微波水热法,microwave-hydrothermal method
1)microwave-hydrothermal method微波水热法
1.99))_2BO_3(OH) was synthesized by microwave-hydrothermal method.本文报道了微波水热法生长晶体硼酸锌镉(CZBO)的研究,合成出新物质(Cd0。
2.Cubic phase ZrO_28%(in mole)Y_2O_3 nano-powders were prepared in basic media by the microwave-hydrothermal method,with Zr(OH)_4 and Y(OH)_3 co-precipitated from ZrO(NO_3)_2·2H_2O and Y(NO_3)_3·6H_2O solutions as the precursors.以Zr(OH)4和Y(OH)3的共沉淀为前驱体,在碱性介质中用微波水热法合成摩尔分数为8%的氧化钇稳定氧化锆(yttria stabilized cu-bic zirconia,YSZ)纳米粉体。
3.The microwave-hydrothermal method is an energy-saving one,while the resulted powder is fine.微波水热法节省能源,可以制备较细粉体。
英文短句/例句

1.Microwave-assisted Hydrothermal Synthesis and Doping of Microwave Dielectric Ceramics in ZnO-TiO_2 SystemZnO-TiO_2系微波介质陶瓷的微波水热法合成及掺杂
2.Preparation and Characterization of Nanocrystals γ-AlOOH via Microwave Hydrothermal Methodγ-AlOOH纳米晶的微波水热法制备及表征
3.Bi and Eu-codoped Y_2O_3 Phosphor Prepared by Microwave Hydrothermal Processing and Its Luminescent Properties微波水热法制备铋铕共掺杂氧化钇磷光粉
4.Hydrothermal and Microwave Hydrothermal Synthesis of Tungsten Oxide Nanopowders with Controllable Morphology;水热与微波水热法合成形貌可控纳米氧化钨粉体
5.Water-insoluble matters in salt products are determined with microwave heating method.用微波加热法测定盐产品中水不溶物含量。
6.A Study on Determining Content Crystal Water of CuSO4 with Microwave Drying;微波加热干燥法用于硫酸铜中结晶水的测定
7.Preparation of Magnesium Hydroxide Whisker by Glycerol-Frequency Conversion Microwave-Hydrothermal Process丙三醇-变频微波-水热法制备氢氧化镁晶须
8.Research of On-line Measurement Method of Water in coal Based on Microwave Heating原煤含水量微波加热在线检测方法研究
9.Hydrothermal & Microwave Synthesis of Morphology Controlled Nanoscale Functional Ceramic Powders;水热与微波辅助法合成形貌可控的纳米功能陶瓷粉体
10.Butanol-frequency Microwave-hydrothermal Synthesis and Characterization of High-quality Hydrous Magnesium Oxysulfate Whiskers丁醇-变频微波-水热法制备优质碱式硫酸镁晶须及表征
11.Study on Ba-Ti-based Microwave Dielectric Ceramics by Hydrothermal Synthesis;水热合成Ba-Ti基微波介质陶瓷的研究
12.Single-Mode Microwave-Hydrothermal Controlling Synthesis of PbS Nanocrystals单模微波水热控制合成PbS纳米晶
13.Progress in Technology of Focus Microwave Energy in Hyperthermia微波热疗辐射器聚束方法的研究进展
14.Microwave assisted chemical vapor infiltration to prepare carbon/carbon composites微波热解CVI法制备C/C复合材料
15.Preparation of Perovskite-type SrFeO_3 Photocatalyst Material by Microwave Heating Method微波加热法制备SrFeO_3光催化材料的研究
16.Preparation of Perovskite-type SrNiO_3 Photocatalyst Material by Microwave Heating Method微波加热法制备CaNiO_3光催化材料的研究
17.Methods The flecture strength, hardness and shrinkage were compared in using microwave-cured and water bath-cured denture base resins.方法采用微波能和水浴两种方法加热固化义齿基托树脂,进行挠曲强度、度和收缩率的对比分析。
18.Determination of moisture in coal--Microwave drying methodGB/T15334-1994煤的水分测定方法微波干燥法
相关短句/例句

Microwave hydrothermal method微波水热法
1.MnZn ferrite nanopowders were prepared by microwave hydrothermal method.采用微波水热法合成了锰锌铁氧体纳米粉体,通过XRD、TGA-DTA和TEM等分析手段,对粉体进行了表征。
2.Ultrafine silica powder was prepared by microwave hydrothermal method using TEOS as raw material and ammonia as catalyzer.以正硅酸乙酯为原料、氨水为催化剂,采用微波水热法制备白色SiO2超微粉体材料。
3.The Fe3O4 nano-particles were prepared by microwave hydrothermal method, and the surface of Fe3O4 was treated with oleic acid, so the Fe3O4 nano-particles coated with oleic acid was obtained.采用微波水热法制备纳米Fe3O4,并用油酸对其进行表面改性,获得油酸包覆的Fe3O4纳米粒子。
3)microwave hydrothermal微波水热法
1.Sm3+ doped TiO2 nanopowders were prepared from tetra-n-butyl titanate and samarium compounds at 170 ℃ for 35 min by microwave hydrothermal processing.采用微波水热法,以钛酸丁酯和氯化钐为原料,在冰醋酸催化作用下,制备出钐掺杂二氧化钛粉体。
4)microwave-hydrothermal method微波-水热法
1.Magnesium hydroxide whisker synthesis via organic solvent microwave-hydrothermal method;有机溶剂-微波-水热法制备氢氧化镁晶须
5)single-mode microwave-hydrothermal synthesis单模微波水热法
6)microwave-hydrothermal微波水热
1.4TiO3(BST) nanopowders are successfully synthesized by microwave-hydrothermal (MH) method.采用微波水热法成功合成了钛酸锶钡(Ba0。
2.5)TiO_3(BST) nanopowders were prepared by microwave-hydrothermal method.采用微波水热法合成了纳米晶钛酸锶钡(Ba0。
延伸阅读

晶体生长水热法分子式:CAS号:性质:在高温、高压水溶液中进行化学合成的一种方法。水热法不仅可以用于制备分子筛类的化合物,而且可以用来生长无机固体材料晶体。水的临界温度和压力分别为374℃和22MPa。在高温和高压下,水的离子积很大;例如在600℃和202.65MPa时,水的离子积是常温常压时的105倍。这意味着许多在通常条件下不溶于水的物质,在高温高压下可以溶于水。如果使体系产生一定的温度梯度,由于在不同温度下材料的溶解度不同,使材料晶体结晶出来。水热法生长晶体要在耐高压和高温的反应釜中进行。工业上应用水热法生长大尺寸的石英晶体。在生长晶体时,常在水中加入一定量的碱或酸,调节溶液的酸度,以调整材料在水中的溶解度。