研究纳米结构物体场致发射的电子能谱仪

Vyacheslav B. Bondarenko, Sergey N. Davydov, Pavel G. Gabdullin, Nikolay M. Gnuchev, Andrey V. Maslevtsov, Anton A. Arkhipov
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引用次数: 1

摘要

设计了一种新型的电子能谱仪,用于研究纳米孔碳、纳米管、纳米金刚石等纳米结构的低压场致发射。估计该装置的高分辨能力主要是通过使用高能量色散的原始能量分析仪和将电子束在能量方面延迟几十倍和几百倍来实现的。分析仪通过能量决定了光谱仪的绝对能量分辨率ΔЕ;ΔЕ值大约在10 meV <范围内变化;ΔЕ < 300 meV。有三种不同的工作模式,适用于大可变电流的发射。仍能进行能量分析的最小发射电流约为0.1 nA。以热发射极为测试对象,对光谱仪的工作模式进行了实验测试。研究证明,记录的光谱反映了发生在发射器表面的物理现象。
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Electron spectrometer for studying field-induced emission from nanostructured objects

A novel electron spectrometer has been designed to study low-voltage field-induced emission of nanostructures such as nanoporous carbon, nanotubes, nanodiamond and other carbon structures. The estimated high resolving power of the device is mainly achieved by using an original energy analyzer of high energy dispersion and by retarding the electron beam by the factor of tens and hundreds in terms of energy. The analyzer pass energy governs the absolute energy resolution ΔЕ of the spectrometer; ΔЕ value varies approximately in the range of 10 meV < ΔЕ < 300 meV. There are three different working modes adapted for emission of widely variable current. The minimal emission current at which energy analysis is still possible is approximately 0.1 nA. The spectrometer working modes were tested experimentally using a thermoemitter as the test object. The study then proved that the recorded spectra reflected physical phenomena taking place on the emitter surface.

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