PLH53-10 Epoxy MIO Intermediate Coating

Epoxy MIO intermediate coating (2K) for barrier protection in cathodic-protection coating systems.

  • Used with PLH53-35 epoxy zinc primer as a supporting intermediate coat.

  • Salt water resistance: 20 days (as stated).

  • Mixing ratio 8:1 (by weight); recommended DFT 60–90 µm per coat.

PLH53-10 Epoxy MIO Intermediate Coating Descriotion

Overview
Two-component, polyamide-cured epoxy micaceous iron oxide (MIO) intermediate coating modified with special C6-element material (sp2 hybridization).
It is specified for use with PLH53-35 epoxy zinc primer as a supporting coat, combining cathodic protection synergy with strong barrier performance for corrosion protection.

Composition
Epoxy resin, micaceous iron oxide powder, anti-settling agent, toughening agent, and solvent; modified with special C6-element material (sp2 hybridization); polyamide curing agent; supplied as two components.

Typical uses

  • Ship repair/building, bridges, petrochemical facilities, steel structures, offshore platforms, underwater steel structures, pipelines, and oil tanks; used in cathodic-protection coating systems.

Technical data (typical)

  • Appearance / color: Gray.

  • Theoretical consumption: 0.14 kg/m² at 50 µm DFT (losses not included).

  • Density / specific gravity: 1.53 kg/L.

  • Drying / curing (25°C): Touch dry 1 h; hard dry 24 h; full cure 7 days.

  • Salt water resistance: 20 days.

Application data (25°C)

  • Mixing ratio (A:B): 8:1 (by weight).

  • Induction time: 5 min.

  • Pot life: 4 h.

  • Application methods: Airless spray, brush, roller.

  • Thinner / Cleaner: X-7 epoxy thinner; typical dilution 2–8% (air spray/roller may require more).

  • Recoat interval / overcoating interval (25°C): Minimum 24 h; maximum 7 days.

  • Recommended DFT: 60–90 µm per coat (brush/roller: 35–50 µm per coat).

Surface preparation

  • When applied over a two-component primer: all surfaces must be clean, dry, and free of contaminants; if the maximum recoat interval is exceeded, surface roughening is required.

  • If used directly as the first coat: abrasive blasting to Sa 2.5, or power-tool cleaning to St 3; surface profile 30–75 µm.

System compatibility / packing / storage

  • Compatible topcoats: polyurethane topcoat, fluorocarbon topcoat, etc.

  • Shelf life: 12 months.

  • Storage: Store in a dry, cool, ventilated warehouse away from fire sources and direct sunlight; outdoor storage is not permitted.

  • Packaging: Part A 27 kg; Part B 3 kg.

Contact Us

We would love to speak with you.
Feel free to reach out using the below details.

HUILI anti-corrosion coatings metal paint pail

Vinyl Phosphating Primer (2K) – Two-component phosphating primer for galvanized steel, aluminum, and other light metals.

  • Forms chemical adhesion to improve intercoat adhesion of subsequent coatings.

  • Low film thickness system: 15–25 µm DFT per coat; theoretical consumption 0.06 kg/m² at 20 µm DFT.

  • Min. recoat 2 h (25°C); dedicated PLX06 thinner (10–20%).

HUILI anti-corrosion coatings metal paint pail

Inorganic Zinc Silicate Primer (2K) – Two-component inorganic zinc silicate primer for long-term steel corrosion protection with cathodic protection.

  • For blast-cleaned steel; surface preparation Sa 3 (not lower than Sa 2.5) is specified.

  • Fast drying at 25°C, RH 70–85%: touch dry 10 min; hard dry 2 h; cured 24 h.

  • Mix ratio 28:7; thinner X-11 inorganic zinc thinner (5–20%); compatible with epoxy/PU coating systems.

HUILI anti-corrosion coatings metal paint pail

Epoxy rust-tolerant anti-rust primer (2K) for steel surfaces with slight rust.

  • Applicable on St1/St2 prepared steel; surface profile 15–35 µm (as stated).

  • Stabilizes rust by complexation with the substrate before hardening (as described).

  • Compatible with epoxy MIO intermediate and epoxy/PU topcoat systems.

HUILI anti-corrosion coatings metal paint pail

Epoxy Zinc Primer (2K, C6-Modified) – Two-component epoxy zinc primer (C6-modified) for cathodic-protection priming.

  • Salt spray resistance 1300 h (as stated).

  • Theoretical consumption 0.25 kg/m² at 50 µm DFT (losses not included).

  • For offshore platforms, underwater steel, pipelines, oil tanks, bridges, and petrochemical steel structures.

INQUIRY NOW

Contact Information