MATERIALS FOR MOTION, LOAD AND PRECISION

Supporting Selected Automotive Parts and Manufacturing Equipment.

Automotive components can face repeated movement, vibration, changing temperatures, fuels, oils, cleaning agents and tight dimensional requirements.

Engineering plastics offer combinations of low weight, machinability, wear resistance, low friction, insulation and chemical resistance for selected mechanical and electrical parts.

ZERO supplies semi-finished rods and sheets for further CNC machining. Final material selection must be confirmed against the component design, load, environment and applicable automotive requirements.

AUTOMOTIVE PERFORMANCE REQUIREMENTS

Properties That Guide Automotive Material Selection.

The correct balance depends on where the part is installed and how it moves, loads and ages in service.

TYPICAL COMPONENTS

Machined Engineering Plastic Parts for Automotive Use.

These examples illustrate potential applications. Final design and material approval remain the responsibility of the component manufacturer.

01 / MOTION

Gears & Sprockets

Precision-machined parts requiring wear resistance and controlled friction.

02 / SUPPORT

Bushings & Bearings

Low-friction supports for shafts, pivots and repeated movement.

03 / SEALING

Seals & Rings

Machined profiles for selected fluid, temperature and wear conditions.

04 / GUIDING

Guides & Rollers

Wear components for controlled movement in mechanisms and production equipment.

05 / ELECTRICAL

Insulators & Spacers

Electrical separation and structural positioning in selected assemblies.

06 / PRODUCTION

Assembly Fixtures

Nests, locators and handling components for automotive manufacturing equipment.

AUTOMOTIVE FAQ

Before Selecting a Material for an Automotive Part.

These answers provide general guidance. Final approval depends on the exact design, grade and applicable standards.

POM, PA6 and PET are common starting points for many mechanical components. PEEK and PPS may be evaluated where higher temperature, chemical resistance or performance is required.

They can replace metal in selected designs where load, temperature, wear, dimensional requirements and safety factors permit. The component designer must validate the complete application.

Wear resistance, friction, stiffness, fatigue, moisture absorption, temperature and mating-surface conditions should all be considered.

Glass- or carbon-fiber reinforced grades may be evaluated when additional stiffness, strength or dimensional stability is needed. Their anisotropy, wear behavior and machining characteristics should also be reviewed.

Please provide the drawing, component function, loads, speed, temperature, fluids, tolerances, required standards, stock dimensions, quantity and destination.