+86-0755 21009302  
  ricky01@boxoptronics.com
Products
Home > Products > 1310nm/1550nm InGaAs Photodiode

1310nm/1550nm InGaAs Photodiode Manufacturers

Our company insists all along the quality policy of "product good quality is base of enterprise survival; buyer fulfillment will be the staring point and ending of an company; persistent improvement is eternal pursuit of staff" and also the consistent purpose of "reputation very first, shopper first" for 1310nm/1550nm InGaAs Photodiode,InGaAs photodiode,InGaAs Photodiode Pigtail, We glance ahead to receiving your enquires quickly and hope to have the chance to operate together with you inside the future. Welcome to just take a seem at our organization.
1310nm/1550nm InGaAs Photodiode, Our organization. Situated inside the national civilized cities, the visitors is very easy, unique geographical and economic situations. We pursue a "people-oriented, meticulous manufacturing, brainstorm, construct brilliant" organization. hilosophy. Strict top quality management, fantastic service, reasonable cost in Myanmar is our stand on the premise of competition. If vital, welcome to make contact with us by our web page or telephone consultation, we're planning to be happy to serve you.

Related Products

Hot Products

  • Low cost C-band ASE Broadband Light Source

    Low cost C-band ASE Broadband Light Source

    This Low cost C-band ASE Broadband Light Source has C-band wavelength, with 5~7dB spectral flatness and SM fiber and for fiber sensing applications.
  • 1390nm DFB Laser Diode SM Fiber TEC

    1390nm DFB Laser Diode SM Fiber TEC

    The 1390nm DFB Laser Diode SM Fiber TEC is generally applied for stabilizing or modulating light source. In addition, the high stability laser source can be used for testing apparatus and OTDR equipment. The laser diode is composed of a CWDM-DFB chip, built-in isolator, built-in monitor photodiode and TEC cooler, and SC/APC,SC/PC, FC/APC,FC/PC optical fiber connector. Customers can select the length of optical fiber and pin definition based on actual demand. The output power is available from 1MW, 1270nm~1610nm CWDM wavelength available.
  • High Reliability L-band Tunable Fiber Laser Module For DWDM System

    High Reliability L-band Tunable Fiber Laser Module For DWDM System

    High Reliability L-band Tunable Fiber Laser Module For DWDM System can be used in fiber laser, fiber link, optical device testing and other fields.
  • 1410nm DFB Pigtailed Laser Diode Single Mode Fiber

    1410nm DFB Pigtailed Laser Diode Single Mode Fiber

    This 1410nm DFB Pigtailed Laser Diode Single Mode Fiber has a built-in InGaAs monitor photodiode and an optical isolator integrated inside its package. Output power from fiber >2mW, This laser diode is suitable for applications in optical networks such as mobile communication systems and CATV systems.
  • Polarization Maintaining Erbium Ytterbium Co-doped Fiber

    Polarization Maintaining Erbium Ytterbium Co-doped Fiber

    The Polarization maintaining erbium ytterbium co-doped fiber is mainly used in 1.5μm polarization-maintaining optical amplifiers, laser radars, and eye-safe laser products.It has high birefringence and excellent polarization-maintaining properties. The fiber has a high doping concentration and energy transfer efficiency, which can reduce the required pump power and fiber length, thereby reducing the impact of nonlinear effects. At the same time, the fiber shows high efficiency and excellent beam quality, low fusion loss, and strong bending resistance.
  • 915nm 60W High Power Fiber Coupled Laser Diode

    915nm 60W High Power Fiber Coupled Laser Diode

    The 915nm 60W High Power Fiber Coupled Laser Diode offers 60W output through a 105um fiber. It uses a high-power proprietary chip optimized for reliability at high peak power. This Series leverages a long history of fiber-coupled packages, incorporating a highly-reliable design in a scalable commercial product. This series is a unique solution for the fiber-coupled pump-laser market, offering powerful technical attributes in a cost-effective package.
  • Related Blog
  • Reviews

  • The development and application of femtosecond laser technology

    Since Maman first obtained laser pulse output in 1960, the process of human compression of laser pulse width can be roughly divided into three stages: Q-switching technology stage, mode-locking technology stage, and chirped pulse amplification technology stage. Chirped pulse amplification (CPA) is a new technology developed to overcome the self-focusing effect generated by solid-state laser materials during femtosecond laser amplification. It first provides ultra-short pulses generated by mode-locked lasers. "Positive chirp", expand the pulse width to picoseconds or even nanoseconds for amplification, and then use the chirp compensation (negative chirp) method to compress the pulse width after obtaining sufficient energy amplification. The development of femtosecond lasers is of great significance.

  • Short wavelength narrow linewidth fiber laser

    For spectral synthesis technology, increasing the number of synthesized laser sub-beams is one of the important ways to increase the synthesis power. Expanding the spectral range of fiber lasers will help increase the number of spectral synthesis laser sub-beams and increase the spectral synthesis power [44-45]. At present, the commonly used spectrum synthesis range is 1050～1072 nm. Further expanding the wavelength range of narrow linewidth fiber lasers to 1030 nm is of great significance to the spectrum synthesis technology. Therefore, many research institutions have focused on short wavelength (wavelength less than 1040 nm) narrow line Wide fiber lasers were studied. This paper mainly studies the 1030 nm fiber laser, and extends the wavelength range of the spectrally synthesized laser sub-beam to 1030 nm.

  • Dense Wavelength Division Multiplexing

    DWDM: Dense Wavelength Division Multiplexing is the ability to combine a group of optical wavelengths and use a single optical fiber for transmission. This is a laser technology used to increase bandwidth on existing fiber optic backbone networks. More precisely, the technology is to multiplex the tight spectral spacing of a single fiber carrier in a specified fiber in order to utilize the achievable transmission performance (for example, to achieve the minimum degree of dispersion or attenuation). In this way, under a given information transmission capacity, the total number of optical fibers required can be reduced.

  • The world's first perovskite laser has been developed.

    A team from Zhejiang University's College of Optoelectronic Science and Engineering and Haining International University recently published their research findings on the world's first perovskite laser in the international journal Nature. This device, which utilizes a dual optical microcavity structure, combines low power consumption with easy tunability, making it suitable for applications such as optical data transmission and as a light-emitting diode in integrated photonic chips and wearable devices.

  • Why are the classic infrared wavelengths 808nm, 1064nm, and 1550nm?

    The basic components of a laser can be divided into three parts: a pump source (which provides energy to achieve population inversion in the working medium); a working medium (which has a suitable energy level structure that enables population inversion under the action of the pump, allowing electrons to transition from high energy levels to the lower level and release energy in the form of photons); and a resonant cavity.

  • Automotive lidar and how it works

    What is Lidar (LiDAR)? Lidar combines radar ranging capabilities with camera angular resolution to provide accurate depth-aware sensing to complete the image

Send Inquiry

Copyright @ 2020 Shenzhen Box Optronics Technology Co., Ltd. - China Fiber Optic Modules, Fiber Coupled Lasers Manufacturers, Laser Components Suppliers All Rights Reserved.