1)  MoSi2 matrix composites
二硅化钼基复合材料
2)  molybdenum disilicide
二硅化钼
1.
Two important routes currently being used to improve molybdenum disilicide mechanical property and oxidation are the alloying approach and the doping approach.
介绍了二硅化钼合金化及掺杂改性的研究进展,对几种重要合金化元素和掺杂元素改性的二硅化钼材料进行了评述,并在此基础上提出了高性能二硅化钼材料研究开发的重点和方向。
3)  MoSi2
二硅化钼
1.
Self-propagating high temperature synthesis (SHS)is regarded as an effective technique for producing MoSi2 and MoSi2 based composites due to its low cost, quick reaction speed and high transformation rate.
自蔓延高温合成技术因具有低成本、反应速度快和转化率高等许多优点,成为制备二硅化钼基材料的有效方法。
2.
Various processes of the Mo/Si thin films deposited on Si (001) substrates by RF magnetron sputtering technique were carefully investigated and the MoSi2 thin film with the single tetragonal phase and low resistivity was successfully prepared.
用射频磁控溅射法在硅基底上成功制备出具有低电阻率的单一四方相二硅化钼薄膜,并通过X射线衍射仪、原子力显微镜及四探针电阻测试仪对退火前后的薄膜样品进行了结构和电学性能分析。
4)  MoSi_2
二硅化钼
1.
Progress in the Strengthening and Toughing of MoSi_2 through Composite Approach;
二硅化钼材料复合强韧化的研究进展
2.
Improvement of the Mechanical Properties and Application Ability of MoSi_2 Heating Element;
二硅化钼发热体力学性能的改进及其应用
3.
Application Prospects of MoSi_2 and MoSi_2 Matrix Composites;
二硅化钼及其复合材料的应用及展望
5)  molybdenum-disilicide
二硅化钼
1.
Effect of carbon upon mechanical properties of molybdenum-disilicide composites;
碳对二硅化钼复合材料性能的影响
6)  MoSi 2
二硅化钼
1.
A kind of technology which can improve the mechanical properties and high temperature plasticity of MoSi 2 heating element was introduced by means of synthesis of MoSi 2,size of powder, additive and sintering.
从二硅化钼合成、粉料粒度、添加剂选择、烧结工艺等方面研究提高二硅化钼发热体的力学性能和高温塑性。
2.
Development of MoSi 2 and application state were discussed,the developing future and market for MoSi 2 products were analysed,and the propose for developing MoSi 2 materials in China was raised.
综述了二硅化钼技术进展及其应用状况，对二硅化钼产品开发前景和市场作了分析，提出我国发展二硅化钼材料的建议。
参考词条
补充资料：硅化钼陶瓷
分子式：
CAS号：

性质：钼的硅化物为主要成分的陶瓷。硅-钼系统存在硅化三钼、三硅化五钼和二硅化钼，主要为二硅化钼(MoSi2)。硅化钼陶瓷为灰色、有金属光泽的晶体，具有优良的高温抗氧化性能。良好的电性能和抗热震性能。较高的导热系数。高温下与熔融金属钠、锂、铅、铋、锡不起作用。可用作冶炼上述钠、锂等金属的坩埚、原子反应堆装置的热交换器、高温氧化气氛中的发热元件，以及用于制造超音速飞机、火箭、导弹上的某些零部件。

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