Description

This curriculum spans the equivalent depth and breadth of a multi-workshop operational transformation program, addressing the technical, organizational, and systemic challenges encountered in enterprise-wide lean implementations across value streams, supply chains, and functional silos.

Module 1: Value Stream Mapping and Process Flow Analysis

Conduct time-based value stream mapping to distinguish value-added from non-value-added activities in mixed-model production environments.
Select appropriate data collection methods (e.g., stopwatch time studies vs. automated PLC logging) based on process stability and measurement accuracy requirements.
Determine the optimal level of process detail to include in current-state maps when dealing with cross-functional workflows involving multiple departments.
Address discrepancies between documented procedures and actual operator behavior during shop floor observations.
Integrate customer demand takt time calculations with existing batch production schedules to identify capacity mismatches.
Manage resistance from middle management when value stream analysis reveals underutilized resources or redundant roles.

Module 2: Waste Identification and Elimination Strategies

Classify overproduction in make-to-order environments where setup times prevent true one-piece flow.
Quantify the cost of excess inventory in climate-controlled storage with high carrying costs and obsolescence risks.
Implement visual management systems to detect motion and transportation waste in facilities with shared equipment across production lines.
Assess the impact of vendor-managed inventory agreements on perceived ownership of waste reduction responsibilities.
Balance defect prevention investments (e.g., poka-yoke devices) against the cost of end-of-line inspection in high-volume operations.
Establish standardized waste logging protocols across shifts to ensure consistent data for root cause analysis.

Module 3: Standardized Work and Workload Balancing

Develop standardized work instructions that accommodate operator skill variance without compromising cycle time targets.
Rebalance work elements across stations when introducing automation to a manual assembly line.
Adjust standard work documents in real time during product changeovers in high-mix manufacturing cells.
Resolve conflicts between union work rules and proposed changes to job content during line re-balancing.
Use time observation sheets to validate standard work under varying material delivery conditions.
Integrate andon escalation protocols into standardized work to define operator response to process deviations.

Module 4: Pull Systems and Kanban Implementation

Determine the appropriate number of kanban cards in a dual-card system accounting for supplier lead time variability.
Design supermarket sizing for shared components used across multiple product families with fluctuating demand.
Transition from push-based MRP releases to pull signals without disrupting on-time delivery performance.
Address operator non-compliance with kanban rules due to production pressure or expediting demands.
Integrate electronic kanban systems with legacy ERP platforms using middleware solutions.
Manage kanban replenishment in multi-tier supply chains where suppliers operate on different production cycles.

Module 5: Continuous Flow and Cellular Manufacturing

Redesign machine layout to enable continuous flow while minimizing capital expenditure on new equipment.
Resolve bottlenecks in U-shaped cells caused by uneven operator pacing or machine downtime.
Implement cross-training programs to ensure flexibility without degrading quality on complex tasks.
Evaluate the trade-off between dedicated cells for high-volume products and flexible cells for low-volume items.
Modify cell boundaries in response to new product introductions that don’t fit existing process families.
Maintain 5S standards in high-utilization cells where maintenance and changeovers generate frequent disruptions.

Module 6: Total Productive Maintenance (TPM) Integration

Develop autonomous maintenance checklists that operators can perform without interfering with production schedules.
Allocate budget for preventive maintenance during periods of high customer demand.
Track overall equipment effectiveness (OEE) by failure mode to prioritize improvement projects.
Coordinate maintenance shutdowns across interdependent production lines to minimize cascading downtime.
Integrate predictive maintenance technologies (e.g., vibration analysis) with existing CMMS systems.
Address cultural resistance from maintenance teams when transitioning from reactive to proactive maintenance models.

Module 7: Kaizen Events and Sustaining Continuous Improvement

Select kaizen event scope based on potential impact versus organizational readiness for change.
Secure participation from key stakeholders (e.g., engineering, quality, logistics) without disrupting their core responsibilities.
Document and track follow-up actions from kaizen events using a centralized improvement management system.
Measure the sustainability of kaizen outcomes over a 90-day post-event period using process control charts.
Adapt kaizen facilitation techniques for virtual or hybrid teams in geographically dispersed operations.
Align improvement metrics from kaizen events with plant-level KPIs to demonstrate business impact.

Module 8: Lean Performance Measurement and Governance

Define leading versus lagging indicators for lean initiatives to enable proactive intervention.
Integrate lean metrics (e.g., first-pass yield, changeover time) into operational review meetings with executive leadership.
Balance scorecard development across safety, quality, delivery, cost, and morale dimensions in unionized environments.
Address data integrity issues when manual reporting systems are used for lean performance tracking.
Adjust performance targets in response to external factors such as raw material shortages or regulatory changes.
Establish escalation protocols for when process metrics deviate beyond control limits for three consecutive periods.