Wheelblast manipulators use programmable robots, grippers, fixtures and rotating holders to control how complex or delicate components enter a blast stream. Multi-axis motion manages position, dwell time and intensity without uncontrolled part-to-part contact.
| Equipment | Wheelblast manipulator system |
|---|---|
| Motion | Programmable multi-axis |
| Handling | Robotic grippers, holders and pallets |
| Process controls | Position, dwell time and intensity |
| Applications | Cleaning, localized preparation and controlled peening |
| Parts | Castings, machined parts, implants, aerospace parts and gears |
| Damage control | No uncontrolled part-on-part contact |
| Integration | Conveyors, loading and part recognition |
| Connectivity | Optional Industry 4.0 monitoring and traceability |
Multi-axis robots and programmable grippers adapt the part path to complex geometry. The system controls blast-stream position, dwell time and treatment intensity for each programmed surface.
Configurable holders and pallets keep parts secure and repeatable during the cycle.
Documented uses include castings, machined parts, medical implants, aerospace components and automotive gears. The platform also supports localized surface preparation before coating or bonding.
Controlled peening applications include fatigue-critical features such as gear teeth, turbine blades and valve components.
Non-contact handling avoids part-on-part impact, making the format appropriate for delicate, thin-walled or high-value workpieces.
Fixture design must prevent movement while keeping target faces clear of shadows and clamp marks.
Manipulator cells can integrate with loading systems, conveyors and part-recognition technology. Optional process monitoring supports Industry 4.0 connectivity and traceability.
Production validation should control fixture identity, program revision, media condition, dwell time and inspection results.
POLISHX technical profile ยท 2026-10-11 21:46:01