Vanadium Powder (Spherical and Irregular nanopowder)
Princeton Powder is a major supplier of low oxygen level vanadium metal powder, offering particle sizes ranging from nano size to microns powder. Our spherical Vanadium powders have a high purity and good sphericity. They are mainly manufactured via Atomization processes (such as gas atomization, water atomization, and plasma atomization) and Plasma Rotating Electrode Process.
Vanadium spherical powder is used in various applications, including powder metallurgy, thermal spray processes, and additive manufacturing (3D printing). We provide a wide range of Vanadium products including Vanadium Carbide Powder, Vanadium Nitride Powder, Vanadium Boride (VB2) Powder, and Vanadium disilicide powder . Our Vanadium micron and nano powder is for sale at a competitive price in the USA.
Formula | Vanadium, V |
CAS Number | 7440-62-2 |
Purity | 99.7% min |
Synonyms | Vanadium nano powder, Vanadium spherical powder, Vanadium meta powder, Vanadium microns powder |
Particle Sizes | 325 mesh, nano particles, or be customized |
Appearance | Black Color |
Melting Point | 1910°C |
Apparent Density | >3.75 g/cm3 |
Tap Density | >4.83 g/cm3 |
Description of Vanadium Metal Powder
Vanadium powder, valued for its high strength, thermal stability, and unique alloying properties, is ideal for applications in aerospace, energy storage, and advanced manufacturing. The spherical form and consistent particle size offer superior flowability and packing density, making it essential for powder metallurgy, 3D printing, and high-performance manufacturing processes, particularly in vanadium alloys and energy systems.
Vanadium nanopowder, with its high surface area, enhances reactivity and effectiveness in catalysis and energy storage, particularly in vanadium redox flow batteries and hydrogen storage. The nano-sized particles also improve sintering behavior, optimizing production of high-density components across sectors such as aerospace, automotive, and renewable energy storage.
Chemical Composition of Spherical Vanadium Powder
Component Analysis | |||||
Item | Test Result | Unit | Item | Test Result | Unit |
V | ≥99.7 | % | Fe | 0.016 | % |
Si | 0.018 | % | Al | 0.028 | % |
O | <0.05 | % | N | <0.03 | % |
Density | Hall Flow Rate | |||
Apparent Density | Tap Density | Unit | Value | Unit |
≥3.75 | ≥4.83 | g/cm³ | ≤22 | s/50g |
Particle Size distribution of Vanadium Powder
0-15 μm, 15-53 μm, 45-105 μm, 45-150 μm Spherical Vanadium Powder and Irregular Vanadium nano composite are available (Various sizes can be customized)
Application of Spherical Vanadium Powder
Additive Manufacturing (3D Printing): Used as a key material in metal 3D printing for aerospace and medical components due to its high strength-to-weight ratio and good mechanical properties.
Alloying Agent: Employed in producing high-strength alloys, particularly in titanium and steel alloys, where vanadium enhances hardness, toughness, and wear resistance.
Battery Materials: Used in vanadium redox flow batteries (VRFBs) for large-scale energy storage systems due to vanadium’s stability and energy density.
Thermal Spray Coatings: Utilized in thermal spray technology to create wear-resistant coatings on industrial equipment and tools, improving their durability and lifespan.
Catalysts: Spherical vanadium powder serves as a catalyst in chemical reactions, particularly in producing sulfuric acid and in certain petrochemical processes.
Spherical Vanadium Powder Scholar Articles
Spheroidization of Pure-vanadium Powder using Radio Frequency Thermal Plasma Process
In the present work, spheroidization of angular vanadium powders using a radio frequency (RF) thermal plasma process is investigated. Initially, angular vanadium powders are spheroidized successfully at an average particle size of 100 µm using the RF-plasma process. It is difficult to avoid oxide layer formation on the surface of vanadium powder during the RF-plasma process. Titanium/vanadium/stainless steel functionally graded materials are manufactured with vanadium as the interlayer. Vanadium intermediate layers are deposited using both angular and spheroidized vanadium powders.