Safe Height
Safe plane height for rapid tool movement.
On the shop floor, Safe Height can be understood as: Safe plane height for rapid tool movement. Cycle design decisions here influence both takt time and process resilience. Treating it as controlled process data reduces shift-to-shift variation. Link wear strategy to operation phase so quality remains stable across tool life.
Best-Practice Steps
- Set step-over and step-down based on tool capability and geometry.
- Confirm chip evacuation before increasing material removal rate.
- Simulate holder clearance and non-cutting travel with real setup limits.
- Segment complex operations for safer prove-out and restart.
Early Indicators
- Chip packing in deep or enclosed features
- Inconsistent finish between similar contours
- Localized chatter at entry or corner segments
Stability Risks
Poorly defined restart points increase scrap risk after interruptions. CAM-efficient paths can still be unstable at the machine without transition control.
Scaling to Batch Production
Teams usually stabilize this area by treating entry and exit strategy as first-class process parameters.
- Keep setup records and inspection evidence linked to each process revision.
- Re-validate after tooling, fixture, or control-logic changes.
- Use first-article and restart checks as mandatory release gates.
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