波音游戏-波音娱乐城赌球打不开

Exploring new frontiers with gold nanoparticles

 

?Noble metal nanostructures have an array of plasmonic applications, from optoelectronics and solar cell fabrication to biomedical technologies, according to Professor Jochen Feldmann, a renowned scholar in the field of optics with nanomaterials.
 
At the latest in the City University Distinguished Lecture Series held on 12 June, Professor Feldmann, Chair Professor of Photonics and Optoelectronics and Director of Nanosystems Initiative Munich at Ludwig-Maximilians-Universit?t in Germany, shared with the 100 plus academics and students the latest advancements in the top-down and bottom-up strategies for nanoscale fabrication, single molecule detection and enhanced interdisciplinarity.
 
Since Roman times, gold nanoparticles have been used to produce vivid ruby colours in glassware. But it was the discovery of the unique ways in which these nanoparticles interact with light that led to an explosion of research activity, a phenomenon that Professor Feldmann described as the “nano-gold rush”.
 
Noble metal nanostructures interact strongly with light, resulting in optical phenomena such as the possibility to localise enormous amounts of light close to their surface, an event known as “surface-enhanced electromagnetic field”.
 
Nanoparticles act as efficient light-harvesting antennae capable of transferring light energy, he said, adding that they possess multi-wavelength emission colours with high fluorescence quantum yields. The power conversion efficiency is enhanced via scattering, which makes performances such as the daily light and sound show in Hong Kong’s Victoria Harbour so vibrant and glamorous.
 
The nanoparticles are used to manufacture thin film photovaltaics, optical printing, multiple beams and parallel laser printing, and a full range of other printing tasks. They offer a great deal to biosensing medical diagnostics, such as testing drinking water for contamination, pregnancy tests and testing blood-sugar levels. There is also potential in their capability to detect external disturbances, promising to give birth to a nano ear.
 
“The next goal will be to detect the movements of bacteria by tracking the tiny oscillations of the flagella used by bacteria to move,” said Professor Feldmann. This process will help develop a sensitive and rapid protocol for detecting bacteria in blood products or other targets in biological samples.
 
Acting President of CityU, Professor Arthur Ellis, applauded the daring and risk-taking spirit of Professor Feldmann. “At CityU, we are trying to capture that same kind of spirit in our new Discovery-enriched Curriculum, which will be launched this fall,” he said.
 
“We want every student to make some kind of original innovation or creative project during their studies and learn to find and seize upon opportunities since they will be confronted with all kinds of new situations in the world. Professor Feldmann’s talk will serve to inspire our staff and students,” he added.
 
Professor Feldmann is a leading researcher and practitioner in the field of optics with nanomaterials. Pioneering scientific contributions include first experimental demonstrations of Bloch oscillations in semiconductor superlattices, a bendable optically pumped polymer laser, recording light scattering spectra from individual gold nanoparticles, a single gold nanoparticle biosensor and laser printing and listening with single gold nanoparticles.
 

YOU MAY BE INTERESTED

Contact Information

Communications and Institutional Research Office

Back to top
百家乐官网局部| 凤城市| 百家乐筹码套装包邮| bet365论坛| 疯狂百家乐官网游戏| 香港六合彩官方网| 百家乐小游戏开发| 昌图县| 福布斯百家乐的玩法技巧和规则| 百家乐官网赌场作弊| 真钱百家乐送钱| 邯郸县| 康莱德百家乐的玩法技巧和规则| 视频百家乐官网破解| 大发888游戏平台 17| 百家乐官网最好投| 足球比分| 百家乐出千方法技巧| 百家乐官网桌保险| 百家乐赌博机| 免费百家乐奥| 百家乐官网发牌规| 百家乐官网怎么会赢| 永利高备用网址| 新百家乐官网庄闲路单图记录| 全讯网官方| 澳门百家乐有限公司| 广州百家乐官网赌博机| 棋牌小游戏下载| 百家乐连开6把小| 百家乐官网永利娱乐网| 百家乐官网好不好玩| 大发888 ipad版| 百家乐破解版| 阴宅24水口| 七胜百家乐官网娱乐城总统网上娱乐城大都会娱乐城赌场 | 百家乐官网java| 永利高百家乐信誉| 澳门百家乐官网赢钱公式不倒翁| 赌场风云| 手机棋牌游戏平台|