Capabilities
Durable, protective color finishes on metal parts—matte, gloss, and textured options for production and custom runs.
Availability depends on partner capacity and region. Request a quote to confirm process, color, and lead time.
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Artemis 3D offers powder coating as a value-added finishing option alongside primary manufacturing—CNC machining, sheet metal, casting, stamping, and more. Specify color, finish, and coverage in your quote so suppliers can plan masking, hanging, and cure. Finishing is often quoted together with the parts it coats; confirm with your supplier whether standalone coating of customer-supplied parts is offered.
Powder coating applies a continuous, protective layer in many colors—reds, blues, blacks, neutrals, and more—with matte, satin, gloss, and textured appearances. It protects aluminum, steel, and other metals from weathering, corrosion, and impact in applications from appliances and automotive trim to architectural metal and consumer products.
Powder coating applies dry, electrostatically charged thermoset or thermoplastic powder to a grounded metal part. Particles adhere to the surface until the part is heated in a cure oven, where the powder flows and fuses into a uniform, durable film. The result is corrosion resistance, scratch resistance, and vibrant color without the solvent load of liquid paint.
Application differs from liquid paint: the process is typically broken into clear stages. Exact parameters depend on powder chemistry, substrate, and line configuration.
Polymer, hardeners, pigments, and additives are blended, extruded, cooled, and milled into a uniform, fine powder ready for application.
Parts are cleaned and pretreated—degreasing, blasting, phosphating, or other steps as required—so oils, oxides, and contaminants do not undermine adhesion. Proper prep is essential for durability.
Dry powder is sprayed through a gun that electrostatically charges particles so they adhere to the grounded part. Nozzle selection and gun paths follow part geometry; fluidized beds are used in some high-volume lines.
Coated parts enter an oven (often roughly 350–400 °F for thermoset systems, depending on powder spec) so the coating flows and cross-links into a continuous film. UV-curable powders are an option for heat-sensitive substrates.
After cure, coatings are checked for coverage, thickness, adhesion, and cosmetic defects. Touch-up or rework follows your quality plan.
Steps may vary by shop and powder. Your project’s surface type, thickness target, and end use drive the detailed recipe.
Finish appearance spans dead matte through high gloss, plus textures, wrinkles, and metallics. Standard offerings often default to a practical matte or satin unless you specify otherwise in your RFQ.
If you need a custom color match or specialty texture, note it during quoting and allow time for sample panels or approval samples.
Many ferrous and non-ferrous metals take powder well when pretreatment is correct. If your grade is not listed, ask your supplier for a compatibility review.
High strength, corrosion resistant—sheet metal, marine, architectural.
Lightweight structural alloy—machined brackets, frames, general hardware.
Very high strength—aerospace, high-stress structural parts.
Cast plate for tooling, fixtures, and precision bases.
Abrasion-resistant grades—wear plates, targets, heavy-duty equipment.
High strength-to-weight—automotive, bicycle, tubular products.
General corrosion resistance—food, medical, architectural.
Higher corrosion resistance—marine, chemical, demanding environments.
Weldable structural steel—plates, frames, general fabrication.
Structural shapes, sheet, and bar stock for fabricated assemblies.
Hardened tooling—wear resistance and strength for dies, punches, fixtures.
Powder coatings form a tough, bonded layer that resists chipping, abrasion, and corrosion better than many liquid paints when applied correctly.
Matte through gloss, textures, and metallics—consistent color across a batch when the same powder and process are used.
Dry application avoids most solvent-based VOCs from liquid spray paints. Overspray can often be reclaimed.
High transfer efficiency and reclaimable overspray can reduce material waste versus conventional liquid paint for many jobs.
If the surface can be grounded, cleaned, and heated through cure without damage, many metal assemblies are good candidates. Examples include:
Suitability depends on material, coating system, and pretreatment. Special cases may use primers or low-temp cures. In general, avoid assuming standard powder coating for:
Typical film builds add roughly 0.006″–0.012″ per surface (verify with your supplier). That can affect slip fits, threads, and holes. Too thin may fail corrosion or appearance goals; too thick can cause orange peel or tolerance issues.
Porous castings or welds may need primer or extra prep. Surfaces must be clean, dry, and free of oils and mill scale for best adhesion.
Use the same powder batch and process across a lot for consistent color. Different powders or cure conditions can shift shade.
Part size, complexity, masking, color changes, and quantity all affect price. Very complex geometry may favor plating or liquid paint in rare cases—compare quotes.
Combine manufacturing, finishing, color, and inspection requirements in one RFQ workflow.
Quote parts and finishing together instead of sourcing paint shops separately without drawings.
Connect with finishers who match your volume and quality expectations—not generic one-size fits all.
Upload CAD, note color and finish, and specify masked areas or critical dimensions.