A preparation method of high-performance CO oxidation and NOX elimination oxygen storage material
An oxygen storage material, a high-performance technology, applied in chemical instruments and methods, metal/metal oxide/metal hydroxide catalysts, chemical/physical processes, etc., can solve microstructure instability, decreased oxygen storage capacity, easy Sintering specific surface area and other issues, to achieve low cost, short reaction cycle, good application effect
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0029] Weigh each reactant and prepare: Weigh 1.8964g of potassium permanganate solid in beaker X, and dissolve it in 40mL deionized water to obtain a 0.3mol / L potassium permanganate solution; weigh manganese nitrate and dissolve it in deionized water , forming a manganese nitrate solution with a mass concentration of 50%, for subsequent use; taking 5.6738g of citric acid monohydrate and dissolving it in deionized water to form a citric acid solution with a concentration of 3mol / L, for subsequent use; weighing 1.6216g of urea and dissolving it in In deionized water, forming concentration is the urea solution of 3mol / L, standby; The mol ratio between potassium permanganate, manganese nitrate, citric acid monohydrate, urea is potassium permanganate: manganese nitrate: citric acid monohydrate: urea =2:1:4.5:4.5.
[0030] Take by weighing 2.1474g above-mentioned standby manganese nitrate solution and above-mentioned standby whole citric acid solution (manganese nitrate: monohydrat...
Embodiment 2
[0032] Weigh each reactant and prepare: Weigh 1.8964g of potassium permanganate solid in beaker X, and dissolve it in 40mL deionized water to obtain a 0.3mol / L potassium permanganate solution; weigh manganese nitrate and dissolve it in deionized water , form a mass concentration of 50% manganese nitrate solution, for subsequent use; take 5.6738g of citric acid monohydrate and dissolve it in deionized water to form a citric acid solution with a concentration of 3mol / L, for subsequent use; weigh 0.0435g of nitric acid trihydrate Dissolve copper in deionized water to form a copper nitrate solution with a concentration of 3mol / L for subsequent use; weigh 1.6216 g of urea and dissolve it in deionized water to form a urea solution with a concentration of 3mol / L for subsequent use; potassium permanganate, nitric acid The mol ratio between manganese, citric acid monohydrate, and urea is potassium permanganate: manganese nitrate: citric acid monohydrate: urea=2:1:4.5:4.5.
[0033] Take...
Embodiment 3
[0035] Weigh each reactant and prepare: Weigh 1.8964g of potassium permanganate solid in beaker X, and dissolve it in 40mL deionized water to obtain a 0.3mol / L potassium permanganate solution; weigh manganese nitrate and dissolve it in deionized water , form a mass concentration of 50% manganese nitrate solution, for subsequent use; take 5.6738g of citric acid monohydrate and dissolve it in deionized water to form a citric acid solution with a concentration of 3mol / L, for subsequent use; weigh 0.2135g of nitric acid trihydrate Dissolve copper in deionized water to form a copper nitrate solution with a concentration of 3mol / L for subsequent use; weigh 1.6216 g of urea and dissolve it in deionized water to form a urea solution with a concentration of 3mol / L for subsequent use; potassium permanganate, nitric acid The mol ratio between manganese, citric acid monohydrate, and urea is potassium permanganate: manganese nitrate: citric acid monohydrate: urea=2:1:4.5:4.5.
[0036] Take...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 


