硝酸锂

LiTi2（PO4）3在硝酸锂水溶液中的电极过程动力学

Kinetics of Electrode Processes of LiTi_2 ( PO_4 ) _3 in Lithium Nitrate aqueous Solution

以硝酸锂、硝酸锰为原料，柠檬酸作为络合剂，采用溶胶凝胶法获得前驱体，然后将前驱体在空气气氛中焙烧制备了纳米LiMn2O4。

Nano-LiMn_2O_4 spinel oxides has been prepared successfully by roasting precursor in the air atmosphere , while precursor was obtained by sol-gel techniques , with lithium nitrate and manganese nitrate as original material and citric acid as complexant .

吸收式制冷用氨-硝酸锂工质对及循环系统的研究

The study of Ammonia - Lithium Nitrate Mixtures and absorption refrigeration cycle

氨&硝酸锂吸收式制冷机性能的计算机模拟研究

The Simulation of the Lithium-ammonia Nitrate Absorbing and Refrigerating System by Computer Program

硝酸锂吸收法耗最低，为1078.0kW；

The least in absorption separation by lithium nitrate ;

本文采用涂钼热解石墨管，硝酸锂作基体改进剂，石墨炉原子吸收法测定了用新合成路线合成的1-脱氧野尻毒素中钯催化剂残留量。

A new method for the determination of trace palladium in 1-deoxynojirimycin synthesized by new means .

建立了涂钼石墨管硝酸锂作基体改进剂测定铍的新方法，提高了灰化温度，降低了原子化温度，增强了抗干扰能力。

A new method using molybdenum coated graphite tube with lithium nitrate as matrix modifier was established .

对硝酸锂吸收法分离氨，余热的最小适宜温度为80℃左右，此时消耗的余热量最低；

The feasible temperature is 80 ℃ in absorption separation by lithium nitrate , and the quantity of heat is least at this temperature ;

比较了水溴化锂硝酸锂三元工质与传统的水溴化锂工质的单、双效吸收式制冷循环，分析了发生温度、冷凝温度和蒸发温度对系统性能的影响；

The water-lithium bromide-lithium nitrate absorption refrigeration cycle is compared with the traditional water-lithium bromide system . The effect of generating temperature , condensing temperature and evaporating temperature on system performance is analyzed .

为克服这种缺陷，提出了一种新的吸收制冷系统，分别以水-溴化锂和氨-硝酸锂作为二个系统的工质，将二系统耦合组成双制冷温度双工质系统。

A new absorption refrigeration system was presented for overcoming the shortcoming . Two systems respectively with water-lithium bromide and ammonia-lithium nitrate as working pair were coupled in a system with double-chilling temperature and double-working pair .

研究了原料的配比和焙烧温度对合成材料性能的影响，实验选择硝酸锂、醋酸锰和柠檬酸的摩尔比为1：2：3作为实验的原料配比，500～550℃为配位化合物前驱体的最佳焙烧温度。

The ratios of primary materials and calcining temperature were studied systematically . The ratios of lithium nitrate , manganese acetate and citric acid are 1:2:3 , and the optimum calcining temperature is 500 ~ 550 ℃ .

以La3+作为钙的释放剂，以硝酸钾作为锂的消电离剂。

La ~ ( 3 + ) was as releasing agent for calcium and KNO_3 was served as the deionization agent for lithium .

研究了其萃取Pr（Ⅲ）的性能，考察了硝酸浓度、萃取剂浓度、硝酸锂浓度以及温度等对萃取分配比的影响。

The extractive capability for praseodymium (ⅲ) was studied . The effect of concentrations of nitric acid , extractant , LiNO_ ( 3 ) and the temperature on the extraction distribution ratios was investigated in detail .