Method for preparing solid electrolyte with lead wire and electrode
A solid electrolyte and electrode technology, applied in the field of solid electrolyte preparation, can solve the problems of large thickness and poor mechanical strength of solid electrolyte, and achieve the effect of strong bonding force and high mechanical strength
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[0021] The preparation method of the solid electrolyte with wires and electrodes of the present invention comprises the following steps:
[0022] 1] Wrap the carbon fiber paper 2 on the mold 1 with a smoothness less than 0.8, and fix the carbon fiber paper 2 on both ends of the mold 1;
[0023] 2] Fix a wire 5 on the carbon fiber paper 2 in step 1];
[0024] 3) On the carbon fiber paper 2 in step 2], a magnetron sputtering process is used to sputter an electrode material with high temperature resistance and alkali metal corrosion resistance to obtain a porous film electrode 3;
[0025] 4] Spraying the solid electrolyte material on the electrode 3 prepared in step 3] using a plasma spraying process to obtain a solid electrolyte 4;
[0026] 5] Remove the mold 1 and the carbon fiber paper 2 to obtain a solid electrolyte with wires and electrodes.
[0027] The material of the mold is graphite, ceramics or refractory metals and their alloys. The mold is in the shape of a stick. ...
Embodiment 1
[0031] Embodiment 1: Wrap carbon fiber paper with a thickness of 0.15-0.35 mm on a graphite rod with a diameter of 5 mm, and fix it at both ends. A molybdenum wire was placed on the carbon fiber paper as an electrode wire, and then a TiN layer with a thickness of 5 μm and a porosity of 28% was prepared by sputtering on the carbon fiber paper using a magnetron sputtering process. And then on the TiN layer by plasma spraying (the powder is Na-β″-Al 2 o 3 powder) to prepare dense Na-β″-Al with a thickness of 0.2mm 2 o 3 layer. The integrated TiN / Na-β″-Al is obtained by removing the graphite rod and carbon fiber paper 2 o 3 Tube. This embodiment can be used in sodium sulfur batteries, alkali metal thermoelectric converters and sodium sensors, among others.
Embodiment 2
[0032] Embodiment 2: Wrap carbon fiber paper with a thickness of 0.15-0.35 mm on a graphite rod with a diameter of 4.5 mm, and fix it at both ends. A molybdenum wire was placed on the carbon fiber paper as an electrode wire, and then a TiN layer with a thickness of 5 μm and a porosity of 29% was obtained by sputtering on the carbon fiber paper 2 using a magnetron sputtering process. Then on the TiN layer by plasma spraying (raw material ratio: Li 2 O: 0.69%~0.85%, Na 2 O: 8.80% ~ 9.40%, the rest is α-Al 2 o 3 ) to produce β″-Al 2 o 3 The phase content is close to 100%, the thickness is 0.3mm, dense Na-β″-Al 2 o 3 layer. The integrated TiN / Na-β″-Al is obtained by removing the graphite rod and carbon fiber paper 2 o 3 Tube. This embodiment can be used in sodium sulfur batteries, alkali metal thermoelectric converters and sodium sensors, among others.
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Abstract
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