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Material

Anti-static Filament

Anti-static Filament is selected from its stiffness, recovery, wear, wet-service, chemical, and temperature behavior. The same material can produce different stiffness, so filament diameter, trim length, density, grade, and service conditions must also be defined.

Anti-static Filament

Material Overview

Anti-static filament controls charge accumulation through dissipative polymer, conductive additives, or conductive surface treatment.

In a finished brush, Anti-static Filament does not create a fixed stiffness by itself. Filament diameter, trim length, density, tuft layout, and installed contact determine working force, while grade and environment affect durability and recovery.

Material Properties

Surface resistance10⁶–10⁹ ohms
Filament diameter0.10–1.00 mm
Charge decay targetbelow 2 seconds in ESD-controlled designs

Brush Applications

For Anti-static Filament, directly related brush structures include Roller and Conveyor Brushes, Strip Seal Brushes, Handheld Detail Brushes, and Tube & Pipe Bore Brushes. Applications related to Anti-static Filament include Brick, Tile & Building Material Machine Brush Use, Carpet Machine Cleaning, Mold Cavity Cleaning, and Dust Removal.

Specification and Customization

Material form

Filament

Common forms

Inherently dissipative polymer filament; additive-modified nylon or polyester; conductive-fiber blend.

Grade

Antistatic or inherently dissipative filament grade

Reference standard

IEC 61340-5-1:2024; IEC TS 61340-5-4:2021; ASTM D257

Limitations and Alternatives

The word anti-static alone cannot prove ESD protection, ATEX suitability, cleanroom suitability or lifetime conductivity.

Frequently Asked Questions

What are the key properties of Anti-static Filament brush material?

Anti-static filament controls charge accumulation through dissipative polymer, conductive additives, or conductive surface treatment. Direct data: Surface resistance: 10⁶–10⁹ ohms; Filament diameter: 0.10–1.00 mm; Brush operating range: -20–100°C; Charge decay target: below 2 seconds in ESD-controlled designs.

Where is Anti-static Filament used in cleaning brushes?

Static-control contact on paper, film, textile and electronics lines when the complete brush has a defined grounding path.

How does filament geometry change Anti-static Filament brush stiffness?

Anti-static Filament changes brush stiffness through filament diameter, free trim, density, crimp, and contact. Use finer filament and longer trim for conformable contact; use coarser filament, shorter trim, or higher density for stronger displacement or cutting.

When should Anti-static Filament be replaced by another material?

Compare Anti-static Filament with Conductive nylon, carbon fiber, metal fiber, ordinary nylon. Change material when wet stiffness, temperature, chemical resistance, conductivity, particle shedding, or surface marking becomes the limiting factor.

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