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

Nanotechnology for biomedical microsystems

Michael Gibb

 

?
The application of nanotechnology to engineer sensors and actuators for biomedical applications were the twin foci of a talk by Professor Stella Pang, Chair Professor of Electronic Engineering at City University of Hong Kong (CityU), in the President’s Lecture Series: Excellence in Academia on 9 February.
In her presentation, Professor Pang, who is also the Director of the Centre for Biosystems, Neuroscience, and Nanotechnology at CityU, touched upon nanotechnology for devices and microsystems; the application of nanotechnology in biomedical microsystems; platforms to control cell migration; neural probes; and plasmonic biosensors to detect cells.
“Novel biomedical systems could be generated by combining nanotechnology with biological science,” explained Professor Pang, who was Professor of Electrical Engineering and Computer Science at University of Michigan (1990–2011) and Associate Dean, College of Engineering, University of Michigan (2002–2007) before joining CityU in 2012.
One of the key areas of her research is the manipulation of cells on different biocompatible nano surfaces to see how they can be stretched and grown.
“We develop different platforms with different designs to monitor the behaviour of migrating cells, for example their speed and direction,” she said.
What’s interesting is that some cells can move twice as fast on patterned surfaces than on smooth surfaces, which might well be explained by the size and length of the leading edge of a cell, and the way it interacts with the patterned surface.
One of the drivers for such research is to develop biosensors that can enter the body and discover useful medical information that can help scientists to combat diseases such as cancer, or assess cellular degradation in people who might be suffering from neurological disorders.
A particularly exciting area of the application for nano-scale biosensors is for helping to construct 3D models of tumours. The aim would be to help decrease the number of experiments that necessitate the use of lab animals, test new drugs, and create new bioreactors for other pathological tissues.
Professor Pang’s research areas include nanofabrication technology, nanoimprint, biomedical, microelectronic, optical, and microelectromechanical devices and microsystems.

YOU MAY BE INTERESTED

Contact Information

Communications and Institutional Research Office

Back to top
百家乐官网路珠多少钱| 百家乐总厂在哪里| 百家乐平注秘籍| 丰镇市| 网上赌博网站| 百家乐官网赌场娱乐网规则| 大发888是什么| 百家乐真人玩下载| 疯狂百家乐官网游戏| 百家乐官网稳赢秘诀教学| 澳门百家乐官网战法| 百家乐官网加牌规则| 大发888娱乐官方下载| 百家乐庄闲排| 圣保罗百家乐官网的玩法技巧和规则 | 大发8881| 澳门赌百家乐打法| 百家乐桩闲落注点| 百家乐官网软件辅助器| 金宝博娱乐城返水| 百家乐投注很不错| 在线百家乐博彩网| 鑫鼎百家乐的玩法技巧和规则| A8百家乐的玩法技巧和规则 | 网上百家乐官网辅助软件| 诚信百家乐官网平台| 百家乐官网打线| 盛大百家乐的玩法技巧和规则| 明升国际娱乐 | 百家乐算牌方| 金海岸百家乐娱乐城| 新锦江百家乐娱乐场| 中原百家乐的玩法技巧和规则| 威尼斯人娱乐代理注册| 大发888娱乐城大发888达法8| 百家乐的规则玩法| 单机百家乐小游戏| 二八杠技术| 威尼斯人娱乐| 洛浦县| 澳门百家乐官网海星王娱乐城|