Application of MAX special ceramic material vanadium-aluminum carbide V2AlC

In materials science, MXenes are a class of two-dimensional inorganic compounds. These materials consist of a transition metal carbide, nitride or carbonitride layer several atoms thick. MXenes was first described in 2011. Because of its hydroxyl or oxygen-terminated surface, MXenes combines the metal conductivity of transition metal carbides with hydrophilicity.

Synthetic MXenes prepared by HF etching have an accordion-like morphology. When there are less than five layers, they can be called multi-layer MXene (ML-MXene) or several layers of MXene (FL-MXene). Because the surface of MXenes can be terminated by functional groups , So you can use the naming convention M n+1 X n T x, where T is a functional group (such as O, F, OH, Cl).

Single transition metal MXenes

MXenes adopts three structures. There is a metal at the M site, inherited from the parent MAX phase: M 2 C, M 3 C 2 and M 4 C 3. They are produced by selectively etching the A element from the MAX phase or other layered precursors (for example, Mo 2 Ga 2 C), and have the general formula M n+1 AX n, where M is an early transition metal, A is an element of group 13 or 14 of the periodic table, X is C and/or N, and n = 1–4. The MAX phase has a layered hexagonal structure with P6 3/mmc symmetry, in which the M layer is almost closed and stacked, and the X atoms fill the octahedral sites. Therefore, the M n+1 X n layers are interlaced with the A element, and the A element is bonded to the M element metal.

Double transition metal MXenes

Double transition metal MXenes can have two forms, ordered double transition metal MXenes or solid solution MXenes. For ordered double transition metal MXene, they have the general formula: M'2 M” C 2 or M'2 M” 2 C 3 where M'and M” are different transition metals. Synthesized double transition metal carbides Including Mo 2 TiC 2, Mo 2 Ti 2 C 3, Cr 2 TiC 2 and Mo 4 VC 4. In some of these MXenes (such as Mo 2 TiC 2, Mo 2Ti 2 C 3 and Cr 2 TiC 2), Mo or Cr atoms are located on the outer edge of MXene, and these atoms control the electrochemical properties of MXene.

For solid solution MXene, they have the general formula: (M' 2−y M" y)C, (M' 3−y M" y)C 2, (M' 4−y M" y)C 3, or (M '5−y M" y) C 4, where the metal is randomly distributed in the solid solution throughout the structure, resulting in continuous and customizable characteristics.

Overview of MAX special ceramic material vanadium-aluminum carbide V2AlC powder

V2AlC has low density (4.07 g/cm3), high modulus (283 GPa), good electrical conductivity (4×106 S•m−1) and thermal conductivity (48 W•m−1•K−1), good The high-pressure V2AlC does not undergo phase change under a pressure of 50GPa, and is the raw material for the synthesis of V2CMXene.

Application of MAX special ceramic material vanadium-aluminum carbide V2AlC powder

V2AlC powder is used as MAX's special ceramic materials, electronic materials, high-temperature structural materials, electrode brush materials, chemical anti-corrosion materials and high-temperature heating materials.

The price of MAX special ceramic material vanadium-aluminum-aluminum carbide V2AlC powder

The price of MAX special ceramic material vanadium aluminum carbide V2AlC powder will vary randomly with the production cost, transportation cost, international situation, exchange rate and market demand. Tanki New Materials Co., Ltd. aims to help various industries and chemical wholesalers find high-quality, low-cost nanomaterials and chemicals by providing a full set of customized services. If you are looking for MAX special ceramic material vanadium aluminum carbide V2AlC powder, please feel free to send an inquiry to get the latest price of MAX special ceramic material vanadium aluminum aluminum carbide V2AlC powder.

MAX special ceramic material vanadium aluminum carbide V2AlC powder supplier

As a global MAX special ceramic material vanadium-aluminum-aluminum carbide V2AlC powder supplier, Tanki New Materials Co., Ltd. has extensive experience in the performance, application and cost-effective manufacturing of advanced and engineering materials. The company has successfully developed a series of powder materials (titanium carbide aluminum Ti3AlC2 Max, MAX special ceramic material vanadium aluminum carbide V2AlC powder, MAX special ceramic material titanium tin carbide Ti2SnC powder, MAX special ceramic material silicon carbide titanium Ti3SiC2 powder), high purity Target materials, functional ceramics and structural devices, and provide OEM services.