- Stick electrodes 58
- MIG/MAG flux-cored wires 49
- MIG/MAG solid wires 36
- TIG rods 30
- Solders & fluxes 64
- Hardfacing 20
- Thermal spraying 37
- Polymer coatings 9
- Welding torch 127
- Welding equipment 16
- Plasma cutting 15
- Welding accessories 6
- Oxyfuel technology and gas supply 1
- Occupational health and safety 11
Eutalloy RW 12112 metal powder mixture
1.101.766,74 Ft 220.353,35 Ft / kgfor wear-resistant coatings
Eutalloy RW 12494
554.738,88 Ft 138.684,72 Ft / kgMetal powder for heat-resistant coatings
Eutalloy RW 12495
553.098,16 Ft 138.274,54 Ft / kgMetal powder for heat-resistant coatings
Eutalloy RW 12496 Metal powder
550.551,81 Ft 137.637,95 Ft / kgfor hot wear resistant coatings
Eutalloy RW 12999 metal powder mixture
250.755,03 Ft 50.151,01 Ft / kgfor highly wear-resistant coatings
Eutalloy RW 12525 metal powder
275.447,46 Ft 55.089,49 Ft / kgMetal powder for corrosion and wear-r...
Eutalloy RW is a product line within the Eutalloy range by Castolin Eutectic, tailored for particular repair, wear protection, and coating applications. The products from this range are alloy powders for anti-wear protective coating of steels, nickel-alloy steels and cast iron. While the Eutalloy line includes a variety of alloys designed for thermal spraying to combat wear, corrosion, and thermal degradation, Eutalloy RW focuses on specific challenges that require a certain composition or particle size for optimal performance.
Flame spraying with subsequent melting - Eutalloy RW
The coating is applied in two steps. The spray powder is melted and sprayed onto the workpiece. The workpiece is subjected to a temperature of 100 - 300 °C. Generally, a coating thickness of 0.1 - 0.2 mm/pass is applied.
The coatings are applied with CastoDyn DS 8000.
After spraying, the coating is melted using an oxy-acetylene torch, ovens with and without shielding gas or resistance and HF induction heating. To ensure safe melting and diffusion bonding, the coating thickness must be limited to 2 mm. Melting must be completed 15 minutes after the start of heating in order to avoid boron burn-off and the associated reduction in wear resistance and hardness. The coating thickness is reduced by around 20 % during melting.
The solidus temperature of the base material must be higher than that of the spray additive.