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首页> 外文期刊>Chemical Society Reviews >Narrow bandgap colloidal metal chalcogenide quantum dots: synthetic methods, heterostructures, assemblies, electronic and infrared optical properties
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Narrow bandgap colloidal metal chalcogenide quantum dots: synthetic methods, heterostructures, assemblies, electronic and infrared optical properties

机译:窄带隙胶体金属硫属化物量子点:合成方法,异质结构,组装,电子和红外光学性质

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摘要

The chemistry, material processing and fundamental understanding of colloidal semiconductor nanocrystals (quantum dots) are advancing at an astounding rate, bringing the prospects of widespread commercialization of these novel and exciting materials ever closer. Interest in narrow bandgap nanocrystals in particular has intensified in recent years, and the results of research worldwide point to the realistic prospects of applications for these materials in solar cells, infrared optoelectronics (e.g. lasers, optical modulators, photodetectors and photoimaging devices), low cost/large format microelectronics, and in biological imaging and biosensor systems to name only some technologies. Improvements in fundamental understanding and material quality are built on a vast body of experience spread over many different methods of colloidal synthetic growth, each with their own strengths and weaknesses for different materials and sometimes with regard to particular applications. The nanocrystal growth expertise is matched by a rapidly expanding, and highly interdisciplinary, understanding of how best to assemble these materials into films or hybrid composites and thereby into useful devices, and again there are many different strategies that can be adopted. In this review we have attempted to survey and compare the recent work on colloidal synthesis, film and nanocrystal composite material fabrication, concentrating on narrow bandgap chalcogenide materials and some of their topical applications in the solar energy and biological fields. Since these applications are attracting rising interest across a wide range of disciplines, from the biological sciences, device engineering, and materials processing fields as well as the physics and synthetic chemistry communities, we have endeavoured to make the review of these narrow bandgap nanomaterials both comprehensive and accessible to newcomers to the area.
机译:胶体半导体纳米晶体(量子点)的化学,材料加工和基本理解正在以惊人的速度发展,使这些新颖而令人兴奋的材料的广泛商业化前景越来越近。近年来,特别是对窄带隙纳米晶体的兴趣增强了,全世界的研究结果都表明这些材料在太阳能电池,红外光电(例如激光器,光学调制器,光电探测器和光成像设备)中的低成本应用的现实前景。 /大幅面微电子学,以及生物成像和生物传感器系统中仅列举的一些技术。基础知识和材料质量的提高是建立在广泛的经验基础之上的,这些经验分布在许多不同的胶体合成生长方法上,每种方法对于不同的材料(有时在特定的应用程序中)都有自己的优点和缺点。纳米晶体生长的专业知识与快速扩展且高度跨学科的知识相匹配,即如何最好地将这些材料组装成薄膜或杂化复合材料,从而组装成有用的设备,并且可以采用许多不同的策略。在这篇综述中,我们试图调查和比较胶体合成,薄膜和纳米晶体复合材料制造方面的最新工作,重点是窄带隙硫族化物材料及其在太阳能和生物领域的一些局部应用。由于这些应用吸引了生物科学,设备工程和材料加工领域以及物理和合成化学领域的广泛学科的兴趣,因此我们努力对这些窄带隙纳米材料进行全面的综述。并吸引该地区的新移民。

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