1) LiCoO_2 target
LiCoO2靶材
1.
LiCoO_2 targets were prepared by hot pressing and cold pressing with sintering methods.
分别采用热压和冷压烧结法制备出LiCoO2靶材,其中热压法使用了不同材质的模具,冷压烧结法以环氧树脂为粘结剂,确定了粘接剂的最佳添加量为1。
2) LiCoO2 cathode material
LiCoO2正极材料
3) cathode materials LiCoO2
正极材料LiCoO2
4) lithium cobalt oxide
LiCoO2
1.
The properties and preparation methods of lithium cobalt oxide and lithium nickel oxide were introduced in detail.
对LiCoO2 和LiNiO2 的特点、合成方法进行了详细的介
2.
Some physical and chemical performances of lithium cobalt oxide cathode material and the relationship between them and lithium-ion battery were studied by using several techniques including laser diffraction, BET, XRD, SEM.
采用激光衍射 ,BET ,XRD ,SEM等方法 ,研究了系列LiCoO2 正极材料的一些物理化学性能及其与锂离子电池电压特性的关系 ,并对由 3种LiCoO2 样品制成的试验电池进行了电压特性和循环寿命的测试 ,得出了制备有良好电压特性的锂离子电池用LiCoO2 正极材料所应具备的性能 :XRD谱线中I0 0 3 /I10 4 的值较大 ,颗粒分布均匀无团聚 ,表面光滑平整。
5) LiCoO_2
LiCoO2
1.
The solid diffusion coefficient of lithium ion within insertion-host lithium ion battery of materials LiCoO_2 was determined by capacity intermittent titration technique(CITT) under different voltages.
采用容量间歇滴定技术在充放电仪上测定了不同电压条件下嵌入型锂离子电池正极材料LiCoO2中Li+的固相扩散系数。
2.
The LiCoO_2 cathode material was synthesized by liquid-phase soft-chemistry process and solid state reaction at higher temperature with different cobalt sources respectively, and characterized by XRD, BET, SEM, TEM, laser particle size distribution and electrochemical testing.
采用液相软化学合成法和高温固相反应法合成了LiCoO2 正极材料 ,并考察了不同钴源、添加剂氨水和乙醇对LiCoO2 正极材料的物理性质和电化学性能的影响 ,采用XRD、BET、SEM、TEM、粒度分布和电化学性能测试对合成LiCoO2 正极材料进行了表征。
3.
According to the technique problems on unstable electrochemical properties of LiCoO_2 produced by domestic materials substituted for imports,this article describes the effects of raw material Co_3O_4 with different micro-scope structure and properties for the final micro-scope structure,electrochemical characteristics of LiCoO_2 by SEM,XRD analysis and Li-ion cell approval method.
针对Co3O4 原料以国产替代进口后生产的钴酸锂 (LiCoO2 )电化学性能不稳的问题 ,采用SEM、XRD结构分析和实际锂离子电池评价LiCoO2 的性能 ,研究了Co3O4 原料的化学和物理性能及微观形貌对合成LiCoO2 产品的微观形貌、电化学性能的影响。
6) LiCoO 2
LiCoO2
1.
In order to investigate the effect of Mg, Al doping on the electronic structure of LiCoO 2, and to find the mechanism of high electronic conductivity in Mg-doped LiCoO 2, we have carried out first-principles calculations based on density-functional theory (DFT) for LiCoO 2, Li(Co, Al)O 2 and Li(Co, Mg)O 2 systems.
为了研究Mg ,Al掺杂对锂二次电池正极材料LiCoO2 体系的电子结构的影响 ,进而揭示Mg掺杂的LiCoO2 具有高电导率的机理 ,对Li(Co ,Al)O2 和Li(Co,Mg)O2 进行了基于密度泛函理论的第一原理研究 。
2.
Charge-discharge properties of LiMn 2O 4 and LiCoO 2 containing different amount of conduvtive polymer (PPY and PAN) has been studied.
采用物理掺杂法在锂离子二次电池正极材料LiMn2O4、LiCoO2 中掺杂少量的导电聚合物(聚吡咯PPY、聚苯胺PAN),考察复合材料作为锂离子二次电池正极材料的充放电性能。
补充资料：靶扫描和靶重建
靶扫描和靶重建
影像学术语。CT检查中，对扫描野(SFOV)中某一兴趣区扫描时行较大矩阵重建的方式称靶扫描。在扫描及影像重建完成后，对显示野(DFOV)中某一兴趣区重新进行较大矩阵重建成像的方式称靶重建。前者是直接利用扫描野中兴趣区的较大量的原始数据进行影像重建，后者则是利用常规扫描中采集的原始数据进行兴趣区的影像重建。两种技术实现的基本前提都是一次扫描所获得的投影测量数据必须能够满足兴趣区影像重建矩阵所需的信息量。靶扫描在扫描前预先设定兴趣区，成像后不储存非兴趣区原始数据；靶重建则需储存层面扫描所获得的全部原始数据，占用较多的磁盘空间，但以后可在图像中任选兴趣区进行局部重建。两种技术在成像效果(空间分辨率，对比分辨率)上是一致的，这与单纯的局部图像放大(zoom)不同。后者没有增加兴趣区内像素数量，虽使影像扩大但分辨率并未提高，清晰度反有下降。
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条