MATERIALS FOR PRECISION PROCESS EQUIPMENT

Designed Around Demanding Process Conditions.

Semiconductor manufacturing equipment combines precision motion, aggressive chemicals, elevated temperatures, electrical systems and strict contamination control.

Engineering plastics can replace or complement metal in selected fixtures, insulators, guides, carriers and fluid-handling components where low weight, corrosion resistance or electrical performance is important.

ZERO supplies rods and sheets for further CNC machining. The suitable polymer and grade should be confirmed from the exact process environment and component requirements.

SEMICONDUCTOR PERFORMANCE REQUIREMENTS

Properties That Matter in Semiconductor Equipment.

Different process stages emphasize different properties. Material selection should evaluate the complete combination.

TYPICAL COMPONENTS

Machined Parts Across Semiconductor Equipment.

These examples illustrate potential uses of engineering plastics. Final material suitability must be verified for the exact design and process.

01 / HANDLING

Wafer Handling Fixtures

Supports, carriers and locating components for controlled handling.

02 / WET PROCESS

Chemical Process Parts

Selected fluid-handling and structural components exposed to chemicals.

03 / INSPECTION

Inspection Fixtures

Dimensionally stable nests, supports and alignment components.

04 / ELECTRICAL

Insulators & Supports

Electrical separation and structural support within equipment assemblies.

05 / MOTION

Guides & Wear Parts

Low-friction guides, bushings and moving equipment components.

06 / EQUIPMENT

Precision Equipment Parts

Machined plates, rings, blocks and custom structural components.

SEMICONDUCTOR FAQ

Before Selecting a Stock-Shape Material.

These answers provide general guidance. Final suitability depends on the exact material grade and process conditions.

PEEK, PPS, PVDF, PEI and selected POM grades may be considered depending on temperature, chemicals, purity, mechanical load, electrical requirements and cost targets.

Yes, but achievable tolerances depend on the polymer, reinforcement, stock dimensions, moisture, internal stress, part geometry and machining method. The machinist should account for plastic-specific behavior.

No single polymer is suitable for every chemical and temperature combination. Chemical compatibility, concentration, temperature, stress and required purity should be checked for the selected grade.

Glass- or carbon-fiber reinforced grades may be evaluated when additional stiffness, strength or dimensional performance is needed. Their directional properties and machining behavior should also be considered.

Please provide the component drawing, material or target properties, process chemicals, temperature, tolerance, certification requirements, stock dimensions, quantity and destination.