MU7386 Molybdenum Wire (Mo Wire) Mo 361

Molybdenum Wire (Mo Wire) Mo 361 Description

Molybdenum Wire (Mo Wire) Grade Mo 361 is recognised for its mechanical strength, high melting point, and thermal stability. Manufactured in accordance with ASTM B387, this wire demonstrates excellent corrosion resistance and reliable performance in demanding conditions. Its customised dimensions ensure a precise fit for various industrial uses, allowing you to tailor it to specific project requirements. With outstanding mechanical integrity, Mo 361 provides reliable operation even in extreme temperatures, making it a suitable choice for applications in the semiconductor, lighting, and aerospace sectors.

Each batch of Mo 361 wire undergoes stringent quality control measures to maintain tight dimensional tolerances and consistent purity levels. This dedication to quality standards ensures reliable performance over an extended service life, providing confidence that critical processes will run consistently and efficiently.

Molybdenum Wire (Mo Wire) Mo 361 Applications

Molybdenum wire (Mo Wire) Mo 361 is widely recognised for its mechanical strength, high melting point, and resistance to wear and corrosion. These properties make it a vital material in various industrial sectors, including electronics, chemical processing, and aerospace applications. Its versatility ensures reliable performance under extreme conditions, allowing for reduced maintenance and an extended operational life. Below are some of its most significant uses.

1. Electronics Applications

·         Filament Support Assemblies: Mo wire provides structural support in vacuum and display tubes, maintaining stability under high temperatures.

·         Semiconductor Equipment Components: Its excellent conductivity and dimensional stability make it suitable for devices in wafer fabrication and microchip production.

2. Chemical Processing Applications

·         Electrolysis Electrodes: With superior corrosion resistance, Mo wire efficiently handles aggressive chemicals in electrochemical systems.

·         Catalyst Support Structures: Its stability at elevated temperatures allows for prolonged catalyst life and enhanced reaction efficiency.

3. Aerospace Applications

·         High-Temperature Fasteners: Mo wire ensures secure and reliable joints for components operating in extreme heat environments.

·         Turbine Blade Reinforcements: Its strength helps maintain structural integrity in advanced propulsion systems.

Molybdenum Wire (Mo Wire) Mo 361 Packaging

Molybdenum Wire (Mo Wire) Mo 361 is packed with multiple layers of protective material, including acid-free paper and foam cushioning, to prevent mechanical damage. Each coil is vacuum-sealed to reduce environmental exposure and ensure optimal protection against corrosion. For extended storage, a desiccant is included to minimise moisture. Various spool sizes, wire lengths, and packaging configurations can be customised based on individual specifications and usage requirements.

Packaging: Vacuum sealed, Wooden Box, or Customised.

Molybdenum Wire (Mo Wire) Mo 361 FAQs

Q1: What are the key material properties of Molybdenum Wire (Mo Wire) Mo 361?

A1: Molybdenum Wire (Mo Wire) Mo 361 exhibits mechanical robustness, high-temperature stability, and thermal conductivity. With a melting point around 2,623°C (4,753°F), it resists deformation in extreme heat environments, making it suitable for applications in electronics and high-temperature furnaces. Its high purity, typically above 99.95%, ensures minimal contamination risk, while its good corrosion resistance provides reliable performance in demanding industrial processes.

Q2: How is Molybdenum Wire (Mo Wire) Mo 361 processed or fabricated?

A2: Molybdenum Wire (Mo Wire) Mo 361 is typically produced by powder metallurgy, starting with pressed and sintered molybdenum billets. These billets undergo hot rolling and subsequent cold drawing, which refines the grain structure and improves tensile strength. Intermediate annealing steps help relieve residual stresses and maintain dimensional consistency. The entire process requires precise atmospheric controls to prevent oxidation and ensure the wire’s consistent quality, surface finish, and mechanical properties.

Q3: Which quality standards and certifications apply to Molybdenum Wire (Mo Wire) Mo 361?

A3: Molybdenum Wire (Mo Wire) Mo 361 often complies with ASTM B387 for chemical composition and mechanical properties. Manufacturers may also adhere to ISO 9001 or AS9100 to ensure quality management processes. Standard testing and inspection protocols, including ultrasonic and eddy-current testing, may be applied to confirm internal integrity. Lot certifications document purity levels, dimensional tolerances, and compliance with specific customer or industry requirements.

Related Information

1. Quality Control Measures

Maintaining consistent levels of excellence is paramount for Molybdenum Wire (Mo Wire) Mo 361, particularly when the product is offered in customised dimensions. Through optical measurement systems, each wire is examined to confirm uniformity and adherence to tight tolerance requirements, ensuring optimal mechanical performance in high-stress applications.

Adhering to strict inspection protocols also involves verifying the chemical composition of Mo 361 wire through spectroscopic analysis. This additional step confirms that each spool of wire meets the stringent purity demands of industries, optimising reliability and durability even under extreme thermal or mechanical stress.

2. Applications in Advanced Industries

Aerospace and electronics sectors leverage the properties of Molybdenum Wire (Mo Wire) Mo 361 for precision components, filaments, and specialised connectors. Its resistance to elevated temperatures, combined with customisable dimensions, ensures reliable performance where mechanical stability and thermal conductivity are critical.

Contributing to innovation in medical devices, semiconductor platforms, and high-intensity lighting systems, Mo 361 wire delivers consistent results under demanding conditions. By offering a flexible solution, it enables advancements in technologies that rely on precise tolerances and stable material behaviour.