This curriculum spans the technical and organisational complexity of multi-site continuous improvement programmes, addressing the same material flow challenges encountered in enterprise Lean deployments, cross-functional Six Sigma projects, and technology integration initiatives.
Module 1: Foundations of Material Flow Analysis in Operational Systems
- Selecting appropriate boundary definitions for material flow mapping in multi-site manufacturing networks
- Integrating material flow data with existing ERP and MES systems for real-time visibility
- Deciding between discrete event simulation and static flow analysis based on process variability
- Standardizing unit metrics (e.g., kg/hour, pallets/shift) across departments with differing operational rhythms
- Addressing discrepancies between accounting-based inventory records and physical flow observations
- Establishing ownership of material flow data between logistics, production, and procurement teams
Module 2: Value Stream Mapping for Physical Material Movement
- Determining takt time alignment when downstream assembly lines operate on mixed models with variable cycle times
- Mapping shared material paths used by multiple product families with different routing logic
- Deciding whether to include supplier inbound logistics within the value stream boundary
- Handling non-value-added transport steps that are contractually locked with third-party logistics providers
- Resolving conflicts between observed material batch sizes and engineered standard work sequences
- Updating value stream maps in real time during equipment reconfigurations or line rebalancing
Module 3: Lean Material Handling and Pull System Design
- Sizing kanban containers when material density varies across production runs
- Designing supermarket replenishment rules for shared components used across product platforms
- Implementing milk-run routes with dynamic scheduling based on real-time consumption signals
- Managing kanban card proliferation in high-mix, low-volume environments
- Integrating electronic kanban systems with legacy PLC-controlled material delivery carts
- Adjusting pull system parameters during planned downtime or seasonal demand shifts
Module 4: Integrating Six Sigma with Material Flow Optimization
- Defining defect criteria for material handling (e.g., damage, misrouting, delay thresholds)
- Conducting gage R&R studies on manual material tracking logs versus automated sensors
- Selecting CTQ characteristics for material flow: dwell time, handling frequency, or route adherence
- Using DMAIC to reduce variation in line-side inventory levels across shifts
- Validating root causes of material flow bottlenecks using ANOVA across work cells
- Deploying control charts for material delivery cycle time with dynamic control limits
Module 5: Inventory Strategy and Flow Synchronization
- Setting dynamic min/max levels in supermarkets based on forecast volatility and lead time uncertainty
- Deciding where to place decoupling points in flow lines with unreliable equipment uptime
- Aligning safety stock calculations with material criticality and obsolescence risk
- Coordinating cross-dock operations with inbound supplier delivery windows
- Managing WIP limits in shared processing zones with competing production priorities
- Reconciling lean inventory targets with financial reporting requirements for asset valuation
Module 6: Technology Integration for Material Flow Visibility
- Selecting between RFID, barcode, and IoT sensor networks for tracking bulk materials
- Designing data architecture to integrate material location updates with production scheduling
- Calibrating AGV routing algorithms to avoid congestion during shift changes
- Validating real-time dashboard accuracy when network latency affects sensor data
- Implementing digital twin models for material flow with acceptable fidelity and update frequency
- Managing cybersecurity protocols for wireless material tracking systems in regulated environments
Module 7: Governance and Cross-Functional Alignment
- Establishing material flow KPIs that balance lean efficiency with logistics service levels
- Resolving ownership conflicts between plant managers and supply chain planners on buffer locations
- Conducting material flow audits with standardized checklists across global facilities
- Updating standard work instructions when material routing changes impact labor tasks
- Managing change control for material flow modifications in FDA- or ISO-regulated processes
- Facilitating improvement events with unionized labor when material handling roles are affected
Module 8: Sustaining Flow Improvements and Scaling Initiatives
- Embedding material flow reviews into regular production board meetings with shift supervisors
- Developing escalation protocols for recurring material blockages at bottleneck workstations
- Scaling successful pull systems from pilot lines to full production with phased rollout plans
- Updating training materials for new hires when material delivery methods are automated
- Conducting periodic flow path assessments after facility layout modifications
- Measuring cultural adoption of flow principles through observed behaviors, not just audit scores
