6.3 1310nm 6.4 1550nm Chapter Seven Major Application Analysis 7.1 2011-2016 Major Application Market Share 7.2 Telecom 7.2.1 2011-2016 Consumption Analysis 7.2.2 Major Down Stream Customers Analysis 7.3 Data Center 7.3.1 2011-2016 Consumption Analysis 7.3.2 Major Down Stream Customers Analysis 7.4 Enterprise 7.4.1 2011-2016 Consumption Analysis 7.4.2 Major Down Stream Customers Analysis For more information, please visit https://www.wiseguyreports.com/sample-request/1259665-2017-global-and-regional-optical-transceiver-market-research-report-forecasts-2022


Patent
Accelink Technologies Co and Accelink Electronic Technology Co. | Date: 2013-12-25

A Raman pump laser control apparatus comprises a wavelength division multiplexer, a tap coupler, a photoelectric detector, an analogue amplification processing circuit, an analogue-to-digital converter, a fast Raman pump control unit, an digital-analog converter, and a Raman pump laser. The fast Raman pump control unit, after having known anticipated output light power of the Raman pump laser, based on a direct relationship between a current anticipated output light power of the Raman pump laser and input digital quantity that is needed by the digital-analog converter, uses a feedforward control mechanism so that actual output light power of the Raman pump laser fastly approximates the anticipated output light power thereof, and then synchronously combines with a feedback control mechanism so that the actual output light power of the Raman pump laser is precisely locked on the anticipated output light power, thereby achieving fast and precise control of the Raman pump laser.


Patent
Accelink Technologies Co | Date: 2013-03-28

This invention involves and discloses a heat control device for power equipment, which comprises heat source, heat sink base plate, heat insulation layer, dissipation heat sink and thermal control switch, wherein the heat source is placed on and in contact with dissipation heat sink, and its bottom is in direct lap joint with heat sink base plate, wherein the heat insulation layer is set around heat sink base plate, wherein the thermal control switch is placed on heat sink base plate. This invention of heat control device is one that demonstrates excellent low temperature thermal insulation property for key components or heat-sensitive elements of power equipment. The heat control device applying technical solutions described in this invention features easy manufacturing, low cost and reliable performance.


Patent
Accelink Technologies Co | Date: 2012-12-26

An embodiment of the present invention discloses a method of performing target Raman gain locking and a Raman fiber amplifier. The Raman fiber amplifier comprises a coupler (1) and a control unit (15), wherein the control unit comprises a target gain locking module. A detection circuit formed by filters and optical power detectors is connected between an output side of the coupler (1) and an input side of the control unit (15). Said method uses the control unit (15) to adjust power of the pump laser, making the detected out-of-band ASE power value reach target out-of-band ASE optical signal power value. Thus, the target amplification gain locking can be realized. Optical path according to embodiments of the present invention has a simple structure. The Raman gain can be configured flexibly according to line condition, and automatic control and locking of gain of the Raman fiber amplifier can be realized.


Patent
Accelink Technologies Co | Date: 2013-12-17

A coupling device of an optical waveguide chip and a PD array lens. The coupling device comprises a waveguide chip, a PD array, a heat sink, a waveguide gasket and a substrate. The waveguide gasket and the heat sink are located on the substrate, the PD array is located on the heat sink, and the waveguide chip is provided on the waveguide gasket. A reflection prism is provided in an optical path between the waveguide chip and the PD array. The output light of the waveguide chip is reflected by the reflection prism, and then is received by the PD array. A lens array having a convergence effect is provided in the optical path between the waveguide chip and the PD array. The coupling device can reduce costs and has a simple structure, the assembly process thereof is easy to realize, and the photoelectric conversion efficiency thereof is high.


Patent
Accelink Technologies Co | Date: 2013-09-30

An OSNR measuring method, comprising: measuring a spectrum to be measured of an optical signal at a point to be measured of an optical transmission line, and acquiring the comparative spectrum of the optical signal within a channel wavelength range and at an SNR different from the SNR of the point to be measured; respectively integrating, within the channel wavelength range of the optical signal, the spectrum to be measured and the comparative spectrum to obtain total power Pspectrum to be measured and Pcomparative spectrum, and acquiring a noise factor F and a signal scale factor A; calculating, according to the total power, the noise factor and the signal scale factor, the noise power Pspectrum to be measured within the channel wavelength range of the optical signal, so as to obtain an OSNR of the point to be measured.


Patent
Accelink Technologies Co | Date: 2013-12-25

A Raman pump laser control apparatus comprises a wavelength division multiplexer, a tap coupler, a photoelectric detector, an analogue amplification processing circuit, an analogue-to-digital converter, a fast Raman pump control unit, an digital-analog converter, and a Raman pump laser. The fast Raman pump control unit, after having known anticipated output light power of the Raman pump laser, based on a direct relationship between a current anticipated output light power of the Raman pump laser and input digital quantity that is needed by the digital-analog converter, uses a feedforward control mechanism so that actual output light power of the Raman pump laser fastly approximates the anticipated output light power thereof, and then synchronously combines with a feedback control mechanism so that the actual output light power of the Raman pump laser is precisely locked on the anticipated output light power, thereby achieving fast and precise control of the Raman pump laser.


Patent
Accelink Technologies Co | Date: 2013-11-25

A multicast optical switch based on free-space transmission comprises a 1M input collimator array, a light splitting device, an optical distance compensation device, a spot transformation device, a 1N output collimator array and a reflector array which are arranged in sequence. The 1N output collimator array corresponds to reflector array. The light splitting device is provided with a light splitting surface and a reflection surface, and by means of light splitting surface and reflection surface, light splitting and beam splitting of n times are carried out on input signals of 1M input collimator array, and then N beams of sub-signal light are generated. The optical distance compensation device compensates optical distance differences among MN sub-signal light beams produced by light splitting device. The MN sub-signal light beams are focused to be 1N light spots through light spot conversion device, and then 1N light spots are reflected to reflector array.


Patent
Accelink Technologies Co | Date: 2015-10-28

This invention involves and discloses a heat control device for power equipment, which comprises heat source, heat sink base plate, heat insulation layer, dissipation heat sink and thermal control switch, wherein the heat source is placed on and in contact with dissipation heat sink, and its bottom is in direct lap joint with heat sink base plate, wherein the heat insulation layer is set around heat sink base plate, wherein the thermal control switch is placed on heat sink base plate. This invention of heat control device is one that demonstrates excellent low temperature thermal insulation property for key components or heat-sensitive elements of power equipment. The heat control device applying technical solutions described in this invention features easy manufacturing, low cost and reliable performance.


A method for compensating for a wavelength shift in a wavelength selective switch (WSS), and a device therefor. The device comprises a fixed seat (301) as well as a rotation beam (304) and a compensation block (302) that have different thermal expansion amounts, the rotation beam (304) and the compensation block (302) being fixedly adhered to the fixed seat (301). In the method, a combined structure of the rotation beam (304) and the compensation block (302) with different thermal expansion amounts is adopted; the combined structure rotates by means of different expansion amounts generated by the rotation beam (304) and the compensation block (302) at the same external temperature, and further drives an optical element of the WSS to rotate, hence compensating for a wavelength shift of the WSS. The method is safe and reliable; the device has a simple structure, and is convenient to encapsulate, is applicable to various WSS optical paths, and does not affect advantages of the optical path structure of the WSS.

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