Experts in
Extrusion Technology for the Creation of
Advanced Ceramics

Pilot IS Advanced Ceramics are unique ceramic products made via the application of core technologies like kneading, extrusion molding, and firing that have been developed in the manufacturing of pencil leads for our mechanical pencils.These are high-density, high-strength, high-purity ceramics that have been finely molded and uniformly fired using our own specially developed extrusion molding equipment and firing know-how.

Process

Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut enim ad minim veniam, quis nostrud exercitation ullamco laboris nisi ut aliquip ex ea commodo consequat. Duis aute irure dolor in reprehenderit in voluptate velit esse cillum dolore eu fugiat nulla pariatur. Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut enim ad minim veniam, quis nostrud exercitation ullamco laboris nisi ut aliquip ex ea commodo consequat.

Request a quote

Shape Capabilities

Microporous Ceramics

High aspect ratio holes perforate a molded article in the extrusion direction. Typically, with fine holes (pores) of less than 1mm in diameter, it is difficult to achieve an aspect ratio (depth/inside diameter) of more than 5–10 using only machining. Extrusion molding technology, however, makes it possible to manufacture articles having micropore aspect ratios of 200 or more. Even articles with various thin or thick wall characteristics can be achieved.

Uses:
• Flow rate controllers
• Sensor holders
• Insulators (e.g., glass)

Non-Uniform Porous Ceramics

Porous ceramics can also be produced using micro-extrusion molding. Porosity of up to 70% can be set arbitrarily.

Uses:
• Filters
• Liquid holders
• Adsorption parts

Specialty Shaped Ceramics

Progress in Pilot IS Advanced Ceramic technology has made it possible to combine an abundance of different external and internal shapes, which can be utilized in new applications. For example, articles having a rectangular external shape and a circular internal shape, or a gear-like external shape and a circular internal shape are possible.

Uniform Porous Ceramics

Pilot IS can produce porous ceramics where even hard-to-stabilize flow rates are achieved by through-holes formed in the extrusion direction. Tiny, high-precision and uniform holes are applied to achieve gas and liquid flow rate control. Unlike a typical porous body, extrusion-molded holes pass through the molded article linearly, enabling a uniform, stable flow rate, while minimizing pressure loss.

Uses:
• Semiconductor manufacturing equipment
- Filters
- Nozzles
- Baffle plates
- Flow rate controllers
- Microreactors

Secondary Processing

The production of articles with unique, disparate external and internal shapes for specialized needs. Pilot IS Advanced Ceramics can be subjected to high-precision submicron processing for Outside-diameter machining, Pore machining for pore sizes of Φ 40 μm or more and Enhanced surface finishing.

Uses:
• Electrode guide for electric discharge machines
• Sliding shaft components• Rotating shaft motor components
• Ferrules for fiber-optic communications and device components
• Positioning pins
• Liquid chemical plungers

Ceramic Shape Capabilities

Microporous Ceramics

High aspect ratio holes perforate a molded article in the extrusion direction. Typically, with fine holes (pores) of less than 1mm in diameter, it is difficult to achieve an aspect ratio (depth/inside diameter) of more than 5–10 using only machining. Extrusion molding technology, however, makes it possible to manufacture articles having micropore aspect ratios of 200 or more. Even articles with various thin or thick wall characteristics can be achieved.

Uses:
• Flow rate controllers
• Sensor holders
• Insulators (e.g., glass)

280-Hole Uniform Porous Ceramic
280-Hole Uniform Porous Ceramic
21-Hole Uniform Porous Ceramic
280-Hole Uniform Porous Ceramic
48-Hole Uniform Porous Ceramic
19-Hole Uniform Porous Ceramic
Uniform Porous Ceramics

Pilot IS can produce porous ceramics where even hard-to-stabilize flow rates are achieved by through-holes formed in the extrusion direction. Tiny, high-precision and uniform holes are applied to gas and liquid flow rate control. Unlike a typical porous body, extrusion molded holes pass through the molded article linearly, enabling a uniform, stable flow rate, while minimizing pressure loss.

Uses:
• semiconductor manufacturing equipment
• filters
• nozzles
• baffle plates
• flow rate controllers
• microreactors

An example of a non uniform porous ceramic extrusion.
Example of Non-Uniform Porous Ceramics
Example of Non-Uniform Porous Ceramics
Example of Non-Uniform Porous Ceramics
Non-Uniform Porous Ceramics

Porous ceramics can also be produced using micro-extrusion molding. Porosity of up to 70% can be set arbitrarily.

Uses:
• Filters
• Liquid holders
• Adsorption parts

An example of a specialty shape ceramic extrusion.
An example of a specialty shape ceramic extrusion.
Example of a Specialty Shape Ceramic
Example of a Specialty Shape Ceramic
Example of a Specialty Shape Ceramic
Example of a Specialty Shape Ceramic
Example of a Specialty Shape Ceramic
Example of a Specialty Shape Ceramic
Secondary Processing

The production of articles with unique, disparate external and internal shapes for specialized needs. Pilot IS Advanced Ceramics can be subjected to high-precision submicron processing for Outside-diameter machining, Pore machining for pore sizes of Φ 40 μm or more and Enhanced surface finishing.

Uses:
• Electrode guide for electric discharge machines
• Sliding shaft components
• Rotating shaft motor components
• Ferrules for fiber-optic communications and device components
• Positioning pins
• Liquid chemical plungers

2-Hole Microporous Ceramic
Example of a Secondary Processed Ceramic
Example of a Secondary Processed Ceramic
Example of a Secondary Processed Ceramic
Example of a Secondary Processed Ceramic
Example of a Secondary Processed Ceramic
Specialty Shaped Ceramics

Advances in Pilot IS Advanced Ceramic technology have made it possible to combine an abundance of different external and internal shapes, which can be utilized in new applications. For example, articles having rectangular external shape and a circular internal shape, or a gear-like external shape and a circular internal shape.

Materials & Specifications

Alumina

Excellent insulation and heat resistance, good thermal conductivity and extreme chemical resistance.

Yttria Stabilized Zirconia
(8mol Yttria added)

Oxygen-ion conductivity, excellent heat-shielding properties and doped with 8mol yttrium oxide.

Zirconia
(3mol Yttria added)

High strength (toughness), excellent thermal properties and aesthetics.

Aluminum Nitride

High thermal conductivity and electrical insulation properties that prevent distortion from heat.

Specifications


ID: from ø0.02mm

OD: ø0.3mm– 8.0mm

Length: Up to 120mm

Ra: As requested

Tolerance: As requested

Straightness: As requested

Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut enim ad minim veniam, quis nostrud exercitation ullamco laboris nisi ut aliquip ex ea commodo consequat. Duis aute irure dolor in reprehenderit in voluptate velit esse cillum dolore eu fugiat nulla pariatur. Lorem ipsum dolor sit amet, consectetur adipiscing elit, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut enim ad minim veniam, quis nostrud exercitation ullamco laboris nisi ut aliquip ex ea commodo consequat.

Materials Properties Reference

Representative Characteristics – Alumina
Material Characteristics Unit Alumina
Mechanical Properties Bulk Density g/cm³ 3.8
Water Absorption % 0
Vickers Hardness GPa 16
Flexural Strength MPa 400
Compressive Strength MPa 3,300
Young’s Modulus GPa 360
Thermal Properties Thermal Expansion Coefficient
40–400 °C ×10⁻⁶/°C 7.2
40–800 °C ×10⁻⁶/°C 8
Thermal Conductivity W/(m·K) 30
For reference only. Physical characteristics may differ based on parts dimensions.
Representative Characteristics – Zirconia
Material Characteristics Unit Zirconia
Mechanical Properties Bulk Density g/cm³ 6.0
Water Absorption % 0
Vickers Hardness GPa 12
Flexural Strength MPa 1,000
Compressive Strength MPa 2,200
Young’s Modulus GPa 200
Thermal Properties Thermal Expansion Coefficient
40–400 °C ×10⁻⁶/°C 10.5
40–800 °C ×10⁻⁶/°C 11
Thermal Conductivity W/(m·K) 3
For reference only. Physical characteristics may differ based on parts dimensions.
Representative Characteristics – Yttria Stabilized Zirconia (8mol%)
Material Characteristics Unit Yttria Stabilized Zirconia (8mol%)
Mechanical Properties Bulk Density g/cm³ 5.9
Water Absorption % 0
Vickers Hardness GPa 12
Flexural Strength MPa 300
Compressive Strength MPa 1,500
Young’s Modulus GPa 200
Thermal Properties Thermal Expansion Coefficient
40–400 °C ×10⁻⁶/°C 9.4
40–800 °C ×10⁻⁶/°C 10
Thermal Conductivity W/(m·K) 1.9
For reference only. Physical characteristics may differ based on parts dimensions.
Representative Characteristics – Aluminum Nitride
Material Characteristics Unit Aluminum Nitride
Mechanical Properties Bulk Density g/cm³ 3.3
Water Absorption % 0
Vickers Hardness GPa 11
Flexural Strength MPa 350
Compressive Strength MPa 2,500
Young’s Modulus GPa 320
Thermal Properties Thermal Expansion Coefficient
40–400 °C ×10⁻⁶/°C 4.5
40–800 °C ×10⁻⁶/°C 4.8
Thermal Conductivity W/(m·K) 180
For reference only. Physical characteristics may differ based on parts dimensions.
Representative Characteristics of Extrusion Molded Articles

Material Characteristics Unit Alumina Zirconia
A B
Measured Value Test Piece Shape (mm) Measured Value Test Piece Shape (mm) Measured Value Test Piece Shape (mm)
Mechanical Content % 99.8 ⌀ 1.0 (cylindrical column)
Density Kg/m³ 3.9·10³ 0.47–⌀0.24 (cylinder) 3.9·10³ ⌀1.6–⌀0.1 (cylinder) 6.05·10³ ⌀1.0–⌀0.7
Vickers Hardness (HV1) GPa 15.7 ⌀1.0 (cylindrical column) 17.1 ⌀1.6–⌀0.1 (cylinder) 13.5 ⌀1.3 (cylindrical column)
Three-point bending strength MPa 390 3×4×37 (rectangle) 430 3×4×37 (rectangle) 1000 3×4×37 (rectangle)
Young’s modulus GPa 340 1.2×4×37 (rectangle) 370 1.2×4×37 (rectangle) 200 1.2×4×37 (rectangle)
Thermal Coefficient of Linear Expansion (40–400°C) 10⁻⁶/°C 7.3 ⌀5–10 (cylindrical column) 7.3 ⌀5–10 (cylindrical column) 10.6 5–10 (cylindrical column)
Coefficient of Linear Expansion (40–400°C) 10⁻⁶/°C 8.1 ⌀5–10 (cylindrical column) 8.1 ⌀5–10 (cylindrical column) 11.1 5–10 (cylindrical column)
Reference values based on our measurements using test pieces
Click Here to Download a Brochure

Frequently Asked Questions

How does Pilot IS produce ceramics?

We use our integrated manufacturing plants in Japan and apply mechanical pencil lead extrusion molding techniques and expertise.

What kinds of ceramics can Pilot IS make?

Using extrusion molding technology, we can produce ceramics that have extremely small holes and shapes that are long and thin.

What raw materials does
Pilot IS use?

We mainly focus on high-purity alumina, but also zirconia, aluminum nitride and yttria stabilized zirconia.

What is the production lead time?

Pilot IS can produce most ceramics* in 60 – 90 days after receiving a purchase order. *The lead time is based on the product dimensions.

Where are the advanced ceramics from Pilot IS made?

All of our ceramics are made by Pilot IS in our facilities in Hiratsuka, Japan.

What straightness and tolerances can Pilot IS achieve?

Please contact us for more information.

Industries Served

Dashboard mockup

Manufacturing

Technology

Medical

Industrial Machinery

Automotive

Accessories

CASE STUDIES

Main call to action heading two.

Innovative Solutions for
Global Applications
Pilot corporation brings over 100 years of manufacturing innovation and experience to the global marketplace. This heritage is the cornerstone of Pilot Innovative Solutions (Pilot IS) offering exceptional technological advancement and the precision that comes from a century of ground-breaking engineering.