FASTNET - Revolutionary hollow core low-latency fibres and cables for ultrafast next-generation optical networks
FASTNET - 用于超快下一代光网络的革命性空心低延迟光纤和电缆
基本信息
- 批准号:EP/X025276/1
- 负责人:
- 金额:$ 364.84万
- 依托单位:
- 依托单位国家:英国
- 项目类别:Research Grant
- 财政年份:2023
- 资助国家:英国
- 起止时间:2023 至 无数据
- 项目状态:未结题
- 来源:
- 关键词:
项目摘要
The FASTNET Prosperity Partnership between Lumenisity and the Optoelectronics Research Centre at the University of Southampton will develop the first radically new optical communications medium in over 40 years. The program will make a one-third improvement in the speed at which data is transmitted, helping eliminate the lag and sluggish response of real-time interactive digital applications.This digital lag is caused by the time it takes to transmit data from the user to a distant remote datacentre and back to the user. It can cause sickness in augmented and virtual reality entertainment, it removes responsive feel in remote surgery and healthcare, and it slows autonomous systems presenting a risk that they may not react in time.The University of Southampton has pioneered a new way of transmitting high-capacity data in hollow optical fibre. Here, the data modulates a light beam that is transmitted in the air inside the fibre, rather than in the ultrapure glass that is in the centre of 100's of millions of kilometres of optical fibre used to connect the global internet today. By transmitting data in air, light travels 50% faster, whilst the design means the fibre is just as strong, lightweight and flexible as current technology, meaning it can be installed just as easily as current optical fibre cable. By transmitting data in air, the performance of this new hollow-core optical fibre is also much less dependent on the properties of the glass from which it is made. This opens the possibility of transmitting much more data - the program will target increasing data capacity by up to 500%.Whilst major advances have been made in this new generation of hollow-core fibre, to date design and fabrication limitations mean that too much light has been lost when the fibre is incorporated into a cable as needed for real-world use, limiting its use to relatively short communication links. Moreover, the current manufacturing process is only capable of producing ~20km of fibre at a time, which ultimately represents a major impediment to widespread commercialization and deployment of the technology. The major objective of this Prosperity Partnership will be to develop new designs, fabrication processes and cabling techniques that mean hollow-core fibre cable loses less light than conventional optical fibre. It will then be able to transmit data over much longer distances than even conventional optical fibre, whilst delivering 30% faster speed and much greater data-carrying capacity.This project will leverage a 5-year commitment for co-investment by EPSRC and Lumenisity, an innovative new UK company formed in 2016 to bring hollow-core fibre cable and low lag (technically known as latency) communications to the market. Lumenisity is constructing a dedicated UK manufacturing facility and have built a world-leading engineering team with decades of optical technology, optical fibre and cable experience. They will work together with the University of Southampton to combine knowledge, facilities and globally leading research talent to overcome the technical challenges of reducing loss in hollow-core optical fibre, whilst maintaining its benefits in cabled form, and ensuring it can efficiently be manufactured in high volume within the UK.Achieving this ambitious goal will enable UK invented, innovated and manufactured next-generation hollow-core optical fibre to be used in global communication networks. This will reduce future latency and help increase bandwidth for everyone, thereby helping to support the entire future digital economy. FASTNET will be key to connecting the nation, improving productivity in digital manufacturing, and enhancing network security and resilience, whilst supporting next-generation 5G and 6G applications such as autonomous vehicles and remote healthcare.
Lumenisity和南安普顿大学光电研究中心之间的FASTNET繁荣合作伙伴关系将开发40多年来第一个全新的光通信介质。该程序将使数据传输速度提高三分之一,有助于消除实时交互式数字应用程序的滞后和缓慢响应。这种数字滞后是由用户将数据传输到遥远的远程数据中心并返回给用户所需的时间造成的。它可以在增强和虚拟现实娱乐中引起疾病,它可以消除远程手术和医疗保健中的响应感觉,并且它会减慢自主系统的速度,从而存在它们可能无法及时做出反应的风险。南安普顿大学开创了一种在中空光纤中传输高容量数据的新方法。在这里,数据调制光束,光束在光纤内的空气中传输,而不是在超纯玻璃中传输,超纯玻璃位于今天用于连接全球互联网的数百万公里光纤的中心。通过在空气中传输数据,光的传播速度提高了50%,而这种设计意味着光纤与现有技术一样坚固,轻巧和灵活,这意味着它可以像现有的光纤电缆一样容易安装。通过在空气中传输数据,这种新型空芯光纤的性能也大大减少了对制造它的玻璃特性的依赖。这为传输更多的数据提供了可能性-该计划的目标是将数据容量提高500%。虽然新一代空芯光纤已经取得了重大进展,但迄今为止的设计和制造限制意味着,当光纤根据实际使用的需要并入电缆时,会损失太多的光,从而限制了其在相对较短的通信链路中的使用。此外,目前的制造工艺一次只能生产约20公里的光纤,这最终成为该技术广泛商业化和部署的主要障碍。这一繁荣伙伴关系的主要目标将是开发新的设计、制造工艺和布线技术,这意味着空芯光纤电缆比传统光纤损失更少的光。该项目将利用EPSRC和Lumenisity共同投资的5年承诺,Lumenisity是一家创新的英国公司,成立于2016年,旨在将空芯光纤电缆和低延迟(技术上称为延迟)通信推向市场。Lumenisity正在建设一个专门的英国制造工厂,并建立了一个世界领先的工程团队,拥有数十年的光学技术,光纤和电缆经验。他们将与南安普顿大学合作,将联合收割机的知识、设施和全球领先的研究人才结合起来,克服降低空芯光纤损耗的技术挑战,同时保持其在电缆形式中的优势,并确保它可以在英国大批量高效生产。创新和制造了用于全球通信网络的下一代空芯光纤。这将减少未来的延迟,并有助于增加每个人的带宽,从而有助于支持整个未来的数字经济。FASTNET将成为连接国家、提高数字制造生产力、增强网络安全性和弹性的关键,同时支持下一代5G和6 G应用,如自动驾驶汽车和远程医疗保健。
项目成果
期刊论文数量(0)
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Francesco Poletti其他文献
Multi processor system on chip platform and studying of the best architecture and software solution for an application
多处理器片上系统平台以及针对应用的最佳架构和软件解决方案的研究
- DOI:
10.6092/unibo/amsdottorato/407 - 发表时间:
2007 - 期刊:
- 影响因子:0
- 作者:
Francesco Poletti - 通讯作者:
Francesco Poletti
Flexible hardware/software support for message passing on a distributed shared memory architecture
灵活的硬件/软件支持分布式共享内存架构上的消息传递
- DOI:
10.1109/date.2005.156 - 发表时间:
2005 - 期刊:
- 影响因子:0
- 作者:
Francesco Poletti;A. Poggiali;P. Marchal - 通讯作者:
P. Marchal
Energy-Efficient Multiprocessor Systems-on-Chip for Embedded Computing: Exploring Programming Models and Their Architectural Support
用于嵌入式计算的节能多处理器片上系统:探索编程模型及其架构支持
- DOI:
10.1109/tc.2007.1040 - 发表时间:
2007 - 期刊:
- 影响因子:3.7
- 作者:
Francesco Poletti;A. Poggiali;D. Bertozzi;L. Benini;P. Marchal;M. Loghi;M. Poncino - 通讯作者:
M. Poncino
Measurement of chromatic dispersion in hollow core fibers using optical frequency comb
使用光学频率梳测量空心光纤中的色散
- DOI:
- 发表时间:
2023 - 期刊:
- 影响因子:0
- 作者:
Meng Ding;D. Dousek;Ailing Zhong;M. Komanec;I. Davidson;G. Jasion;Francesco Poletti;Radan Slavík - 通讯作者:
Radan Slavík
Designing hollow-core multi-mode anti-resonant fibers for industrial high-power laser delivery
设计用于工业高功率激光传输的空芯多模反谐振光纤
- DOI:
10.1016/j.yofte.2023.103550 - 发表时间:
2023 - 期刊:
- 影响因子:2.7
- 作者:
William Shere;G. Jasion;Eric Numkam;Francesco Poletti - 通讯作者:
Francesco Poletti
Francesco Poletti的其他文献
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