Modeling of Thrust Force and Tool Wear and Optimization of Process Parameters in Drilling Nickel-Based Alloy GH536

M.H. Wang; Shu Tao Huang

doi:10.4028/www.scientific.net/AMR.188.360

Paper Titles

Tool with Heavy-Duty Machining Tube Section of the Fatigue Analysis
p.344

Ball-End Milling Force Modeling and Simulation Based on Cutting Path Optimization Experiments
p.348

The Simulation of Cutting Force during High-Speed Milling of Die Steel Cr12MoV
p.352

Calculation of Indentation Hardness Based on Indentation Energy
p.356

Modeling of Thrust Force and Tool Wear and Optimization of Process Parameters in Drilling Nickel-Based Alloy GH536
p.360

Influence of the Sharpening Methods for Drill Flank Surfaces on the Compressive Strength of PCD Inserts
p.364

Finite Element Method Modeling Approaches in Grinding
p.368

Finite Element Method Simulation of Drilling Process on Metal-Matrix Composites
p.372

Research on Fabrication Technology and Hydraulic Performance of Multi-Point Gear Flow Dividers
p.376

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 188Modeling of Thrust Force and Tool Wear and...

Modeling of Thrust Force and Tool Wear and Optimization of Process Parameters in Drilling Nickel-Based Alloy GH536

Abstract:

. In this study, the prediction models of thrust force, tool wear and torque in drilling nickel-based alloy GH536 are developed based genetic algorithm and drilling experiments. Tool wear value is used as constraint condition and maximum cutting efficiency as goal to optimize drilling process parameters. In addition, the relationship between tool life and cutting efficiency is analyzed by exploiting the tool wear prediction model. The results of the analysis show that under the condition of efficiency remains unchanged, the tool life can be increased by increasing drilling speed and appropriately reducing feed rate, these results are consistent with the optimized process parameters.