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Surface Engineering
Every durable coating starts before the spray gun. We inspect, clean, strip, abrasive-blast, mask, coat, cure, and inspect each part so the finish bonds to the surface, not just the eye. That is the difference between a coating that looks good leaving the shop and one that holds up in real use.
What It Means
Anyone can spray color. A finish that survives years of real service is something else entirely: a controlled system of inspection, cleaning, stripping, abrasive blasting, masking, coating selection, cure, and final inspection. We run every step in-house at our Redmond shop, so nothing about the bond is left to chance.
That discipline is what sets Advanced Coatings apart from a commodity coating shop. We are not just laying down a finish. We are engineering the surface underneath it so the coating performs the way it was designed to, on the first part and the ten-thousandth.
Mechanical Adhesion
Coatings need tooth. When a part is too smooth, oily, oxidized, or covered in old coating, the new finish can only rely on weak surface contact, and that is where chips, peeling, and lifting begin. Precision abrasive blasting creates a uniform anchor profile so the coating physically locks into the metal. That mechanical bond is why our finishes hold up.
The coating locks into the profile instead of sitting on a slick surface.
A mechanical bond shrugs off the knocks that pop a poorly-prepped finish.
Clean, profiled metal keeps moisture from creeping under the coating.
Finishes stand up to wear on parts that see real handling and use.
Proper prep is the single biggest defense against delamination.
A finish that bonds correctly stays looking right for years, not months.
The Prep Sequence
Surface engineering is a sequence. Each step protects the one that follows it.
01
Evaluate the substrate, existing coatings, corrosion, and contaminants before anything else happens.
02
Strip oils and residue that would otherwise break the bond between metal and coating.
03
Choose the correct blast media for the material, the part, and the finish going on top.
04
Create a uniform anchor profile, the tooth that lets the coating mechanically lock to the part.
05
Confirm cleanliness and profile, and mask threads, bores, and tolerances that must stay bare.
06
Apply Cerakote, powder, or the specified finish to the correct film thickness in a controlled booth.
07
Cure to the finish’s schedule, then inspect against spec before the part ships back to you.
By Finish
Same discipline, matched to what the coating and the part actually need.
Degrease and media-blast for a thin-film ceramic bond that protects without changing tight tolerances.
Strip, decontaminate, and profile so the cured shell resists chips, corrosion, and peeling.
Clean, base-coat, and prep so the printed film and protective clear lock down evenly.
Profile the surface and match chemistry for abrasion, solvent, and chemical resistance.
Lock the prep parameters so the fiftieth part matches the first, run after run.
The Cost of Skipping Prep
Peeling and lifting within months
Chips at the first hard impact
Rust creeping in under the finish
Rejected parts and costly rework
A coating that never reaches its rated performance
A finish that bonds and stays put
Impact and abrasion resistance built in
Corrosion protection that actually lasts
Parts that pass inspection the first time
Coatings that perform to their published spec
Surface Prep Questions
From a single custom piece to a full production run, get a free quote and we will walk you through the prep, coating, cure, and inspection your parts need.
