❶ Conductivity: Thanks to the conductive coating (typically metal oxides), conductive mica powder possesses electrical conductivity, which differentiates it from its naturally insulating state. This allows it to be used in applications that require the transmission or shielding of electrical currents.

❷ Thermal Stability: Like regular mica, conductive mica powder has high thermal stability. It can withstand high temperatures without degrading, making it suitable for applications in high-temperature environments.

❸ Chemical Stability: Mica is chemically inert and resistant to weathering, properties that are retained in conductive mica powder. This makes the material stable in various chemical and environmental conditions.

❹ Mechanical Strength: Mica is known for its mechanical strength and durability. Even when ground into a fine powder and made conductive, it preserves this strength.
❺ Versatility: Conductive mica powder can be utilized in numerous applications across industries due to its unique combination of properties. These applications include electronics (for EMI shielding, conductive coatings or adhesives), paints and coatings, and more.
❻ Insulation Properties: Despite its conductivity, conductive mica powder still maintains some degree of its original insulating properties. This can be beneficial in applications where a balance of conductivity and insulation is needed.

❼ Low Oil Absorption: Mica has a layered structure, which generally leads to low oil absorption. This characteristic can be important in applications such as paints and coatings where excessive oil absorption can negatively affect the properties of the finished product.

❽ Easy Dispersion: Mica powder, including conductive mica powder, is known for its easy dispersion in both aqueous and non-aqueous media. This ease of dispersion allows it to be uniformly distributed throughout a solution or mixture, ensuring consistent performance in its final application.