Español

HieFo launches high-power DFB laser chip to enter coherent optical transmission market

196
2024-09-13 11:59:41
Ver traducción

Recently, HieFo, a leading enterprise in the field of optical communication, officially launched its HCL30 DFB laser chip, designed specifically to meet the stringent requirements of coherent optical transmission.

 



This chip combines efficient optical output power with excellent narrow linewidth performance, providing multiple industry standard wavelength options in the O-band and C-band, bringing unprecedented performance improvements to fields such as data centers, artificial intelligence connectivity, communication, and general sensing.

Dr. Genzao Zhang, co-founder and CEO of HieFo, said, "The HCL30 DFB laser chip was developed specifically for the demand of the Coherent Lite market; however, based on HieFo's recent innovation in chip design, the outstanding performance of this laser chip will be widely applied in fields such as data centers, artificial intelligence connectivity, communication, and general sensing.

HieFo's HCL30 is a 1mm cavity length chip available in bare chip or chip carrier (COC) format mounted on a proprietary base. This device can achieve spectral linewidth performance of less than 300 KHz while providing a typical optical output power of 150 mW.

HCL30 is an ideal integrated solution for highly integrated optical platforms based on silicon optical integration design today. Emerging CPO (co packaged optics) and LPO (distributed optics) technologies can also leverage the unique performance of this newly released laser chip.

HCL30 is the first new DFB laser product launched by HieFo in the recent innovation of InP chip design architecture. In the future, other product variants will be launched to meet specific optical design requirements, such as efficient design for ultra-high light output power or extremely narrow linewidth performance.

Launching the next generation high-power gain chip HGC20
Not long ago, HieFo also launched the next-generation high-power gain chip HGC20 for integrating tunable laser components (xITLA).

Chip design addresses the key market demand for higher optical output power and lower power consumption. HieFo's HGC20 C+band gain chip serves as the foundational component for the next generation of integrated tunable lasers (xITLA), setting a new performance benchmark.

Dr. Genzao Zhang said, "The launch of the HGC20 gain chip is an example of the innovation that HieFo will bring to the optical communication market in the coming months and years.

He added, "HieFo has made significant enhancements and improvements in chip basic design, which will become the foundation for the widespread application of InP based chips and drive the optical interconnection of the next generation data center, communication, and AI connectivity markets.

HGC20 is a 1mm cavity length chip installed on a proprietary base, with an optical output power of nearly 22dBm (depending on the driving current). For applications that require lower overall module power consumption, the efficient design of HGC20 increases its wall insertion efficiency (WPE) by up to 40% compared to common gain chips on the market.

HieFo's gain chip technology has been a fundamental component of the tunable laser market for over 15 years. HGC20 continues to maintain its industry-leading position in performance parameters such as frequency accuracy, narrow linewidth, and low noise.

Acquisition of EMCORE assets from optoelectronic device manufacturer
HieFo, headquartered in California, USA, has recently inherited over 40 years of innovative heritage in the field of optoelectronic devices from EMCORE, the world's largest provider of inertial navigation solutions for aerospace and defense industries, through a management acquisition.

HieFo is currently focused on developing and commercializing efficient photonic devices for the optical communication industry, and will continue to pursue the most innovative and disruptive solutions to serve the data communication, communications, artificial intelligence connectivity, and general sensing industries.

It is reported that on April 30th of this year, HieFo purchased EMCORE's chip business and indium phosphide (InP) wafer manufacturing business for a total purchase price of $2.92 million.

This includes the transfer of almost all assets related to EMCORE's non core discontinued chip business line, including assets used in its InP wafer manufacturing business in Alhambra, California, including but not limited to equipment, contracts, intellectual property, and inventory.

HieFo will initially sublet a complete building and a part of another building on its Alhambra base, and ultimately sublet two complete buildings, paying rent for these buildings on a pro rata basis starting from July 1, 2024.

HieFo has also successfully hired almost all key scientists, engineers, and operations personnel from EMCORE's discontinued chip business, and will continue to operate in EMCORE Alhambra campus.

Indium phosphide chip factory resumes production
HieFo recently announced that its indium phosphide (InP) wafer manufacturing plant in Alhambra, California, has successfully restarted production on August 23, 2024, following its acquisition of wafer manufacturing and chip related business assets from EMCORE management. The acquisition was successfully completed in early May 2024, and HieFo immediately took over the operation.

Through this transaction, HieFo not only incorporates EMCORE's existing team of key scientists, engineers, and operational elites, but also inherits over 40 years of global leadership in InP chip design and manufacturing, as well as rich intellectual property rights in advanced optoelectronic devices.

It is worth noting that EMCORE had planned to withdraw from the InP chip business, resulting in a temporary suspension of wafer manufacturing operations. But HieFo quickly resumed production activities in the Alhambra campus with its experienced core team and strong financial strength.

In the past three months, the HieFo team has made every effort to restart idle equipment, restore the epitaxial wafer growth and regeneration capabilities of MOCVD reactors, restart front-end microfabrication processes, and build a comprehensive device testing, chip preparation, and separation process in the back-end.

At present, HieFo's InP based devices (including lasers, gain chips, SOA, PIN/APD detectors, etc.) have passed strict reliability verification tests, and their performance, quality, and reliability have reached or even exceeded established standards.

Of particular note is that HieFo has prepared a newly designed chip for mass production, which is designed to support single carrier wavelength transceivers up to 1.6Tbps, demonstrating its technological innovation capabilities. Several leading optical module manufacturers have extended olive branches to HieFo, ordering their efficient optical devices. This achievement marks a solid step for HieFo in driving innovative solutions for the telecommunications, data communication, and AI connectivity industries.

The CEO of HieFo stated, "We are delighted to announce the full resumption of optical device production at the Alhambra factory. This is not only a vivid manifestation of HieFo's commitment to the continuity and excellence of high-performance optical chip production, but also our firm confidence in continuing to lead the industry's development.

Source: OFweek

Recomendaciones relacionadas
  • British scientists pioneered groundbreaking laser tools to help discover exoplanets

    Physicists from the University of Heriot and the University of Cambridge have developed an innovative laser system called Astrocomb, which can significantly improve the detection of exoplanets. This advanced tool can accurately measure the spectra emitted by nearby stars, which fluctuate due to the gravitational influence of orbiting planets. It is expected that this technology will enhance resear...

    2024-04-02
    Ver traducción
  • DustPhotonic is the first to develop an 800G silicon photonic chip

    Recently, DustPhotonics released a single chip 800G-DR8 silicon photonic chip for data center applications, which is an important milestone in practical photonics in data centers. The company claims that its single-chip solution provides high-performance and easy to implement solutions for system architects.DustPhotonics' 800G-DR8 photonic integrated circuit provides a single chip solution for fib...

    2023-10-13
    Ver traducción
  • Molecular orientation is key: a new perspective on revealing electronic behavior using two-photon emission spectroscopy

    Organic electronics has aroused great interest in academia and industry due to its potential applications in OLEDs and organic solar cells, with advantages such as lightweight design, flexibility, and cost-effectiveness. These devices are made by depositing organic molecular thin films onto a substrate that serves as electrodes and exerting their effects by controlling electron transfer between th...

    2024-03-19
    Ver traducción
  • Shanghai Optical Machinery Institute has made progress in laser assisted connection of metal carbon fiber composite heterojunction materials

    Recently, the research team of Yang Shanglu from the Laser Intelligent Manufacturing Technology R&D Center of the Chinese Academy of Sciences Shanghai Institute of Optics and Fine Mechanics has made new progress in the laser assisted connection of metal carbon fiber composite heterostructure joints.The team used an adjustable flat top rectangular semiconductor laser as a heat source to achieve...

    2023-09-01
    Ver traducción
  • Tsinghua University develops efficient and stable perovskite quantum dot deep red light devices

    Semiconductor quantum dots have the advantages of high quantum yield, narrow emission spectrum, and compatibility with solution processes. They have shown broad application prospects and enormous economic value in the field of optoelectronic materials and devices, and related research has won the Nobel Prize in Chemistry in 2023.Compared with traditional II-VI and III-V quantum dots (such as CdSe,...

    03-18
    Ver traducción