US-Federal Republic of Germany Cooperation in Pulsed Laser Studies

美德意志联邦共和国脉冲激光研究合作

• 批准号: 8922474
• 负责人: Erhard Rothe
• 金额: $ 1.38万
• 依托单位: Wayne State University
• 依托单位国家: 美国
• 项目类别: Standard Grant
• 财政年份: 1990
• 资助国家: 美国
• 起止时间: 1990-08-01 至 1994-01-31
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=8922474&HistoricalAwards=false
• 关键词: US; Federal; Republic; Germany; Cooperation

This award supports Dr. Erhard W. Rothe of Wayne State University for several trips to Goettingen, Germany, to collaborate in chemical physics research with Dr. Peter Anderson of the Max Planck Institute for Flow Research. They are studying interactions of pulsed ultraviolet laser light with molecules. One set of experiments they will carry out involves laser preparation of single quantum states and study of their subsequent interactions with molecules and/or with other laser light. This requires the use of three lasers on the same experiment. The second type of research is more applied and involves a new method, developed at the Max Planck Institute, for laser analysis of combustion involving laser.induced predissociative fluorescence (LIPF). Much remains to be done to make a quantitative analysis system for a large number of species. This will be the subject of joint effort. This collaboration offers the possibility of enhancing automotive combustion diagnostics in the Detroit area through direct experience with highly competent and well equipped German collaborators. Lasers offer many desirable features for application to chemical diagnostics. They have high intensity, narrow band.width, fast pulses and coherence. The light is easily manipulated and focussed with mirrors and lenses. Appropriate combinations of such desirable properties can be readily exploited. LIPF offer the particular advantage that it can be quantitatively and simply used at atmospheric and higher pressures, such as those that exist, for example, with atmospheric flames or with internal combustion. Such techniques are particularly promising when combined detector and computer technologies are applied to combustion. These should, for example, lead to optimization of fuels and minimization of pollutants by appropriate control and feedback technology. Such quick, accurate and simple techniques are applicable to a variety of commercial processes, including low and high temperature turbulent environments.

这个奖项支持博士埃哈德W。韦恩州立大学的罗斯 大学几次前往哥廷根，德国， 与彼得博士合作进行化学物理研究 马克斯·普朗克流动研究所的安德森说。 他们 正在研究脉冲紫外激光 分子。 他们将进行的一组实验 涉及激光制备单量子态和研究 它们随后与分子和/或 其他激光 这需要使用三个激光器， 同样的实验。 第二类研究比较多 应用并涉及一种新的方法，最大限度地 普朗克研究所，用于燃烧的激光分析， 激光诱导预解离荧光（LIPF）。 多 还有待于建立一个定量分析系统， 大量的物种。 这将是联合国的主题。 努力 这种合作提供了增强 汽车燃烧诊断在底特律地区， 直接经验，能力强，装备精良 德国合作者。 激光器提供了许多理想的特性 用于化学诊断。 它们具有高 强度、窄带宽、快脉冲和相干性。 的 光很容易被操纵，并通过镜子聚焦， 眼镜. 这些所需特性的适当组合 很容易被利用。 LIPF提供了特殊的优势， 它可以定量和简单地用于大气中， 和更高的压力，例如存在的压力，例如， 用大气火焰或用内燃。 等 技术是特别有前途的， 将计算机技术应用于燃烧。 这些 例如，应该导致燃料的优化， 通过适当的控制和 反馈技术 如此快速、准确和简单 这些技术可应用于各种商业过程， 包括低温和高温湍流环境。