1)  phosphor string
磷光带
2)  phosphorescence band
磷光带
3)  Phosphorescence
磷光
1.
Room Temperature Phosphorescence of Aqueous Solution of Copolymer of N-Vinylcarbazole and Acrylic Acid;
含咔唑高分子水溶液的室温磷光
2.
Progress of Research Based on Organic Electrophosphorescence;
有机磷光电致发光的研究进展
3.
Electrophosphorescence and Improvement of Quantum Efficiency in Organic EL;
电致磷光及其有机EL的量子效率提高
4)  phosphorescent light
磷光
5)  phosphorescent
发磷光的;磷光质
6)  phosphorescent complex
磷光配体
7)  phosphor
磷光体
1.
Study on Preparation of Ca_xSr_(1-x) Al_2O_4∶Eu~(2+) Phosphor and their Properties;
Ca_xSr_(1-x)Al_2O_4∶Eu~(2+)磷光体的制备及性能研究
2.
Research、Application and Development of Alkaline earth Aluminates Phosphors Activated by Eu 2+;
碱土铝酸盐掺二价铕离子磷光体的研究、应用和发展
3.
A study on luminescence of Mg doped SrAl_2O_4:Eu phosphor;
掺镁的铝酸锶铕磷光体的发光特性
8)  Room Temperature Phosphorescence
室温磷光
1.
Study on the Room Temperature Phosphorescence of Protein;
蛋白质的室温磷光法研究
2.
Room Temperature Phosphorescence of Carbaryl Induced by β-Cyclodextrin in the Presence of Heavy Atom Perturbation;
重原子存在下β-环糊精诱导西维因室温磷光
3.
Study for Paper Substrate Room Temperature Phosphorescence of Methyl Xanthine Derivative;
黄嘌呤甲基衍生物滤纸基质室温磷光光谱研究
9)  phosphorescent material
磷光材料
1.
During the past two decades, the triplet exciton states of electrophosphorescent materials are not fully utilized.
综述了近几年金属有机电致磷光材料的研究进展,重点评述了金属铱配合物在分子设计上的研究进展,同时论述了其发光机理和掺杂剂材料以及器件制作的研究进展,展望了金属有机配合物电致磷光材料的发展前景,并提出了今后磷光材料的发展方向。
10)  phosphors
磷光体
1.
The brightness of long decay phosphors composed of rare-earth activator depends on the components of the raw material and temperature of fire.
以稀土为激活剂的长余辉磷光体 ,它的余辉亮度主要受原材料配比和煅烧温度的影响。
2.
Ba doped SrAl 2O 4:Eu and Dy doped SrAl 2O 4:Eu phosphors have been synthesised rapidly at 500~900℃ by combustion procedure.
用燃烧法在 60 0℃合成了铝酸锶铕磷光体和掺 Ba2 + 、Dy3+ 杂质阳离子的铝酸锶铕磷光体 ,实验结果表明 ,掺 Dy3+离子的磷光体具有更长的余辉发光时间 ,并对发光材料与长余辉发光材料的发光特性进行了讨
3.
Using a combustion procedure and following stoichiometry,the phosphors nSrO.
讨论Sr2+含量、助熔剂浓度及磷含量对磷光体发光性能的影响,并测定4SrO·7Al2O3:Eu2+的发射光谱、激发光谱、X-射线衍射光谱、粒度分布及比表面积。
补充资料:磷光
      见固体发光。
  

说明:补充资料仅用于学习参考,请勿用于其它任何用途。
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