Laser written components in diamond for sensor applications
Laser written components in diamond for sensor applications
批准号:
2104983
负责人:
金额:
$0.0万
依托单位:
依托单位国家:
英国
项目类别:
Studentship
财政年份:
2018
资助国家:
英国
项目状态:
已结题
起止时间:
2018 至 --
中文摘要
2018-19年:MSC钻石科学与技术包括以下模块:CH976新颖而高效的材料合成方法PX904材料的性质和表征PX905缺陷和掺杂CH977材料的理论和模型PX906制造未来:工业钻石CH978表面、界面和涂层CH979器件和制造PX907钻石光子学和量子器件CH980高性能材料的应用CH981迷你研究项目1和2以及CH914或PX908:CH914电化学和传感器PX908生物医学光学及应用项目:超短脉冲激光直接写入具有极大潜力,可作为钻石技术的颠覆性创新。这项技术带来了在钻石内部制造三维结构的能力,超越了以前平面建筑的限制。使用不同的加工制度,一系列不同的组件可能用于电、光学和量子应用。提出的这项研究具有潜在的工业和学术影响。目的和目标是:1.了解激光诱导钻石击穿的物理基础,以及如何定制这种基础以优化激光写入部件的性能。这将包括考虑钻石内部的光-物质相互作用,以及一旦建立焦点等离子体,随后的击穿机制。开发一套在电、光和量子应用中具有最佳性能的激光写入结构的工艺条件。3.利用已开发的知识在钻石内部制造先进的传感器设备。这一项目是与为将该技术商业化而成立的衍生公司Oopdia合作进行的。该奖学金提供为期4年的资助,从华威大学一年制的钻石技术硕士课程开始,包括在牛津大学开始博士/DPhil之前,与博士项目密切相关的合作伙伴的两个微型项目。
英文摘要
2018-19: MSc Diamond Science & Technology includes the following modules:CH976 Novel and Efficient Methods of Material SynthesisPX904 Properties and Characterization of MaterialsPX905 Defects and DopantsCH977 Theory and Modelling of MaterialsPX906 Manufacturing the Future: Industrial DiamondCH978 Surfaces, Interfaces and CoatingsCH979 Devices and FabricationPX907 Diamond Photonics and Quantum DevicesCH980 Applications of High Performance MaterialsCH981 Mini Research Project 1 and 2And either CH914 or PX908:CH914 Electrochemistry and SensorsPX908 Biomedical Optics and ApplicationsProject:Direct laser writing with ultrashort pulses has strong potential as a disruptive innovation for diamond technology. The technique brings the ability to fabricate structures in three dimensions inside diamond, surpassing constraints from previous planar architectures. Using different processing regimes, a range of different components are possible for electrical, optical and quantum applications. The research proposed has potential for both industrial and academic impact.The aims and objectives are:1. To understand the physical basis for laser induced breakdown of the diamond, and how this may be tailored to optimise the performance of laser written components. This will include consideration of the light-matter interaction within the diamond and also subsequent breakdown mechanisms once a focal plasma has been established.2. The development of a set of processing conditions for laser written structures with optimum performance in electrical, optical and quantum applications. 3. To utilise the developed knowledge to laser fabricate advanced sensor devices inside diamond.This project is run in partnership with Opsydia, a spin out company established to commercialise the technology. The studentship provides funding for 4 years starting with a one year Masters course in Diamond Technology at Warwick University, including two mini-projects at partners that are closely linked to the PhD project, prior to starting the PhD/DPhil at Oxford University.
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