Chinese Journal of Applied Chemistry ›› 2022, Vol. 39 ›› Issue (6): 900-911.DOI: 10.19894/j.issn.1000-0518.210183
• Review • Previous Articles Next Articles
Mei-Lun ZHANG, Hong-Ran LING, Zai-Chun SUN, Bing-Chu MEI, Wei-Wei LI(
)
Received:2021-04-12
Accepted:2021-08-30
Published:2022-06-01
Online:2022-06-27
Contact:
Wei-Wei LI
About author:leeww0229@163.comSupported by:CLC Number:
Mei-Lun ZHANG, Hong-Ran LING, Zai-Chun SUN, Bing-Chu MEI, Wei-Wei LI. Research Progress on the Preparation Methods of BaMgF4 Powders[J]. Chinese Journal of Applied Chemistry, 2022, 39(6): 900-911.
Add to citation manager EndNote|Ris|BibTeX
URL: http://yyhx.ciac.jl.cn/EN/10.19894/j.issn.1000-0518.210183
Fig.1 （a） Unit cell representation of the crystal structure of BaMgF4， 3-dimensional crystal structure of BaMgF4， （b） representing MgF6 octahedral zigzag chains along a-axis and （c）trapped Ba ions in between the void of two parallel MgF6 octahedral zigzag chains along c-axis［5］
Fig.2 SEM images of （A） undoped and （B） doped BaMgF4 powders synthesized by hydrothermal method［15］
Fig.3 SEM image of （a） undoped and （b，c） doped BaMgF4 powders synthesized by hydrothermal method； （d） EDS pattern of undoped BaMgF4 powders［17］
Fig.4 TEM image of BaMgF4 nanoparticles［15］
Fig.5 Nanorods synthesized by reverse microemulsion method aggregated into “mustache” clusters observed at different magnifications［24］
Fig.6 A photograph of 240 μm PMMA/BaMgF4 nanoparticle film on a 1 mm thick glass slide showing the transparency［24］
Fig.7 （a） Low （left） and high （right） resolution SEM images of BaMgF4 micro-rods， （b） combined elemental mapping of the BaMgF4 host［5］
Fig.8 SEM images of BaMgF4 powders at different magnifications［30］
方法 Methods | 优点 Advantages | 缺点 Disadvantages | 应用前景 Application prospects |
|---|---|---|---|
高温固相法 High temperature solid state method | 工艺成本低、产量大、过程简单 Low process cost， high output， simple procdure | 粉体粒径偏大，还会残留BaF2和MgF2等杂质 Large particle size， and remaining impurities such as BaF2 and MgF2 | - |
机械球磨法 Mechanical milling method | 能够制备非平衡材料，效率高 Ability to prepare non?equilibrium materials， high efficiency | 产物整体的结晶度较低，容易引入金属杂质 Low overall crystallinity， and remaining metal impurities | - |
水热法 Hydrothermal method | 产品物相均匀，纯度高，结晶良好， 反应条件可控 Homogeneous phase， high purity， good crystallization， and controllable reaction conditions | 操作方法复杂，实验条件要求高，颗粒易长大 Complicated operation method， high experimental conditions， and the particles are easy to grow up | |
溶剂热法 Solvothermal method | 利用有机溶剂可以有效控制颗粒的 尺寸和团聚程度 The organic solvents can be used to effectively control the size and degree of agglomeration of particles | 颗粒粒径不均匀，很难彻底除去产物中 残留的有机溶剂 Non?uniform particle size， and it is difficult to remove the residual organic solvent completely | - |
溶胶?凝胶法 Sol?gel method | 工艺流程简单，粉体粒度均匀 Simple preparation process flow， uniform grain size | 反应所需时间较长，原料为金属有机物时难以除净 Long reaction time， and it is difficult to remove the metal organic materials completely. | 可用来制备薄膜等 功能性材料 Preparing functional materials such as films |
反相微乳液法 Reversed?phase microemulsion method | 可控制合成颗粒的大小，产物粒度 分布窄，有利于连续工业化生产 Controllable particle size， narrow size distribution， and continuous industrial production | 成本高，易引入其它杂质元素 High process cost， other impurity elements can be introduced easily | 可用于光学聚合物 薄膜的开发 Development of optical polymer films |
共沉淀法 Coprecipitation method | 纯度高，杂质少，工艺流程简单， 成本低 High purity， less impurities， simple process flow and low process cost | 颗粒容易生长或聚集，导致粉体整体粒径 偏大或发生严重的团聚 The particles are easy to grow up or agglomerate， causing the overall particle size to be too large or generating serious agglomeration | - |
Table 1 Characteristics and application prospects of preparation methods of BaMgF4 powders
方法 Methods | 优点 Advantages | 缺点 Disadvantages | 应用前景 Application prospects |
|---|---|---|---|
高温固相法 High temperature solid state method | 工艺成本低、产量大、过程简单 Low process cost， high output， simple procdure | 粉体粒径偏大，还会残留BaF2和MgF2等杂质 Large particle size， and remaining impurities such as BaF2 and MgF2 | - |
机械球磨法 Mechanical milling method | 能够制备非平衡材料，效率高 Ability to prepare non?equilibrium materials， high efficiency | 产物整体的结晶度较低，容易引入金属杂质 Low overall crystallinity， and remaining metal impurities | - |
水热法 Hydrothermal method | 产品物相均匀，纯度高，结晶良好， 反应条件可控 Homogeneous phase， high purity， good crystallization， and controllable reaction conditions | 操作方法复杂，实验条件要求高，颗粒易长大 Complicated operation method， high experimental conditions， and the particles are easy to grow up | |
溶剂热法 Solvothermal method | 利用有机溶剂可以有效控制颗粒的 尺寸和团聚程度 The organic solvents can be used to effectively control the size and degree of agglomeration of particles | 颗粒粒径不均匀，很难彻底除去产物中 残留的有机溶剂 Non?uniform particle size， and it is difficult to remove the residual organic solvent completely | - |
溶胶?凝胶法 Sol?gel method | 工艺流程简单，粉体粒度均匀 Simple preparation process flow， uniform grain size | 反应所需时间较长，原料为金属有机物时难以除净 Long reaction time， and it is difficult to remove the metal organic materials completely. | 可用来制备薄膜等 功能性材料 Preparing functional materials such as films |
反相微乳液法 Reversed?phase microemulsion method | 可控制合成颗粒的大小，产物粒度 分布窄，有利于连续工业化生产 Controllable particle size， narrow size distribution， and continuous industrial production | 成本高，易引入其它杂质元素 High process cost， other impurity elements can be introduced easily | 可用于光学聚合物 薄膜的开发 Development of optical polymer films |
共沉淀法 Coprecipitation method | 纯度高，杂质少，工艺流程简单， 成本低 High purity， less impurities， simple process flow and low process cost | 颗粒容易生长或聚集，导致粉体整体粒径 偏大或发生严重的团聚 The particles are easy to grow up or agglomerate， causing the overall particle size to be too large or generating serious agglomeration | - |
| 1 | EIBSCHUTZ M， GUGGENHEIM H J. Antiferromagnetic-piezoelectric crystals： BaMF4 （M=Mn，Fe，Co and Ni）［J］. Solid State Commun， 1968， 6（10）： 737-739. |
| 2 | EIBSCHUTZ M， GUGGENHEIM H J， WEMPLE S H， et al. Ferroelectricity in BaMF4［J］. Phys Lett A， 1969， 29（7）： 409-410. |
| 3 | 吴昊滢. BaMgF4材料的制备及其倍频研究［D］. 上海： 上海交通大学， 2019. |
| WU H Y. Research of synthesis and second harmonic generation of BaMgF4［D］. Shanghai： Shanghai Jiao Tong University， 2019. | |
| 4 | KORE B P， KUMAR A， ERASMUS L， et al. Energy transfer mechanisms and optical thermometry of BaMgF4∶Yb3+，Er3+ phosphor［J］. Inorg Chem， 2018， 57（1）： 288-299. |
| 5 | KORE B P， TAMBOLI S， DHOBLE N S， et al. Efficient resonance energy transfer study from Ce3+ to Tb3+ in BaMgF4［J］. Mater Chem Phys， 2017， 187： 233-244. |
| 6 | 盛天琦. 基于能量传递的稀土掺杂微纳米发光材料的制备及其发光特性研究［D］. 长春：吉林大学物理学院， 2013. |
| SHENG T Q. Researches on synthesis and luminescence of rare earth ions doped micro/nano luminescent materials based on energy transfer［D］. Changchun： Jilin University， 2013. | |
| 7 | 刘行仁， 石士考， 吴渊. BaMgF4中Gd3+的光谱以及Gd3+和Tb3+离子之间的能量传递［J］. 发光学报， 1990， 11（4）： 277-285. |
| LIU X R， SHI S K， WU Y. Spectra of Gd3+ ion and energy transfer between Gd3+ and Tb3+ ions in barium magnesium fluorides［J］. Chinese J Lumin， 1990， 11（4）： 277-285. | |
| 8 | QUILTY J W， EDGAR A， SCHIERNING G. Photostimulated luminescence and thermoluminescence in europium-doped barium magnesium fluoride［J］. Curr Appl Phys， 2008， 8（3/4）： 420-424. |
| 9 | 刘银， 王静， 张明旭， 等. 机械球磨法制备纳米材料的研究进展［J］. 材料导报， 2003， 17（7）： 20-22， 29. |
| LIU Y， WANG J， ZHANG M X， et al. Research and development of mechanical attrition method in nanostructural materials［J］. Mater Rep， 2003， 17（7）： 20-22， 29. | |
| 10 | PREISHUBER-PFLUGL F， WILKENING M. Evidence of low dimensional ion transport in mech-anosynthesized nanocrystalline BaMgF4［J］. Dalton Trans， 2014， 43（26）： 9901-9908. |
| 11 | SCHOLZ G， BREITFELD S， KRAHL T， et al. Mechanochemical synthesis of MgF2-MF2 composite systems （M=Ca，Sr，Ba）［J］. Solid State Sci， 2015， 50： 32-41. |
| 12 | DARR J A， ZHANG J Y， MAKWANA N M， et al. Continuous hydrothermal synthesis of inorganic nanoparticles： applications and future directions［J］. Chem Rev， 2017， 117（17）： 11125-11238. |
| 13 | 黄丰， 郑伟， 王梦晔， 等. 氧化锌单晶生长、载流子调控与应用研究进展［J］. 人工晶体学报， 2021， 50（2）： 209-243. |
| HUANG F， ZHENG W， WANG M Y， et al. Development of zinc oxide： bulk crystal growth， arbitrary regulation of carrier concentration and practical applications［J］. J Synth Cryst， 2021， 50（2）： 209-243. | |
| 14 | KIM S W， CHANG H Y， HALASYAMANI P S. Selective Pure-phase synthesis of the multiferroic BaMF4 （M=Mg，Mn，Co，Ni， and Zn） family［J］. J Am Chem Soc， 2010， 132（50）： 17684-17685. |
| 15 | YAN Z Y， YAN B， JIA L P. Novel kinds of down/up-conversion luminescent rare earth doped fluoride BaMgF4∶RE3+ microcrystals［J］. Mater Res Bull， 2013， 48（10）： 4402-4405. |
| 16 | 刘忠坤. 等离子体共振效应对掺杂纳米多铁氟化物材料的发光性质的影响［D］. 沈阳： 辽宁大学， 2015. |
| LIU Z K. Effect of plasmon-enhancement on luminescent properties of doped multiferroic fluoride nanoparticles［D］. Shenyang： Liaoning University， 2015. | |
| 17 | XIA W P， ZHANG Y F， XIONG J， et al. Facile synthesis， morphology and tunable photoluminescence properties of BaMgF4∶Ce3+/Tb3+/Eu3+phosphors［J］. Cryst Eng Comm， 2019， 21（2）： 339-347. |
| 18 | YIN J W， WANG J， MA Y B， et al. Recent advances in the controlled synthesis and catalytic applications of two-dimensional rhodium nanomaterials［J］. ACS Mater Lett， 2021， 3（1）： 121-133 |
| 19 | 任秀秀， 赵省向， 韩仲熙， 等. 纳米复合含能材料的制备方法、复合体系及其性能的研究进展［J］. 材料导报， 2019， 33（23）： 3939-3948. |
| REN X X， ZHAO X X， HAN Z X， et al. Research progress on preparation methods， composite system and its property of nano-composite energetic materials［J］. Mater Rev， 2019， 33（23）： 3939-3948. | |
| 20 | AHMOUM H， LI G J，PIAO Y J， et al. Ab-initio， Monte Carlo and experimental investigation on structural，electronic and magnetic properties of Zn1- xNixO nanoparticles prepared via sol-gel method［J］. J Alloys Compd， 2021， 854： 157142. |
| 21 | FUJIHARA S， ONO S， KISHIKI Y， et al. Sol-gel synthesis of inorganic complex fluorides using trifluoroacetic acid［J］. J Fluorine Chem， 2000， 105（1）： 65-70. |
| 22 | 刘贤哲， 张旭， 陶洪， 等. 溶胶-凝胶法制备氧化锡基薄膜及薄膜晶体管的研究进展［J］. 物理学报， 2020， 69（22）： 248-263. |
| LIU X Z， ZHANG X， TAO H， et al. Research progress of tin oxide-based thin films and thin-film transistors prepared by sol-gel method［J］. Acta Phys Sin， 2020， 69（22）： 248-263. | |
| 23 | 周富荣， 左海山， 陈少锋， 等. 反相微乳法制备单分散纳米二氧化硅［J］. 江汉大学学报（自然科学版）， 2006， 34（2）： 27-30. |
| ZHOU F R， ZUO H S， CHEN S F， et al. Preparation of monodisperse nanosize silica in reverse micelle microemulsion［J］. J Jianghan Univ （Nat Sci）， 2006， 34（2）： 27-30. | |
| 24 | JANSSENS S， WILLIAMS G V M， CLARKE D. Synthesis and characterization of rare earth and transition metal doped BaMgF4 nanoparticles［J］. J Lumin， 2013， 134： 277-283. |
| 25 | YANG S H， LEE H Y， TSENG P C， et al. Photoelectric properties of Sr2MgSi2O7：Eu2+ phosphors produced by co-precipitation method［J］. J Lumin， 2021， 231： 117787. |
| 26 | BELEARE P D， JOSHI C P， MOHARIL S V， et al. One step synthesis of complex fluoride powders for solid-state lasers［J］. J Alloys Compd， 2008， 464（1/2）： 296-300. |
| 27 | KORE B P， KUMAR A， PANDEY A， et al. Spectroscopic investigation of up-conversion properties in green emitting BaMgF4∶Yb3+，Tb3+ phosphor［J］. Inorg Chem， 2017， 56（9）： 4996-5005. |
| 28 | KORE B P， KUMAR A， ERASMUS L， et al. Energy transfer mechanisms and optical thermometry of BaMgF4∶Yb3+，Er3+ phosphor［J］. Inorg Chem， 2018， 57（1）： 288-299. |
| 29 | KORE B P， KUMAR A， KROON R E， et al. Origin of visible and near IR upconversion in Yb3+-Tm3+-Er3+ doped BaMgF4 phosphor through energy transfer and cross-relaxation processes［J］. Opt Mater， 2020， 99. |
| 30 | 潘成龙， 刘红利， 郭芸， 等. BaMgF4∶Er3+，Yb3+上转换纳米晶的合成及其发光性能研究［J］. 物理学报， 2014， 63（15）： 210-214. |
| PAN C L， LIU H L， GUO Y， et al. Synthesis and upconversion luminescent properties of BaMgF4∶Er3+，Yb3+ nanocrystals［J］. Acta Phys Sin， 2014， 63（15）： 210-214. |
| [1] | Jia-Cheng ZHOU, Dong-Dong WANG, Yun-Bao GAO, Jing JIN, Wei JIANG. Rheological Properties and Bonding Properties of Modified Poly（Propylene Carbonate） Pressure-sensitive Adhesive [J]. Chinese Journal of Applied Chemistry, 2023, 40(6): 871-878. |
| [2] | Yu-Zhu CHEN, Si-Si LIU, Meng-Meng ZHANG, Xiang-De LIN, Dong-Dong ZENG. Polyurethane Dressing Based on Antibacterial Chitosan/Carboxymethyl Cellulose Composite Drug Coating [J]. Chinese Journal of Applied Chemistry, 2023, 40(2): 252-260. |
| [3] | Yu-Hua XIONG, Lei ZHOU, Shi-Zhong YANG, Bo-Zhong MU. Enzymatic Properties and Gel Breaking Performance of Low-temperature β-Mannanase [J]. Chinese Journal of Applied Chemistry, 2023, 40(1): 134-145. |
| [4] | Jin LIN, Fang-Zhu WANG, Ling-Ling LYU. Preparation of Pseudo-boehamite from Industrial Materials and Its Application in Selective Hydrogenation of Isophorone [J]. Chinese Journal of Applied Chemistry, 2023, 40(1): 79-90. |
| [5] | Xian WANG, Xiao-Long YANG, Rong-Peng MA, Chang-Peng LIU, Jun-Jie GE, Wei XING. Atomic Dispersion Ir‑N‑C Catalysts for Anode Anti‑poisoning Electrolysis in Fuel Cell [J]. Chinese Journal of Applied Chemistry, 2022, 39(8): 1202-1208. |
| [6] | Dan ZHANG, Fang LIU, Xue YANG, Dong-Hua XU, Tong-Fei SHI. Relationship Between Hardness and Impact Properties of Thermoplastic Polyurethane Blends [J]. Chinese Journal of Applied Chemistry, 2022, 39(8): 1216-1223. |
| [7] | Jing-Wan LIU, Qiong LI, Tao ZHANG, En-Peng WANG, Huan WANG, Xue CHEN, Chang-Bao CHEN. Research Progress on the Continuous Cropping Obstacles of Ginseng from Soil Improvement [J]. Chinese Journal of Applied Chemistry, 2022, 39(12): 1818-1832. |
| [8] | Yong-Xin TANG, Li-Wu NIE. Effect of Epoxy Resin Content on the Performance of Luminous Resin Permeable Concrete [J]. Chinese Journal of Applied Chemistry, 2022, 39(11): 1665-1671. |
| [9] | Li-Jun WU, Shou-Jie GUO, Chao ZHANG, Zhi-Sheng LI, Wei-Cong LI, Chang-Chun YANG. In⁃situ Electrochemical Preparation of Li⁃Na Alloy and the Co⁃storage of Li+ and Na+ Ions [J]. Chinese Journal of Applied Chemistry, 2022, 39(11): 1757-1765. |
| [10] | Dan MENG, Kai-Yuan ZHENG, Shan-Shan CHEN, Zhao-Long ZHUO, Li-Li WANG. Preparation and Luminescence Properties of Silicon and Nitrogen Co⁃doped Carbon Dots Phosphors [J]. Chinese Journal of Applied Chemistry, 2022, 39(11): 1766-1773. |
| [11] | Yu-Fang SHI, Ying-Jin WANG, Jin-Yu SUN, Ming-Gen ZHAO. Synthesis, Characterization, Photothermal Properties of Dichalcone Containing Polymethoxy Aromatic Group [J]. Chinese Journal of Applied Chemistry, 2022, 39(02): 235-240. |
| [12] | Chun-Mei ZHAO, Xiu-Miao ZHOU, Xi-Xi JIN, Yu-Hang WANG, Yi-Jing DANG. Preparation of Saddle-Shaped Cyclooctatetrathiophene-Based Hybrid Nanomaterials and Fluorescence Properties [J]. Chinese Journal of Applied Chemistry, 2022, 39(02): 283-288. |
| [13] | JI Quan-Zeng, MENG Jun-Ling , WANG Hao-Cong , AN Tao , LIU Xiao-Juan, MENG Jian. Phase Transformation of La2CuO4 Cathode Film and Its Influence on Electrochemical Properties [J]. Chinese Journal of Applied Chemistry, 2021, 38(8): 976-985. |
| [14] | JI Quan-Zeng, MENG Jun-Ling , WANG Hao-Cong , AN Tao , LIU Xiao-Juan, MENG Jian. Phase Transformation of La2CuO4 Cathode Film and Its Influence on Electrochemical Properties [J]. Chinese Journal of Applied Chemistry, 2021, 38(8): 0-0. |
| [15] | XU Feng, ZHANG Kun, YIN Feng-Qin, XU Fei, PANG Yu-Xuan, CHEN Shi-Ting. Research Progress in Preparation and Application of Anion Imprinted Polymers [J]. Chinese Journal of Applied Chemistry, 2021, 38(2): 123-135. |
| Viewed | ||||||
|
Full text |
|
|||||
|
Abstract |
|
|||||
