How this is measured:
Comprehensive score combining process velocity (30%), value-added ratio (25%), consistency index (25%), and automation potential (20%). Each component is weighted based on industrial engineering best practices.
Why this is measured:
Provides a single, actionable metric for executive decision-making. Enables quick comparison across different processes and time periods to track improvement initiatives.
Process Velocity
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steps/min
Target: 2.5 steps/min
Process Velocity
How this is measured:
Total number of completed assembly steps divided by total process time in minutes. Calculated as: (Step Count รท Total Duration in Minutes).
Why this is measured:
Higher velocity indicates efficient workflow and skilled execution. Critical for capacity planning, resource allocation, and identifying training needs.
Value-Added Ratio
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%
Target: 75%
Value-Added Ratio
How this is measured:
Percentage of time spent on activities that directly contribute to product assembly versus non-value-added activities (waiting, searching, rework). Formula: (Value-Added Time รท Total Time) ร 100.
Why this is measured:
Core lean manufacturing metric. Higher ratios indicate efficient processes with minimal waste. Essential for identifying improvement opportunities and cost reduction initiatives.
Automation Potential
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--
%
Opportunity Score
Automation Potential
How this is measured:
AI analysis of step repetitiveness, complexity, and tool requirements. Scores steps based on automation feasibility using machine learning algorithms trained on industrial automation patterns.
Why this is measured:
Identifies opportunities for robotic automation and digital transformation. Critical for strategic planning, ROI calculations, and competitive advantage in Industry 4.0.
Advanced Process Insights
Overall Score
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/ 100
Advanced Overall Score
How this is measured:
Comprehensive scoring algorithm that combines multiple process dimensions including efficiency, consistency, complexity, and optimization potential using advanced analytics.
Why this is measured:
Provides a holistic view of process performance for strategic decision-making and continuous improvement initiatives.
Process Quality
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%
Process Quality Index
How this is measured:
Evaluates consistency, precision, and adherence to best practices across all process steps using statistical analysis.
Why this is measured:
Quality metrics directly correlate with customer satisfaction and operational excellence. Essential for maintaining competitive advantage.
Bottlenecks
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issues
Bottleneck Detection
How this is measured:
AI-powered analysis identifies process constraints using statistical methods, flow analysis, and pattern recognition algorithms.
Why this is measured:
Bottlenecks limit overall throughput and efficiency. Identifying and addressing them is critical for process optimization and capacity planning.
Optimization Recommendations
Process Bottlenecks
Workflow Pattern Analysis
Process Steps Analysis
Step #
Step Name
Duration
Tools
Value Category
Complexity
Improvement Potential
Actions
Advanced Bottleneck Analysis
Impact Percentage
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Threshold
--
Flow Efficiency
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Average Delay
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Frequency
--
๐ก Optimization Opportunities
๐ฎ Predictive Insights
Performance Trend
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Performance Trend Analysis
How this is measured:
Machine learning algorithms analyze historical performance patterns, step timing variations, and quality indicators to predict future performance trends.
Why this is measured:
Predictive analytics enable proactive process management, early intervention for performance degradation, and strategic capacity planning.
Improvement Potential
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Improvement Potential Assessment
How this is measured:
AI-powered analysis evaluates current performance against industry benchmarks and identifies specific areas with highest optimization potential using advanced algorithms.
Why this is measured:
Quantifies the business case for process improvements, helps prioritize optimization efforts, and estimates ROI for enhancement initiatives.
Fatigue Detection
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Operator Fatigue Analysis
How this is measured:
Analyzes timing patterns, movement consistency, and performance degradation over time to detect signs of operator fatigue or learning curve effects.
Why this is measured:
Fatigue impacts quality, safety, and efficiency. Early detection enables better workforce management, break scheduling, and ergonomic improvements.