FeCu-N-C DAC

FeCu-N-C DACProduct Details Name: FeCu N C DAC Product Overview Dual Atom Catalysts (DACs) is a catalyst with two metal atoms forming the active site. The concept was first derived from methane monooxygenases (MMOs) discovered in the 1970s. The synthesis method of diatomic catalysts mainly includes two bottom up (Bottom up) and top down (Top down) strategies. The bottom up strategy uses a carrier with a dual core metal center, including pyrolysis, dipping, atomic

Product Details

Name:FeCu-N-C DAC

Product Overview

Dual-Atom Catalysts (DACs) is a catalyst with two metal atoms forming the active site. The concept was first derived from methane monooxygenases (MMOs) discovered in the 1970s. The synthesis method of diatomic catalysts mainly includes two bottom-up (Bottom-up) and top-down (Top-down) strategies. The bottom-up strategy uses a carrier with a dual-core metal center, including pyrolysis, dipping, atomic layer deposition and ion exchange; the top-down method relies on the input energy to disperse the originally aggregated metal, such as ball grinding and atomic capture.

Technical Parameter

Product name:FeCu-N-C DAC

Diameter:0.2-4μm（TEM:/span>

Appearance:Black powder

C content:60-70wt%（XPS:/span>

N content:15-25wt%（XPS:/span>

Fe content:3-6wt%（XPS:/span>

Cu content:3-6wt%（XPS:/span>

Product characteristics

1)    High catalytic activity and selectivity: because to its special surface structure and electronic structure, can more effectively promote the chemical reaction, improve the catalytic efficiency. During catalysis, bimatom catalysts are able to reduce unnecessary side reactions and improve the selectivity of the target product, resulting in a purer product.

2)    Special catalytic surface and electronic structure: The special structure of the diatomic catalyst facilitates the interatomic interaction in the reaction, allowing the reaction to proceed efficiently under milder conditions. In bimatom catalysts, the interaction between two atoms can regulate the charge distribution of the catalyst and optimize the electronic structure, thus further improving the catalytic performance.

3)    Highly controllable: The catalytic site and electronic structure of diatomic catalysts can be accurately designed to meet the needs of a specific reaction. By adjusting the composition and structure of bimatom catalysts, it can be optimized and improved for specific reactions to improve the catalytic efficiency and stability.

4)    Low heat activity and heat resistance: Diatom catalysts have the ability to convert trace heat into effective chemical energy, producing only limited heat when changing the reaction conditions, thus allowing for a more efficient use of the chemical reaction conditions. The bimatom catalyst can stabilize the caloric state of the reaction, reduce the change of the reaction conditions, inhibit or inhibit the decomposition of the reaction, and ensure the stability and controllability of the reaction.

Application Fields

1）Hydrogen production by water oxidation: bimatom catalyst shows high catalytic activity and stability in water oxidation reaction, which is of great significance for promoting the development of hydrogen energy economy.

2）Fuel cell: In the electrode reaction of fuel cell, diatomic catalyst can improve the reaction efficiency, reduce energy consumption, and is one of the key materials to achieve efficient energy conversion.

3）Olefin hydrogenation reaction: Diatom catalyst shows excellent catalytic performance in the hydrogenation reaction of olefin, and can effectively control the selectivity and conversion rate of the reaction, which is of great significance for the synthesis of fine chemicals.

4）Biomedical: diatomic catalyst in the process of drug molecules in the synthesis of drugs, can catalyze the reaction of key steps, improve the synthesis efficiency and the purity of products, and reduce the production cost. Some diatomic catalysts have properties such as fluorescence or magnetic properties, which can be used in biomedical research fields such as cell imaging, providing new means for the diagnosis and treatment of diseases.

5）Environmental protection: In the field of air purification, diatatom catalysts can catalyze the decomposition of harmful gases in the air (such as NOx, VOCs, etc.), reduce the concentration of air pollutants and improve air quality. In the process of water treatment, diatomic catalysts can catalyze the degradation of organic pollutants and heavy metal ions and other harmful substances in the water, and improve the utilization efficiency and safety of water resources.

Related Information

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