A kind of nanoporous nickel/nickel oxide supercapacitor electrode material and preparation method thereof
A nanoporous nickel and supercapacitor technology, applied in hybrid capacitor electrodes, hybrid/electric double layer capacitor manufacturing, hybrid capacitor current collectors, etc., can solve the problem of poor electrochemical performance, difficulty in regulating nickel oxide, and no obvious crystals in nickel oxide structure and other issues, to achieve the effect of saving energy and labor, good combination and good dispersion
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0042] The first step is to prepare the precursor alloy
[0043] According to target alloy Ni 45 (Ti 0.35 Zr 0.45 al 0.20 ) 55 The atomic percentage of each element in the formula is obtained by weighing 8.635g of pure Ni particles with a mass fraction of 99.9wt.%, 3.013g of pure Ti rods, 7.382g of pure Zr rods, and 0.970g of pure Al sheets to obtain 20g of master alloy raw materials, and then The mixed metal raw materials are placed in a vacuum electric arc furnace, and 20g of pure titanium with a purity of 99.9wt.% is independently placed in a vacuum electric arc furnace without contact with the master alloy raw material, and is smelted as a deoxidizing material; under the protection of argon, repeat Melt the master alloy 4 times, about 40 seconds each time, to ensure the uniformity of the alloy structure; after the smelting is completed, cool to room temperature with the furnace to obtain Ni 45 (Ti 0.35 Zr 0.45 al 0.20 ) 55 Alloy ingot (master alloy).
[0044] Rem...
Embodiment 2
[0056] The first step is to prepare the precursor alloy
[0057] According to target alloy Ni 42.5 (Ti 0.35 Zr 0.45 al 0.20 ) 57.5 Atomic percentage of each element in the formula, take by weighing 8.140g of pure Ni particles, 3.144g of pure Ti rods, 7.703g of pure Zr rods, and 1.103g of pure Al flakes with a mass fraction of 99.9wt.% to obtain 20g of the master alloy raw material, and then The mixed metal raw materials are placed in a vacuum electric arc furnace, and 20g of pure titanium with a purity of 99.9wt.% is independently placed in a vacuum electric arc furnace without contact with the master alloy raw material, and is smelted as a deoxidizing material; under the protection of argon, repeat Melt the master alloy 4 times, about 40 seconds each time, to ensure the uniformity of the alloy structure; after the smelting is completed, cool to room temperature with the furnace to obtain Ni 42.5 (Ti 0.35 Zr 0.45 al 0.20 ) 57.5 Alloy ingot (master alloy).
[0058] Re...
Embodiment 3
[0065] The first step is to prepare the precursor alloy
[0066] According to the Ni in the target alloy 40 (Ti 0.35 Zr 0.45 Al 0.20 ) 60 Atomic percentages of each element, weighed 7.647g of pure Ni pellets, 3.275g of pure Ti rods, 8.023g of pure Zr rods, and 1.055g of pure Al flakes with a mass fraction of 99.9wt.% were mixed to obtain 20g of master alloy raw materials, and then the mixed Good metal raw materials are placed in a vacuum electric arc furnace, and 20g of pure titanium with a purity of 99.9wt.% is independently placed in a vacuum electric arc furnace without contact with the master alloy raw material, and is used as a scavenging material for smelting; under the protection of argon, repeated smelting 4 master alloys, about 40 seconds each time, to ensure the uniformity of the alloy structure; after the smelting is completed, it is cooled to room temperature with the furnace to obtain Ni 40 (Ti 0.35 Zr 0.45 Al 0.20 ) 60 Alloy ingot (master alloy).
[006...
PUM
| Property | Measurement | Unit |
|---|---|---|
| length | aaaaa | aaaaa |
| diameter | aaaaa | aaaaa |
Abstract
Description
Claims
Application Information
Login to View More 


