Magnesium Yttrium Master Alloy | MgY30 ingots | manufacturer

Short Description:

Magnesium Yttrium Master Alloy is a casting alloy used as an additive for magnesium alloy material processing.

Y content we can supply: 20%, 25%, 30%, 60%, 85%, customized

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Product Detail

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Product Description

Brief introduction

Product Name: Magnesium Yttrium Master Alloy
Other Name: MgY alloy ingot
Y content we can supply: 20%, 25%, 30%, 60%, 85%, customized
Shape: irregular lumps
Package: 50kg/drum, or as you required

Yttrium can be used as additive in magnesium alloy. Therefore, the Mg-Y master alloy can not only reduce the oxidation loss and cost, but also has the advantages of convenient storage and transportation, simple operation, pollution-free, stable composition and reliable quality. Magnesium yttrium alloy has low specific gravity (no more than 1.9g / cm3) and high strength, so it is widely used in aerospace industry to improve the heat resistance, corrosion resistance and high temperature strength of magnesium alloy.

Specification

Name		MgY-20Y	MgY-25Y	MgY-30Y
Molecular formula		MgY20	MgY25	MgY30
RE	wt%	20±2	25±2	30±2
Y/RE	wt%	≥99.9	≥99.9	≥99.9
Si	wt%	<0.03	<0.03	<0.03
Fe	wt%	<0.05	<0.05	<0.05
Al	wt%	<0.03	<0.03	<0.03
Cu	wt%	<0.01	<0.01	<0.01
Ni	wt%	<0.01	<0.01	<0.01
Mg	wt%	Balance	Balance	Balance

Application

1. Aerospace and Aviation:
- Lightweight Structural Components: Magnesium-Yttrium alloys are used in the aerospace industry to manufacture lightweight structural components such as airframes, landing gear parts, and other critical components. The combination of low density and high strength makes these alloys ideal for reducing the overall weight of aircraft, thereby improving fuel efficiency and performance.
- High-Temperature Applications: The addition of yttrium enhances the high-temperature stability of magnesium alloys, making them suitable for use in components that operate under high thermal stresses, such as engine casings and heat shields.

2. Automotive Industry:
- Engine and Transmission Components: In the automotive industry, Magnesium-Yttrium alloys are used to produce lightweight engine and transmission components. The improved mechanical properties and heat resistance of these alloys make them ideal for applications where weight reduction is critical for improving vehicle fuel efficiency and performance.
- Electric Vehicles (EVs): As the automotive industry shifts towards electric vehicles, Magnesium-Yttrium alloys are being considered for use in battery enclosures, structural components, and other parts that benefit from weight reduction and improved thermal management.

3. Electronics and Electrical Engineering:
- Heat Dissipation Components: The good thermal conductivity and stability of Magnesium-Yttrium alloys make them suitable for use in electronic components that require effective heat dissipation, such as heat sinks, electronic housings, and cooling systems in high-performance electronic devices.
- Lightweight Casings: Magnesium-Yttrium alloys are used to manufacture lightweight casings for electronic devices like laptops, smartphones, and tablets, where reducing weight without compromising strength is essential.

4. Medical Devices:
- Biocompatible Implants: Magnesium-Yttrium alloys are being researched for their potential use in biodegradable medical implants. These alloys can be designed to gradually degrade in the body, eliminating the need for secondary surgeries to remove implants. They are used in bone screws, plates, and stents that provide temporary support and then safely dissolve.
- Orthopedic Applications: Due to their lightweight and biocompatible nature, Magnesium-Yttrium alloys are suitable for use in orthopedic implants and devices that support bone healing and regeneration.

5. Defense and Military Applications:
- Lightweight Armor and Protective Gear: Magnesium-Yttrium alloys are used in the defense sector to produce lightweight armor and protective gear for military personnel and vehicles. The combination of low density and high strength provides effective protection while minimizing the weight carried by soldiers or added to military vehicles.
- Ammunition Casings: These alloys are also considered for use in lightweight ammunition casings, where reducing the weight of munitions can enhance the mobility and logistics of military operations.

6. Space Exploration:
- Spacecraft Components: The aerospace-grade properties of Magnesium-Yttrium alloys make them suitable for use in spacecraft components that require high strength, lightweight, and resistance to the harsh conditions of space, including extreme temperatures and radiation exposure.

7. Marine Applications:
- Corrosion-Resistant Components: The addition of yttrium improves the corrosion resistance of magnesium alloys, making Magnesium-Yttrium alloys suitable for use in marine applications where materials are exposed to saltwater and other corrosive environments. They are used in components like ship hulls, marine fasteners, and offshore structures.

8. Nuclear Industry:
- Radiation-Resistant Materials: Magnesium-Yttrium alloys are considered for use in nuclear applications due to their resistance to radiation damage and their ability to maintain structural integrity under exposure to high levels of radiation. They can be used in components within nuclear reactors and other facilities where radiation exposure is a concern.

9. Sporting Goods:
- High-Performance Sports Equipment: The lightweight and high-strength properties of Magnesium-Yttrium alloys make them suitable for use in high-performance sports equipment, such as bicycle frames, golf clubs, and tennis rackets. These alloys help reduce the weight of sports gear, enhancing performance and usability.

10. Advanced Manufacturing and Research:
- 3D Printing: Magnesium-Yttrium alloys are being explored in additive manufacturing (3D printing) for the production of lightweight, high-strength components with complex geometries. The ability to print with these advanced materials opens up new possibilities in the design and manufacturing of custom parts for aerospace, automotive, and medical applications.
- Material Science Research: These alloys are also the subject of ongoing research in material science, where their unique properties are being studied to develop new materials with tailored characteristics for specific applications.