Guangzhou Eric Wei Chemical Co., Ltd.
Guangzhou Eric Wei Chemical Co., Ltd.

Wear-Resistant Antistatic Coating GW-M6

GW-M6 is a wear-resistant antistatic coating from Guangwei’s GW series, engineered for high-durability industrial surfaces. It combines exceptional abrasion resistance with stable surface resistivity (10⁶–10⁹ Ω/sq), ensuring ESD safety in cleanrooms and electronics manufacturing. Solvent-based, fast-curing, and chemically robust, it adheres strongly to metals, plastics, and composites without compromising conductivity or mechanical integrity.
  • wear resistant antistatic coating gw m6_a0af6bbe
  • wear resistant antistatic coating gw m6_a0af6bbe

Features Of Wear-Resistant Antistatic Coating GW-M6

  1. Exceptional abrasion resistance with >10× improvement in Taber wear index vs. standard antistatic coatings.

  2. Stable surface resistivity of 10⁶–10⁹ Ω/sq across 20–80% RH and 15–40°C operating range.

  3. Non-migrating, covalently bound antistatic functionality ensures long-term performance without blooming or leaching.

  4. Low-temperature cure compatible (120–140°C, 20–30 min), suitable for heat-sensitive substrates.

  5. Halogen-free formulation meeting IPC-4101D and RoHS 3 (2015/863/EU) requirements.

Typical Applications Of Wear-Resistant Antistatic Coating GW-M6

  1. Electrostatic discharge (ESD)-sensitive electronics housings and enclosures.

  2. Automotive interior trim components requiring both wear resistance and static control (e.g., center consoles, gear shifters).

  3. Medical device casings where particle generation and static attraction must be minimized.

  4. Industrial control panels and HMI surfaces exposed to frequent cleaning and mechanical contact.

  5. High-use consumer electronics accessories (e.g., VR headset frames, portable diagnostic tool housings).

Specifications Of Wear-Resistant Antistatic Coating GW-M6



Chemical TypeModified acrylic-polyurethane hybrid resin with grafted quaternary ammonium antistatic moiety
Product FormSolvent-based liquid (toluene/xylene-free; uses ethyl acetate and PGMEA)
AppearanceClear, slightly viscous liquid; slight amber tint (APHA < 50)
Density (25°C)1.02–1.05 g/cm³
Solids Content (wt%)38–42%
Primary ApplicationsTopcoat for rigid thermoplastics (PC, ABS, PC/ABS, PBT) and coated metals
Key FeaturesWear-resistant, antistatic, low-VOC, non-yellowing, UV-stable
Regulatory ComplianceRoHS 3 compliant; REACH SVHC free; ISO 10993-5 (cytotoxicity) passed; no listed CAS for intentional nanomaterials


Compatible Systems Of Wear-Resistant Antistatic Coating GW-M6

Common Compatible SystemsSuitability
GW-Primer P12 (epoxy-acrylic adhesion promoter)Highly Recommended – Optimized for enhanced intercoat adhesion and ESD stability on ABS/PC
GW-Topcoat T7 (matte clear protective overcoat)Recommended – Maintains antistatic performance when applied at ≤15 μm DFT
Standard polyurethane spray basecoats (non-silicone)Suitable – Requires 24-hr flash-off before GW-M6 application; avoid high-Tg formulations >110°C
UV-curable acrylic undercoatsSuitable – Must be fully cured (≥800 mJ/cm²) and de-ionized prior to coating

Wear-Resistant Antistatic Coating GW-M6 – Frequently Asked Questions (FAQ)

Q1: What is the CAS Registry Number for GW-M6?

A: GW-M6 is a proprietary multi-component formulation; individual reactants are disclosed under confidential CAS numbers per customer NDA. The final cured film has no CAS assignment as it is a crosslinked network.


Q2: What is the recommended dry film thickness (DFT) for optimal antistatic and wear performance?

A: Target 18–22 μm DFT. Below 15 μm, surface resistivity rises above 10⁹ Ω/sq; above 25 μm, flexibility and adhesion may decrease under thermal cycling.


Q3: How does GW-M6 compare to conventional carbon-black–based antistatic coatings in terms of appearance and processing?

A: Unlike carbon-black systems, GW-M6 delivers transparent, colorless finish with no haze or gray undertone, supports high-gloss aesthetics, and avoids nozzle clogging during spray application due to absence of particulates.


Q4: Is GW-M6 subject to extractable or migratable antistatic agent concerns under ISO 10993 or USP Class VI testing?

A: No. The antistatic functionality is chemically grafted into the polymer backbone; extraction studies (24h in saline, ethanol, and isooctane at 50°C) show <0.05% mass loss and no detectable ionic leachables by IC-MS.



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