Ceramic Sand B100 for Shot Peening and Brightening of Golf Club Heads

Zirconia Beads B60 Particle Size 0.125-0.25mm Ceramic Beads Abrasive for Titanium Exchanger Sandblasting

The significant advantage of zirconia beads for shot blasting is their high durability and the ability to be cycled dozens of times. Zirconia bead ceramic sand has low magnetic content and high spheroidization rate, making it suitable for forming a matte and glossy sandblasting surface.

The significant advantage of zirconia beads for shot blasting is their high durability and the ability to be cycled dozens of times. Zirconia bead ceramic sand has low magnetic content and high spheroidization rate, making it suitable for forming a matte and glossy sandblasting surface.

Characteristics of ceramic sand zirconia beads for sandblasting:

1. High specific gravity, high wear resistance coefficient, high mechanical strength, Mohs hardness of 7.0, suitable for most metal alloy materials.

2. Spherical particles will not scratch the metal surface, and can also eliminate stress and improve the surface brightness of the sandblasted material.

3. The crystal size of zirconia is small, and its high strength and dense organizational structure can prevent particle breakage and prevent the generation of dust.

4. The main chemical components of ceramic sand are zirconia, silica, and alumina, with low magnetic content and iron content below 0.1%, which will not produce metal iron residues.

5. The number of cycles and shot peening smoothness are tens of times better than glass beads.

Characteristics of zirconium silicate beads /zirconia beads/ Ceramic Beads B60 for sandblasting:

1. It has a significant weight, high wear resistance coefficient, high mechanical strength, and a Mohs hardness of 7.0, suitable for most metal alloy materials.

2. Spherical particles will not scratch the metal surface, and can also eliminate stress and improve the surface brightness of the sandblasted material.

3. The crystal size of zirconia is small, and its high strength and dense organizational structure can prevent particle breakage and prevent the generation of dust.

4. The main chemical components of ceramic sand are zirconia, silica, and alumina, with low magnetic content and iron content below 0.1%, which will not produce metal iron residues.

5. The number of cycles and shot peening smoothness are tens of times better than glass beads.

Chemical composition of ceramic sand:

Physical indicators of ceramic sand:

Production specifications:

Note: Custom specifications are accepted.

Applications of zirconium silicate zirconia beads:

1. Mechanical industry, such as shot peening brightening of precision molds, gears, and bearings. Also used for cleaning burrs and flashes from molds and mechanical parts.

2. Medical devices, such as surgical instruments, artificial joints, and human implant alloy materials sandblasting brightening, achieving a bright yet non-reflective surface effect.

3. Surface shot peening treatment for high-speed rail and automotive parts. Can be used for sandblasting surfaces of high-speed rail aluminum alloy components, automotive engine casings, automotive wheels, new energy vehicle parts, etc., enhancing metallic texture and forming a smooth satin effect, preparing for subsequent surface painting. Additionally, zirconium silicate zirconia bead shot peening can improve fatigue strength and enhance the impact resistance of alloy components.

4. Electronics, such as sandblasting metal casings for mobile phones, tablets, and smartwatches. After shot peening, the metal casings have a uniform and soft matte brightening effect, along with anti-fingerprint touch characteristics.

5. Daily use fields, such as alloy components of kitchenware and sports equipment. After sandblasting with zirconium silicate zirconia beads, the surface metal effect is fine, antibacterial, and prevents fingerprint residue. Can replace chemical methods for brightening treatment, preventing chemical pollution and improving surface treatment efficiency.

6. Aerospace components, such as improving the fatigue resistance of aircraft wings, turbine blades, gears, landing gear, and other aviation mechanical components, and eliminating surface stress.