6kv 13kv Alumina Ceramic Electrical Isolators Consist of Metal Sleeves Brazed to Each End of an Insulating Ceramic Tube

• Application: Aerospace, Electronics, Medical
• Material Composition: Alumina, Al2O3
• Speciality: High Insulation, High Strength, Temperature Resistant
• Type: Ceramic Part
• Compressive Strength: 2000 MPa
• Flexural Strength: 280 MPa
• Working Temperture: 1500 ºC
• Color: White
• Alumina Content: 95% - 96%
• Water Absorption: 0%
• Thermal Conductivity: 25 W/M.K
• Processing Service: Moulding
• Density: 3.70 g/cm3
• Transport Package: Carton Package
• Specification: Customized
• Trademark: INNOVACERA
• Origin: Fujian, China

Product Description

Alumina Ceramic Electrical Isolators

Electrical isolators consist of metal sleeves brazed to each end of an insulating ceramic tube. These assemblies provide electrical isolation of system components that operate within a common environment. They can also be used to act as a conduit to introduce gases or liquids into hermetic systems. Vacuum isolators are used to provide an electrical break between the vacuum system and other external components.

 

Materials:
* 95-99% Al2O3 (white or pink)
* Thread Stub-Monel, Steel, Inconel or Nickel
* Tube-Nickel
* Cap-Nickel
* Weld Sheath - Nickel
* More optionals for Sleeve Adaptors suitable
* for wedding (stainless steel or alternative
* materials), pls contact with us.

 

Applications

A few of the many applications in which these isolators are commonly used are:

• Semiconductor processing equipment

• Particle accelerators

• Furnaces

• Analytical equipment

• Beam line tubes

• Aerospace

• Telecommunications

Standard Specifications

• Voltages up to 75 kV DC

• Temperature Range: -269˚C to 450˚C

• Internal IDs to 8 inches

• Internal Pressure 1 x 10-10 torr to 1000 psig

 

Extreme / Custom Design

• Voltages in excess of 180 kV

• Pressures to 10,000 psig

• Insulator IDs in excess of 15 inches

• Special fittings

• Radiation resistant

• Non-circular geometries

• Fluted configurations

 

Metal layers are applied to ceramic components through Mo/Mn metallization and subsequent plating or active brazing techniques. The fusion of ceramic and metal components occurs through the controlled melting and solidification of filler metals (solders), tailored to specific applications and operating temperatures.

Advantages of Ceramic-to-Metal Technology:

The incorporation of advanced ceramic materials offers an array of benefits including high melting points, exceptional temperature resistance, corrosion and abrasion resistance, as well as unique electrical properties such as radiation, high-frequency, and high-voltage resistance. With the evolving landscape of technology, engineering structures often necessitate the synergistic integration of advanced ceramics and metals to harness the complementary strengths of both materials, ultimately optimizing performance.

Through the innovation of ceramic-to-metal brazing, the performance of welded joints is enhanced, enabling operation in elevated temperatures and hostile environments, thereby expanding the spectrum of application possibilities.

By leveraging the ultimate fusion of ceramics and metals, this breakthrough technology heralds a new era of engineering excellence, poised to drive advancements across diverse industries.