Titanium Aluminum Carbide is one of the most widely studied MAX phase ceramics, combining the high-temperature stability of ceramics with the electrical and thermal conductivity of metals. Its unique layered crystal structure makes it the primary precursor for producing Ti₃C₂ MXene through selective etching.Because of its excellent oxidation resistance, machinability, and thermal shock resistance, Ti₃AlC₂ is widely used in MXene research, high-temperature structural materials, wear-resistant composites, and advanced ceramic applications.
| Item | Specification |
| Formula | Ti₃AlC₂ |
| Purity | 99% / 99.5%or Customized |
| Particle Size | -325 Mesh or Customized |
| Appearance | Gray Powder |
| Crystal System | Hexagonal |
| Density | 4.2 g/cm³ |
| Melting Point | Approx. 1350 °C |
| Packaging | Bottle / Vacuum Bag |
| Customization | Available |
High Electrical Conductivity：The layered crystal structure provides metallic electrical conductivity while maintaining ceramic stability.
Excellent Thermal Stability：Ti₃AlC₂ remains structurally stable under elevated temperatures, making it suitable for demanding thermal environments.
Outstanding Oxidation Resistance：A protective oxide layer formed at high temperatures improves oxidation resistance and extends material lifetime.
Superior Thermal Shock Resistance：Unlike conventional ceramics, Ti₃AlC₂ tolerates rapid heating and cooling with reduced risk of cracking.
Easy MXene Precursor：Ti₃AlC₂ is the most commonly used precursor for synthesizing Ti₃C₂ MXene through selective removal of the aluminum layer.
Custom Particle Size：Different particle size distributions are available for laboratory research and industrial development.
Compared with conventional ceramic materials, Ti₃AlC₂ offers an exceptional combination of mechanical strength, electrical conductivity, oxidation resistance, and machinability. These characteristics make it one of the most versatile MAX phase materials for both scientific research and advanced engineering applications.Its layered structure also enables efficient conversion into Ti₃C₂ MXene, making Ti₃AlC₂ the preferred starting material for numerous two-dimensional material studies.
Ti₃AlC₂ MAX phase powder is widely used across advanced materials research and high-performance engineering due to its unique combination of metallic conductivity, ceramic stability, and layered crystal structure.
MXene Synthesis：Ti₃AlC₂ is the most widely used precursor for producing Ti₃C₂ MXene through selective etching, making it an essential material for research in energy storage, electromagnetic interference (EMI) shielding, sensors, catalysis, and flexible electronics.
High-Temperature Ceramics：With excellent thermal stability, oxidation resistance, and thermal shock resistance, Ti₃AlC₂ is suitable for manufacturing high-temperature structural components and advanced ceramic composites operating in demanding environments.
Wear-Resistant and Conductive Composites：Ti₃AlC₂ can be incorporated into ceramic and metal matrix composites to improve wear resistance, fracture toughness, thermal conductivity, and electrical conductivity, making it valuable for friction and functional composite materials.
Electrical and Functional Materials：Its metallic-like conductivity combined with ceramic durability makes Ti₃AlC₂ suitable for electrical contact materials, conductive ceramic components, and other multifunctional engineering applications requiring both conductivity and high-temperature performance.
Scientific Research：Ti₃AlC₂ is extensively used by universities, research institutes, and industrial laboratories for studies on MAX phases, two-dimensional materials, high-temperature ceramics, and novel functional materials.
Titanium Aluminum Carbide powder is a typical MAX phase-related material, possessing the combined properties of both metals and ceramics, such as excellent electrical conductivity and thermal stability. This material is widely used in functional ceramics, composite materials, and advanced structural materials research.
We can provide compositionally and crystalline-phase-stable Titanium Aluminum Carbide powder for research and materials development. Please contact us to discuss specific applications and processing requirements.
MAX phase-related titanium-based carbides
Metal-ceramic dual properties
Excellent electrical conductivity
Outstanding thermal stability
Layered crystal structure
Superior processability compared to traditional ceramics
Stable batch-to-batch consistency
MAX phase and layered material research: Commonly used for studying the structure, properties, and phase stability of MAX phase materials in the Titanium Aluminum Carbide system.
Functional composite materials: As a reinforcing phase or functional filler, this powder can be used to prepare composite materials with electrical conductivity, high-temperature resistance, or thermal shock resistance.
High-Temperature Structural Materials Research: Titanium Aluminum Carbide exhibits excellent structural stability at high temperatures, making it suitable for fundamental research on high-temperature service materials.
Conductive Ceramics and Functional Materials: Its combination of metallic and ceramic properties makes it valuable for the development of conductive ceramics and related functional materials.
Materials Science and Fundamental Research: Widely used in universities, research institutes, and advanced materials laboratories for the exploration of novel layered ceramic materials.
Q1: What is Ti₃AlC₂ used for？
A1: Ti₃AlC₂ is mainly used for MXene synthesis, high-temperature ceramics, conductive composites, wear-resistant materials, and advanced materials research.
Q2: Can Ti₃AlC₂ be converted into MXene?
A2: Yes. Ti₃AlC₂ is the most widely used precursor for producing Ti₃C₂ MXene through selective chemical etching.
Q3: Is Ti₃AlC₂ electrically conductive?
A3: Yes. Unlike conventional ceramics, Ti₃AlC₂ exhibits metallic electrical conductivity.
Q4: What purity grades are available?
A4:ULPMAT supplies research-grade Ti₃AlC₂ powder with multiple purity levels and customized specifications.
Q5: Can particle size be customized?
A5:Yes. Customized particle size distributions are available according to application requirements.
Q6: How should Ti₃AlC₂ powder be stored?
A6:Store the powder in a dry, sealed container away from moisture and strong oxidizing environments.
Related Resources
Related Products
| Property | Value |
| Material Type | MAX Phase Ceramic |
| Formula | Ti₃AlC₂ |
| CAS No. | 196506-01-1 |
| Crystal Structure | Hexagonal |
| Color | Gray |
| Conductivity | High |
| Thermal Stability | Excellent |
| Oxidation Resistance | Excellent |
| MXene Precursor | Yes |
| Custom Sizes | Available |
Inner Packaging: Vacuum-sealed bags and boxed to prevent contamination and moisture.
Outer Packaging: Cartons or wooden crates selected based on size and weight.
If you need any service, please contact us
