百家乐怎么玩-澳门百家乐官网娱乐城网址_网上百家乐是不是真的_全讯网888 (中国)·官方网站

Major award recognises CityU’s push for high-performance photonic chips

 

Dr Wang Cheng receives the Croucher Innovation Award 2020.
Dr Wang Cheng receives the Croucher Innovation Award 2020.

 

A researcher at City University of Hong Kong (CityU) has received a prestigious award for his innovative work on novel photonic chips for optical communication.

Dr Wang Cheng, Assistant Professor in the Department of Electrical Engineering, is the awardee of the Croucher Innovation Award 2020 for his contributions to developing compact and high-performance integrated photonic chips for optical communications. This technology can also be applied for quantum photonics as well as millimetre-wave and terahertz photonics.

Global data centres today consume about 1% of total human electricity, a number that’s expected to double every four years due to the rapid growth of cloud computing and storage services. As a major portion of data centre power consumption is spent on the numerous optical fibre networks linking servers, Dr Wang’s research team is developing advanced nano-fabrication approaches to integrate optical fibre components onto small chips, and to make them transmit more data at lower power consumption and cost.

“Our research aims to replace today’s bulky and expensive discrete optical components with chip-scale, integrated photonic devices,” said Dr Wang.

One prominent example of this ambitious goal is electro-optic modulators, which are critical components in modern communications. They convert high-speed electronic signals in computational devices to optical signals before transmitting them through optical fibre. But the existing and commonly used lithium niobate modulators are bulky, expensive and use up a lot of energy.

In 2018, in collaboration with Harvard University and renowned information technologies laboratory, Nokia Bell Labs, Dr Wang successfully fabricated a tiny on-chip lithium niobate modulator that’s 100 times smaller in size and 10 times lower in optical losses compared to current lithium niobate modulators, which can provide faster, more energy-efficient and cost-effective solutions for optical fibre networks.

Currently, Dr Wang is further testing the limits of this technology by developing modulators that can operate at millimeter-wave and even terahertz frequencies (> 200 GHz) together with other members of the State Key Laboratory of Terahertz and Millimeter Waves at CityU, with potential applications for 5G communication and beyond. He is also developing new kinds of integrated photonic devices for low-cost and efficient generation terahertz waves, which could be used for medical imaging and chemical identification applications.

The generous support of the Croucher Innovation Award will allow Dr Wang to upgrade his lab infrastructure, adding ultra-high-speed optoelectronic equipment and advanced nanofabrication tools for the next generation of device fabrication and characterisation. This research could secure major benefits for society.

YOU MAY BE INTERESTED

Contact Information

Communications and Institutional Research Office

Back to top
百家乐官网赌场导航| 百家乐官网玩揽法大全| 百家乐美国玩法| 36棋牌的深海捕鱼| 百家乐策略详解| 赌博百家乐官网判断决策| 百家乐记算| 至尊百家乐官网facebook| 马牌| 狮威百家乐娱乐网| 百家乐官网庄闲客户端| 任我赢百家乐自动投注分析系统| 百乐门娱乐| 博彩百家乐字谜总汇二丹东| 任你博百家乐官网的玩法技巧和规则 | 大发888加盟合作| 竞咪百家乐官网的玩法技巧和规则| 大发888注册送58网站| 百家乐官网的路子怎么| 百家乐官网技术交流群| bet365体育开户| 大发888下载 大发888游戏平台| 摩纳哥百家乐的玩法技巧和规则| 百家乐官网赌场优势| 网上真钱娱乐城| 大发888为什么打不开| 百家乐无损打法| 伯爵百家乐的玩法技巧和规则| 百家乐官网备用网址| 百家乐官网赢钱战略| 大发888怎么玩才赢| 大发888注册优惠代码| 海口太阳城大酒店| 做生意门店风水知识| 百家乐官网棋牌游戏币| 百家乐官网机器图片| 博狗百家乐官网的玩法技巧和规则| 百家乐官网赌场信息| 百家乐真人游戏网| 百家乐怎么开户| 百家乐官网玩法守则|