User Guide for Factory Supply Ammonium Dimolybdate CAS 27546-07-2 With Low Price

Table of Contents

• 1. Basic Information and Parameters
• 2. Uses of Ammonium Dimolybdate
• 3. How to Use Ammonium Dimolybdate
• 4. Usage Case Studies
• 5. Contact Information

1. Basic Information and Parameters

Ammonium Dimolybdate, with the CAS number 27546-07-2, is a chemical compound that has gained significant attention in various industries. It is typically presented as a white or light yellow crystalline powder. The molecular formula of ammonium dimolybdate is (NH₄)₂Mo₂O₇, and its molecular weight is approximately 339.98 g/mol. This product is often produced through a series of chemical reactions and purification processes in a factory - scale setting, ensuring high - quality and stable supply at a low price.

It has good solubility in water and is relatively stable under normal storage conditions. The purity of the factory - supplied ammonium dimolybdate can usually reach over 99%, which meets the requirements of most industrial applications.

2. Uses of Ammonium Dimolybdate

Ammonium dimolybdate has a wide range of applications in different fields:

• Metallurgy Industry: It is used as an additive in the production of molybdenum - containing alloys. Adding ammonium dimolybdate can improve the strength, hardness, and corrosion resistance of alloys. For example, in the production of stainless steel, the addition of molybdenum can enhance its pitting corrosion resistance and high - temperature performance.
• Catalyst Industry: Ammonium dimolybdate can be used as a raw material for preparing catalysts. These catalysts are widely used in petrochemical processes, such as hydrodesulfurization and hydrodenitrogenation reactions, to remove sulfur and nitrogen compounds from petroleum products, improving the quality of fuels.
• Electronic Industry: In the production of electronic components, ammonium dimolybdate is used as a dopant or a coating material. It can improve the electrical conductivity and stability of electronic devices, enhancing their performance.

3. How to Use Ammonium Dimolybdate

When using ammonium dimolybdate, the following steps and precautions should be followed:

Storage: Store ammonium dimolybdate in a cool, dry, and well - ventilated place. Keep it away from sources of ignition and oxidizing agents. It should be stored in a sealed container to prevent moisture absorption and contamination.

Handling: Wear appropriate personal protective equipment, such as gloves and goggles, when handling ammonium dimolybdate. Avoid inhalation of dust and contact with skin and eyes. If contact occurs, immediately rinse with plenty of water and seek medical advice if necessary.

Usage in Alloys: When using it in alloy production, accurately weigh the required amount of ammonium dimolybdate according to the alloy formula. Add it to the molten metal and stir evenly to ensure uniform distribution in the alloy.

Usage in Catalyst Preparation: Dissolve ammonium dimolybdate in an appropriate solvent according to the catalyst preparation process. Then mix it with other components and carry out subsequent steps such as precipitation, calcination, and activation.

4. Usage Case Studies

Case 1: Alloy Production in an Automobile Parts Manufacturer

An automobile parts manufacturer needed to improve the quality of its engine components. They used ammonium dimolybdate as an additive in the production of a specific alloy for engine pistons. By adding an appropriate amount of ammonium dimolybdate, the strength and wear resistance of the alloy were significantly improved. The pistons made from this alloy showed better performance in high - temperature and high - pressure environments, reducing the failure rate and extending the service life of the engine components. The factory - supplied ammonium dimolybdate at a low price also helped the manufacturer control costs.

Case 2: Petrochemical Catalyst Application

A petrochemical company was facing challenges in meeting the strict sulfur content requirements for its gasoline products. They used ammonium dimolybdate to prepare a hydrodesulfurization catalyst. The catalyst showed high activity and selectivity in removing sulfur compounds from gasoline. After using the new catalyst, the sulfur content in the gasoline was reduced to a very low level, meeting the market and