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Validation of risk-based quality control techniques: a case study from the automotive industry
1Department of Quantitative Methods, University of Pannonia, Veszprém, Hungary.
Journal of Applied Statistics
|August 29, 2022
Summary
This study validates risk-based quality control methods in the automotive industry. Laboratory experiments confirmed that these optimized risk-based approaches reduce costs associated with incorrect quality control decisions.
Area of Science:
- Industrial Engineering
- Manufacturing Systems
- Quality Management
Background:
- Effective quality control is crucial for production management.
- Measurement system performance significantly impacts quality control effectiveness.
- Existing risk-based conformity and process control solutions lack experimental validation.
Purpose of the Study:
- To verify and validate risk-based conformity control and control charts using laboratory experiments.
- To optimize acceptance intervals and control limits to minimize losses from incorrect decisions.
- To compare simulation-based results with experimental data in an automotive industry case study.
Main Methods:
- Application of risk-based conformity control and risk-based control charts.
- Optimization of acceptance intervals and control limits.
- Simulation of process and measurement errors.
- Laboratory measurement of all data points.
- Comparative analysis of simulation and experimental results.
Main Results:
- Demonstrated the practical applicability of risk-based approaches in real industrial settings.
- Quantified the cost reduction opportunities offered by simulation-based optimization.
- Validated the effectiveness of optimized risk-based methods in minimizing losses from incorrect decisions.
Conclusions:
- Risk-based quality control methods are applicable and effective in the automotive industry.
- Experimental validation confirms the benefits of risk-based approaches over traditional methods.
- Simulation provides a valuable tool for estimating cost reductions in quality control optimization.
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