Aerospace

Precision Cerakote ceramic coatings for aerospace, defense, and industrial components.

Challenges

Aerospace Coating Challenges

The environments aerospace components face demand coating performance that traditional finishes cannot deliver.

Abrasion and Wear Protection

Wear Protection That Keeps Equipment in Service

Surface wear shortens component life and drives unplanned maintenance. Ceramic coating delivers 9H hardness with 160/160 in-lbs impact strength (ASTM verified).

Corrosion Protection

Corrosion-Resistant Cerakote® Coating

3,000 hours of ASTM B117 salt spray resistance. Molecular-level protection for aerospace, defense, and industrial components.

Aesthetic Finishing

Cerakote® Color Consistency & Aesthetic Finishing

Delta E ≤1.5 color precision across production runs. 200+ standard colors. Spectrophotometer-verified on every batch.

Weight Reduction

Weight Reduction Without Sacrificing Protection

Thick coatings add weight that undermines lightweighting efforts. Ceramic coating at 0.5-2 mils delivers full protection with 200-400g savings per part versus powder coating.

Solutions

How We Solve Aerospace Coating Challenges

ColoradoKote is not a general coater that happens to do aerospace work. Cerakote® ceramic coating is our entire business.

Every process, every piece of equipment, and every quality system is built for this. We hold AS9100, ISO 9001, ITAR, and Cerakote® Advanced Certified credentials, a stack fewer than 5% of coating applicators can match.

ColoradoKote consolidates chemical conversion, passivation, and Cerakote under one roof: Machine shop → ColoradoKote → Assembly. Fewer vendors, faster turnaround, single point of accountability.

Why Dedicated Cerakote® Beats Multi-Service Shops

Multi-service shops run Cerakote on shared equipment alongside anodizing, plating, and powder coating. Shared lines create cross-contamination risk, and operators split focus across different chemistries. ColoradoKote's equipment, training, and quality system are built around ceramic coating exclusively.

Certified

Certifications behind every coating

We hold the credentials your industry demands. Every coating we apply meets or exceeds the standards that keep your components performing.

AS9100D certified ISO 9001 quality management logo

AS9100 quality management

The highest standard for quality management in coating operations, ensuring our processes meet the most demanding traceability requirements.

ITAR Registered certification badge

ITAR defense manufacturing compliance

Authorized to handle controlled defense articles and technical data with proper security protocols.

ISO 9001:2015 certification logo

ISO 9001 quality systems certification

Demonstrates our commitment to consistent quality and continuous improvement across all operations.

Process

Our Aerospace Cerakote® Coating Process

Five documented stages from receiving inspection to final shipment.

Receiving & Specification Review

Parts are inspected, photographed, and logged against your PO. Specs verified before any work begins.

Surface Preparation & Masking

Media blasting to specified profile. Masking protects critical surfaces, threads, and datum features. Ultrasonic cleaning removes embedded contaminants.

Application, Cure & Inspection

Ceramic coating applied in controlled layers at 0.5-2 mil thickness. Parts cured at specified temperature. Post-cure inspection includes thickness, adhesion, color verification, and visual examination. Certificate of conformance with full traceability accompanies every shipment.

Aerospace

Components We Coat for Aerospace

Chemical pre-treatment for oil and gas

Why Cerakote for Oil and Gas Weight Savings

Thin-film protection for demanding environments

Visual inspection magnification for medical devices

Why Cerakote for Medical Weight Reduction

Thin-film protection for precision instruments

Ultrasonic cleaning for maritime components

Why Cerakote for Maritime Weight Reduction

Thin-film saltwater protection at reduced mass

Multi-part coating setup for industrial OEM

Why Cerakote for Industrial Weight Reduction

Thin-film protection that preserves design tolerances

Results

What matters most

The performance data that matters for your operation

Loading parts into walk-in curing oven at ColoradoKote
Durability

3,000 Hours Salt Spray Resistance

ASTM B117 verified. Molecular-level corrosion barrier protects steel, aluminum, titanium, and exotic alloys. Better wear resistance translates to longer part life and fewer refurbishment cycles, reducing total cost of ownership.

Parts inspection before Cerakote coating application
Compliance

Full AS9100 Documentation

Certificate of Conformance with every shipment. Material batch numbers, application parameters, cure temperatures, thickness measurements, adhesion test results, and color verification data. First Article Inspection (AS9102) available.

Compressed air cleaning parts before Cerakote application
Performance

9H Hardness, 4,000 Abrasion Cycles

ASTM D3363 pencil hardness and ASTM D4060 Taber abrasion verified. Impact strength: 160/160 in-lbs per ASTM D2794. Flammability tested per Cerakote® third-party lab reports. Durability comes from a combination of pencil hardness, abrasion resistance, and adhesion.

Cross hatch adhesion test on Cerakote at ColoradoKote
Reliability

Delta E ≤1.5 Across Production Runs

Spectrophotometer-verified color consistency on every batch. 200+ standard colors including Federal Standard 595. Premium tactile feel and color consistency support brand differentiation and a better passenger experience. Eliminates the 8-12% rejection rates common in anodized cabin interior programs.

Frequently Asked Questions

Find answers about our coating processes and technical capabilities

How does Cerakote hold up on high-wear automotive components?

Automotive components like brake calipers, shift knobs, door handles, and engine covers endure constant mechanical contact and thermal cycling. Cerakote's 9H pencil hardness resists scratching from tools and debris, while 4,000 cycles per mil abrasion resistance maintains finish integrity through years of use. The temperature range from -40°F to 2,000°F covers everything from frozen winter starts to sustained high-RPM exhaust temperatures.

How does sandblasting prepare medical device components?

Medical device substrates receive controlled blasting at parameters selected to achieve surface cleanliness and profile without embedding contaminants. For implantable or fluid-contact devices, media selection avoids materials that could leave biocompatibility-affecting residue. Blast pressure is matched to the substrate, with thin-wall and delicate medical components processed at 40-60 PSI. Parts proceed directly to ultrasonic cleaning and coating to maintain surface condition.

Can AM post-processing produce show-quality finishes on 3D-printed automotive parts?

Yes. Our post-processing sequence eliminates the layer lines and rough texture that identify parts as 3D-printed. Controlled blasting at 40-60 PSI levels the surface, and Cerakote at 0.5-2 mils fills remaining texture to achieve surface roughness below 3 micrometers. With 200+ colors and custom matching to Delta E 1.5, the finished result is visually indistinguishable from injection-molded or machined components. This show-quality capability makes AM viable for visible interior and engine bay components.

Can polymer coating protect defense components in marine environments?

Yes. Defense equipment deployed in marine environments faces salt spray, humidity, and chemical exposure simultaneously with mechanical stress from vibration and handling. Polymer coating provides flexible corrosion protection that maintains adhesion through the flexing and impact conditions of shipboard and littoral deployment. Combined with proper surface preparation, polymer coating delivers long-term corrosion protection in the demanding marine-defense environment.

Is polymer coating suitable for components that experience thermal cycling?

Yes. Polymer coating's flexibility makes it particularly well-suited for components that cycle between temperature extremes. The coating expands and contracts with the substrate without cracking, delaminating, or losing adhesion. This thermal cycling durability is critical for engine components, exhaust systems, industrial process equipment, and outdoor installations that experience daily or operational temperature swings. Cerakote V-Series handles extreme heat up to 2,000 degrees F, but polymer coating handles the flex that comes with thermal cycling better.

Start Your Aerospace Coating Project

Send us your parts list, specifications, and timeline. We respond within 24 hours with a technical approach and firm pricing.