metallic lithium

It is conventionally difficult to obtain metallic lithium with ultra low Na/ K content, to which the molten salt extraction is therefore suggested as a pioneer process to remove Na/ K and relevant experiments.

针对传统锂工业中很难得到低钠和钾的金属锂，首次提出了溶盐萃取法，并进行了萃取过程的热力学分析和探索性实验研究。

All-solid-state thin film batteries, comprised of LiCoO_ 2 cathode films with different structures, lithium phosphorous oxynitride electrolyte film and metallic lithium anode film, was successfully prepared and their properties were examined by chronopotentiometry.

以具有不同结构的LiCoO2薄膜为阴极、含氮磷酸锂薄膜为电解质以及金属锂薄膜为阳极，成功地制备了电化学性能不同的全固态薄膜锂电池。

Also pointed out that China is rich in lithium resources, but the production of metallic lithium starts quite late and most of the products ′ purity is under 99.0%.

指出中国的锂资源极为丰富，但金属锂生产起步较晚，产品大部分是纯度

This paper introduces present situation of comprehensive development and utilization of Qinghai salt lake resources, especially the technologies for producing potash fertilizer, magnesium, lithium salts and metallic lithium from Qinghai salt lake resources, and also expounds the dynamic equilibrium in utilization of salt lake resources

介绍了青海盐湖资源综合开发利用情况，主要是利用盐湖资源生产钾肥、冶炼金属镁、生产锂盐及金属锂的工艺及研究现状，阐述了盐湖资源利用的动态平衡关系

The primary battery is composed of manganese dioxide used as a positive pole, metallic lithium uses as a negative electrode and organic electrolyte solution.

该产品以二氧化锰为正极，金属锂为负极，及有机电解质溶液组成。

Furthermore, the experimental results also revealed that the molten salt extraction an effective way to remove Na and K, especially the K from metallic lithium, which is basically in conformity to the thermodynamic analysis.

探索性实验结果表明，熔盐萃取法可除去金属锂中的钠和钾，尤其是除钾效果比较明显，这与热力学分析结果基本吻合。

Comparative Analysis of Productive Technology for Metallic Lithium

金属锂提取工艺比较分析

Metallic lithium and its compounds have bright prospects in the fields of energy sources and new materials. In the new century, it will be a new approach to recover lithium from salt lake brines for the industry of lithium salts.

金属锂及其化合物在能源和新材料方面具有重大应用前景，盐湖卤水提锂将成为21世纪锂盐生产的主攻方向。

Although, commercially available LIB adopting carbon or graphite as anode instead of metallic lithium still possess potential threats against safety.

然而，采用碳材料或石墨为负极材料的商业用锂离子电池，长久以来一直存在着潜在的安全隐患。

The Reductive Reaction of Metallic Lithium Caused Aromatic Aldehyde Affected by Supersonic Wave

超声波作用下金属锂诱发的芳香醛的还原偶联反应

Thermodynamic Analysis of Effective Na/ K Removal from Metallic Lithium by Molten Salt Extraction

熔盐萃取法深度除去金属锂中钠和钾的热力学分析

The results showed that metallic nickel particles in nano-size were acquired from deoxidizing the NiO electrode by metallic lithium, illuminating that the ECM way is feasible to synthesize the metallic nickel particles.

研究结果表明，商品NiO粉在锂电池中被金属锂还原的产物，得到了纳米尺度的金属Ni，说明这种电化学研磨合成具有磁性的金属Ni的纳米颗粒方法是可行的。

In recent years, the China ′ s consumption demand increased in the speed of 25%. Therefore, metallic lithium is facing a good market opportunity.

近几年，中国金属锂的消费需求将以每年25%的速度增长，金属锂面临着良好的市场机遇。

The cathode thin film of Ag 0.5V 2O 5 was fabricated using pulsed laser deposition ( PLD), and the metallic lithium anode thin film was prepared via vacuum thermal evaporation.

以脉冲激光沉积法（PLD）制备的非晶态Ag05V2O5薄膜为阴极，真空热蒸发法制备的金属锂为阳极，LiPON薄膜为电解质，成功地制备了一个新的Li/LiPON/Ag05V2O5全固态薄膜锂电池。