Instant Tool Coating Price Quote

Common PVD tool coatings include titanium nitride (TiN), titanium carbo-nitride (TiCN), aluminum titanium nitride (AlTiN), and chrome nitride (CrN). Each is chosen for different combinations of wear resistance, lubricity, heat performance, corrosion resistance, and material-release behavior. Surface Solutions also offers Alpha™ coating for applications where reducing galvanized buildup, chipping, polishing, or sharpening frequency is important.

Thermal spray aluminum coating pricing is separate from PVD tool coating pricing and depends on the part size, surface area, preparation requirements, coating thickness, quantity, and required finishing. Surface Solutions’ listed specialty is high-performance PVD coating for industrial tooling, so an accurate quote should begin by confirming whether your application requires thermal spray aluminum or a PVD finish better suited to the tool and process.

Include the tool type, base material, overall dimensions, quantity, current condition, and the application or material being processed. It is also helpful to identify the problem you want to solve, such as galling, chipping, excessive heat, short life, or buildup. Photos and prior coating information can further help determine the appropriate PVD option and prepare a more useful quote.

The best coating depends on the cutting tool material, workpiece material, cutting speed, heat, lubricant use, and failure mode. AlTiN is commonly considered where heat resistance matters, while TiN, TiCN, and CrN each offer distinct surface-performance benefits. A coating recommendation should account for the complete cutting application rather than relying on color or a single general-purpose choice.

Used tools can often be coated after they have been properly inspected, cleaned, and prepared. Their condition matters: damaged edges, corrosion, residual buildup, or worn geometry may need attention before coating. For tools that will be resharpened, the coating sequence should be planned so the finished cutting edges and surfaces receive the intended protection and performance benefits.

PVD coatings create a hard, thin surface layer that can reduce friction, resist abrasive wear, manage heat, and limit material adhesion. These improvements can reduce edge wear, galling, buildup, and chipping in the right application. By protecting the working surfaces, a suitable coating can help tools produce more parts before maintenance, polishing, or resharpening is required.

Turnaround depends on the coating selected, tool quantity, condition, preparation needs, and current production scheduling. A complete quote request lets the coating provider review the work and establish realistic timing before processing begins. Supplying accurate dimensions, quantities, tool material, and application details early helps avoid delays caused by missing technical information or unsuitable coating selection.

Many cutting and forming tools can be resharpened and recoated when their base material and geometry remain suitable for continued use. Resharpening typically removes coating from the ground area, so recoating restores protection to the working surfaces. Inspection is important before recoating to identify damage, excessive wear, or dimensional changes that could affect performance in production.