MU8049 Molybdenum Powder (Mo Metal Powder) -400 mesh

Molybdenum Powder (Mo Metal Powder) -400 mesh Description

Molybdenum Powder (Mo Metal Powder) -400 mesh is designed to deliver exceptional performance in demanding applications, thanks to its high melting point, impressive strength, and excellent corrosion resistance. With a particle size of -400 mesh and a purity of ≥99% (or customized upon request), this powder ensures reliable and consistent results for your critical processes. Its consistent particle distribution makes it suitable for powder metallurgy, additive manufacturing, and other advanced material applications where uniformity, strength, and stability are essential. Strict quality control measures underpin the production of our Molybdenum Powder, ensuring adherence to rigorous industry standards. These measures help maintain both purity and performance levels, making the powder a versatile choice for aerospace, electronics, and energy sectors. Whether you need an off-the-shelf option or a customized powder, count on our Molybdenum Powder to deliver the exceptional quality and consistency your projects demand.

Molybdenum Powder (Mo Metal Powder) -400 mesh Applications

Molybdenum powder (Mo metal powder), specifically in a -400 mesh form, is recognized for its exceptional high-temperature strength, corrosion resistance, and superior thermal conductivity. These properties make it suitable for demanding applications that range from intricate additive manufacturing projects to robust powder metallurgy and protective thermal spray coatings. The powder’s uniform particle size and purity further enhance its versatility, enabling consistent performance in various advanced production techniques.

1. Additive Manufacturing Applications

·         3D Printing: The fine, uniform Mo powder fosters precise layer-by-layer fabrication, delivering parts with complex geometries and excellent strength-to-weight ratios.

·         Selective Laser Melting: Mo powder’s high melting point and stability under intense heat make it ideal for producing dense, high-strength components.

·         Directed Energy Deposition: The powder’s consistent particle size distribution ensures reliable flowability, which supports accurate feeding and enhanced build quality.

2. Powder Metallurgy Applications

·         Metal Injection Molding: Mo powder’s fine particulates blend easily, resulting in complex shapes with excellent mechanical and thermal properties.

·         Hot Isostatic Pressing: Under high pressure and temperature, Mo powder consolidates into parts with near-net shape and superior density.

·         Powder Forging: The high-temperature strength of Mo powder enables forgings suited for extreme applications, ensuring minimal wear and extended lifespan.

3. Thermal Spray Applications

·         Plasma Spray Coatings: Mo powder’s thermal stability allows it to form dense, protective coatings on substrates, improving resistance against corrosion and wear.

·         HVOF Coatings: The powder’s combination of hardness and toughness produces high-performance coatings capable of withstanding harsh environments.

·         Wire Arc Spraying: Mo’s excellent electrical conductivity and high melting point support the formation of durable conductive coatings.

Molybdenum Powder (Mo Metal Powder) -400 mesh Packaging

Molybdenum Powder (Mo Metal Powder) -400 mesh is securely packaged in high-grade, sealed containers to safeguard purity. A vacuum environment and protective materials—including moisture barriers—reduce oxidation and contamination. Each batch is enclosed in anti-static bags with optional inert-gas purging for enhanced durability. Multiple packaging sizes are available to accommodate diverse requirements, ensuring customization for research laboratories or industrial applications.

Packaging: Vacuum sealed, Plastic Bottles, or Customized.

Molybdenum Powder (Mo Metal Powder) -400 mesh FAQs

Q1: What are the key material properties of Molybdenum Powder (Mo Metal Powder) -400 mesh?
A1: Molybdenum Powder (Mo Metal Powder) -400 mesh typically offers a purity exceeding 99%, a melting point of 2,623°C, and a low thermal expansion coefficient. The fine particle size distribution provides a large surface area, enhancing sinterability in powder metallurgy. Additionally, molybdenum’s high strength and creep resistance at elevated temperatures make it ideal for applications in aerospace, energy, and electronics, particularly where structural integrity and thermal stability are critical.
Q2: How can this Mo powder be processed or fabricated?
A2: Molybdenum powder can be processed using various techniques, such as powder pressing, injection molding, or additive manufacturing. Typically, the powder is compacted under high pressure, followed by sintering at temperatures above 1,500°C to achieve desired density and grain structure. In additive manufacturing, selective laser melting or electron beam melting can be utilized, providing customized shapes while preserving molybdenum’s high-temperature performance.
Q3: Which quality standards and certifications apply to Molybdenum Powder (Mo Metal Powder) -400 mesh?
A3: Molybdenum Powder (Mo Metal Powder) -400 mesh should conform to ASTM B365, which specifies requirements for chemical composition, particle size, and contamination levels. Quality control typically involves traceable certifications verifying purity, oxygen content, and other essential parameters. Manufacturers often maintain ISO 9001 certification for their quality management systems, ensuring consistent batch-to-batch performance. Additional testing, such as SEM analysis or ICP-OES, may be conducted to verify specific elemental composition and morphology.

Related Information

1. Raw Materials - Molybdenum Ore

Molybdenum is a valuable metal resource. It is primarily sourced from molybdenum ore, which is processed through various extraction methods. Stanford Advanced Materials sources high-grade materials from reliable suppliers, ensuring quality and consistency in our powder products.

2. Powder Production Methods

Several methods are used to produce Molybdenum powder, including Atomization. Each method results in different particle characteristics such as size distribution, shape, and surface properties. The production method is selected based on the intended application requirements.