Description
Molybdenum Dioxide (MoO₂) Nanopowder / Nanoparticles (100 nm, Super Grade 99.99%, Purple Blue)
Molybdenum Dioxide (MoO₂) Nanopowder is a super-grade nanomaterial with >99.99% purity and a unique purple-blue color. With an average particle size of 100 nm and a detailed size distribution ranging from 30 nm to 300 nm, MoO₂ exhibits exceptional electrical conductivity, thermal stability, and catalytic properties.
As a transition metal oxide, MoO₂ stands out for its high charge transport capacity, chemical stability, and resistance to extreme environments, making it a valuable material in energy storage, catalysis, and sensor applications.
Technical Specifications
Purity: >99.99% (trace metal basis)
Impurities: <0.01% (trace metal basis)
Average Particle Size (APS): 100 nm
Detailed Particle Size Distribution:
10%: 30 nm
10%: 50 nm
50%: 80 nm
25%: 100 nm
5%: 200–300 nm (with ~1% reaching 1000 nm)
Color: Purple-blue
Crystal Phase: Molybdenum dioxide (MoO₂)
Conductivity: High, suitable for electrochemical applications
Certificate of Analysis (ppm, trace elements):
Fe: 35 ppm
Ni: 23 ppm
Cu: 230 ppm
Cr: 22 ppm
Co: 65 ppm
Others: 135 ppm
Applications
Energy Storage & Batteries
Lithium-ion battery anode material
High-performance electrochemical supercapacitors
Field emission materials for advanced electronics
Catalysis & Chemical Industry
Catalysts for hydrogenation and dehydrogenation reactions
Photocatalytic systems for energy conversion and pollutant degradation
Gas sensors (ozone, hydrocarbons, automotive exhaust systems)
Electronics & Optoelectronics
Electrochromic displays and recording materials
Transparent conductive layers in specialized optical devices
UV detectors and optical limiters
Research & Advanced Materials
Nanostructured electrode materials for energy storage systems
Functional additive in composite materials to improve charge transport
Photoelectrode for solar energy harvesting
Storage & Handling
Store at room temperature under ventilated and dry conditions.
Protect from moisture and oxidation by storing under inert gas atmosphere (argon or nitrogen).
Avoid direct exposure to air to preserve nanoparticle integrity.