脉冲等子体软X射线探测系统

研制了一种脉冲重复频率为１０Ｈｚ的激光等离子体软Ｘ射线源；设计并建立了以掠入射恒偏单色仪为基础的脉冲等离子体软Ｘ射线辐射测试系统。光源实验使用能量１０００ｍＪ（波长０．５３μｍ）的激光脉冲，聚焦在不同的金属靶上，使之离子化。这种高温等离子体产生的辐射包含了波长０．４～２０ｎｍ的软Ｘ光连续谱和迭加在其上的线谱。靶材有Ｍｇ、Ａｌ、Ｔｉ、Ｆｅ、Ｃｕ、Ｚｎ、Ｓｎ、Ｐｂ和Ｂｉ。得到了不同原子序数的靶材辐射的光谱分布特性。     

激光诱导等离子体中电子密度随时间演化的实验研究

通过测定激光等离子体中镁原子和离子谱线Ｓｔａｒｋ展宽的时间演化特性．得到了激光诱导等离子体中电子密度的时间演化行为及其机理。     

高功率激光焊接光致等离子体的检测

系统地归纳了高功率激光焊接过程中光致等离子体的声、光、电、热等四种特征信号，综述了国外在等离子体信号检测方面的试验方法及研究进展，分析了未来的发展趋势     

Plasma Discharge Initiation of Explosives in Rock Blasting Application： A Case Study

A plasma discharge initiation system for the explosive volumetric combustion charge was designed, investigated and developed for practical application. Laboratory scale experiments were carried out before conducting the large scale field tests. The resultant explosions gave rise to less noise, insignificant seismic vibrations and good specific explosive consumption for rock blasting. Importantly, the technique was found to be safe and environmentally friendly.     

ICAP-AES等离子体发射光谱法测定氧化铁粉的杂质元素

介绍了ICP等离子体光谱仪的原理及测定高纯氧化铁中铝、钙、硫、钾、镁、锰、钠和钛等8种杂质元素的分析方法，考察了样品的溶解方案及工作曲线的选择，确定了仪器最佳工作条件和方法检出限。     

Microwave plasma synthesis of TiN and ZrN nanopowders

This work demonstrates that TiN and ZrN nanopowders can be prepared by microwave plasma synthesis method. The effects of flow rate of plasma forming gas, flow rate of carrier gas and feeding rate of precursor raw material to the average particle size were studied. The TiN and ZrN nanopowders were characterized by means of transmission electron microscopy (TEM) and X-ray diffraction (XRD).     

低温等离子体对血管内金属支架的表面改性

生物材料用于人体必须要具备生物相容性。尤其是与血液相接触的材料如血管内支架必须要具备血液相容性。材料的表面特性直接影响血液系统中是否会出现血栓。本文针对金属血管内支架的表面特性、与血液的界面反应以及用于提高血液相容性的低温等离子表面改性进行了简要综述     

掺硼非晶硅薄膜的微结构和电学性能研究

以硅烷(SiH4)和硼烷(B2H6)为气相反应先驱体，采用等离子体增强化学气相沉积法，(PECVD)制备出能应用于液晶光阀光导层的硼掺杂非晶氢硅薄膜。X射线衍射、原子力显微镜和光、暗电导测试表明，一定程度的硼掺杂提高了非晶氢硅薄膜的电导率、降低了非晶氢硅薄膜的光、暗电导比；硼掺杂促进薄膜晶态率的增加和硅晶粒尺寸的增大，薄膜的结晶状态将逐渐从非晶硅过渡到纳米硅，最后发展为多晶硅。红外吸收谱研究表明了大量的硼原子与硅、氢原子之间能形成某些形式的复合体，仅有少量硼元素对受主掺杂有贡献。     

Preparation of Ultra—fine Aluminum Nitride in Thermal Plasma

Ultra-fine aluminum nitride has been synthesized by the evaporation of aluminum powder at atmospheric-pressure nitrogen plasma in a hot-wall reactor.The average size of aluminum nitride particle is 0.11μm measured by scanning electric mirror(SEM),and the purity is at least over90% evaluated by X-Ray diffraction(XRD).The conversion of Al powder to aluminum nitride is strongly depended on the injection of NH3.Typical experimental parameters such as the feed rate of raw material,the flow rate of ammonia and the position of injecting aluminum powder into the reactor are given.