Fluorine indium glass ceramic containing erbium ion doped strontium fluoride and yttrium fluoride mixed crystals, and preparation method thereof

A glass ceramic and mixed crystal technology is applied in the field of fluorindium indium glass ceramic and its preparation, which can solve the problems of difficult manipulation, complicated preparation and limitation, and achieve the effects of high-efficiency fluorescence emission, convenient operation and simple steps.

Active Publication Date: 2019-09-03
SHANGHAI INST OF OPTICS & FINE MECHANICS CHINESE ACAD OF SCI
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

However, the traditional glass-ceramic preparation is to obtain a glass matrix with a specific glass composition and design a specific temperature for heat treatment to make it grow crystal grains in the glass matrix (CN101085699). This method is complicated to prepare, difficult to manipulate, and devitrifies The process is difficult to control
Moreover, the rare earth doped glass ceramics currently studied are mainly limited to the fluorosilicate glass system

Method used

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  • Fluorine indium glass ceramic containing erbium ion doped strontium fluoride and yttrium fluoride mixed crystals, and preparation method thereof
  • Fluorine indium glass ceramic containing erbium ion doped strontium fluoride and yttrium fluoride mixed crystals, and preparation method thereof
  • Fluorine indium glass ceramic containing erbium ion doped strontium fluoride and yttrium fluoride mixed crystals, and preparation method thereof

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Experimental program
Comparison scheme
Effect test

Embodiment 1

[0018] Preparation of raw materials: 32InF by mole percentage 3 -28BaF 2 -22ZnF 2 -12SrF 2 -6YF 3 -1ErF 3 Weigh 20g of batch material, and weigh 13.3g of ammonium bifluoride according to the mass ratio of batch material to ammonium bifluoride 1.5.

[0019] Mixing of raw materials: Mix and grind the batch material and ammonium bifluoride in a ball mill for 20 minutes to powder.

[0020] Melting and quenching: put the mixture in a platinum crucible, melt it at 800°C for 0.5 hours to obtain a molten liquid, cast the molten liquid in a square groove of a brass mold, and cover the groove with a brass abrasive strip , to obtain Er with uniform thickness 3 + :SrF 2 -YF 3 Mixed crystal transparent thin plate fluorine indium glass ceramics.

[0021] Cutting and polishing: cut and polish according to requirements to make regular blocks containing Er 3+ :SrF 2 -YF 3 Mixed crystal transparent fluorine indium glass ceramics.

Embodiment 2

[0023] Preparation of raw materials: 32InF by mole percentage 3 -28BaF 2 -22ZnF 2 -12.7SrF 2 -5.3YF 3 -1ErF 3 Weigh 20g of the batch material, and weigh 13.3g of ammonium bifluoride according to the weight ratio m being 1.5.

[0024] Mixing of raw materials: Mix and grind the batch material and ammonium bifluoride in a ball mill for 30 minutes to powder.

[0025] Melting and quenching: put the mixture in a platinum crucible, melt it at 800°C for 0.6 hours to obtain a molten liquid, cast the molten liquid into a square groove in a brass mold, and cover the groove with a brass abrasive strip , to obtain Er with uniform thickness 3 + :SrF 2 -YF 3 Mixed crystal transparent thin plate fluorine indium glass ceramics.

[0026] Cutting and polishing: cut and polish according to requirements to make regular blocks containing Er 3+ :SrF 2 -YF 3 Mixed crystal transparent fluorine indium glass ceramics.

Embodiment 3

[0028] Preparation of raw materials: 30InF by mole percentage 3 -28BaF 2 -22ZnF 2 -14.1SrF 2 -5.9YF 3 -1ErF 3 Weigh 20g of the batch material, and weigh 13.3g of ammonium bifluoride according to the weight ratio m being 1.5.

[0029] Mixing of raw materials: Mix and grind the batch material and ammonium bifluoride in a ball mill for 40 minutes to powder.

[0030] Melting and quenching: the mixture is placed in a platinum crucible, melted at 810°C for 0.4 hours to obtain molten glass, which is cast in a square groove of a brass mold, and covered with a brass abrasive strip on the groove, Obtain Er-containing 3+ :SrF 2 -YF 3 Mixed crystal transparent thin plate fluorine indium glass ceramics.

[0031] Cutting and polishing: cut and polish according to requirements to make regular blocks containing Er 3+ :SrF 2 -YF 3 Mixed crystal transparent fluorine indium glass ceramics.

[0032] The rest of the implementation parameters are shown in the table below:

[0033] ...

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Abstract

The invention discloses fluorine indium glass ceramic containing Er<3+>:SrF2-YF3 mixed crystals, and a preparation method thereof. According to the preparation method, the glass ceramic is composed ofuniform distribution of Er<3+>:SrF2-YF3 mixed crystals in a fluorine indium glass body. The fluorine indium glass ceramic containing Er<3+>:SrF2-YF3 mixed crystals is capable of realizing high efficiency 2.7<mu>m fluorescence emission. One-step moulding method is adopted, the preparation process is convenient and safe, and no expensive equipment is needed.

Description

technical field [0001] The present invention relates to material preparation, especially a kind of Er containing 3+ :SrF 2 -YF 3 Mixed crystal fluorine indium glass ceramics and its preparation method. Background technique [0002] Mid-infrared solid-state lasers with a working band around 2.7 microns have attracted much attention because of their potential applications in remote sensing, air pollution monitoring, military and medical surgery. It is well known that the fluorescence emission of rare earth ions strongly depends on the phonon vibrations of the host material. At present, the research and development of mid-infrared emitting host materials has reached a bottleneck. [0003] Among them, crystal and fluoride glass are ideal host materials. Recently reported by Er 3+ Doped Y 3 Al 5 o 12 and YF 3 / YOF nanocrystals produce an effective emission of 2.7 μm, but the crystals cannot be prepared in large sizes and complex preparation processes, which severely lim...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): C03C10/16C03C4/12C03C6/06
CPCC03C1/00C03C4/12C03C10/16
Inventor 姜益光张龙飞张龙袁成凤王在洋李家成
Owner SHANGHAI INST OF OPTICS & FINE MECHANICS CHINESE ACAD OF SCI
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