This curriculum spans the full lifecycle of setup optimization in lean manufacturing, equivalent in depth to a multi-workshop operational excellence program, covering everything from time-motion analysis and SMED implementation to cross-functional integration with maintenance, supply chain, and production scheduling across multiple sites.
Module 1: Defining and Classifying Setup Activities
- Conduct time-motion studies to distinguish internal from external setup tasks using stopwatch analysis and process observation.
- Map current-state setup procedures using value stream mapping to identify non-value-added steps such as tool searching or misaligned changeover sequences.
- Standardize nomenclature for setup types (e.g., product, batch, mold, fixture) across departments to ensure consistent reporting and tracking.
- Classify setups by complexity and duration to prioritize improvement efforts on high-frequency, high-downtime operations.
- Engage machine operators in defining setup boundaries to avoid misclassification of tasks that straddle production and maintenance responsibilities.
- Implement a setup taxonomy in the manufacturing execution system (MES) to enable data-driven prioritization and performance benchmarking.
Module 2: Applying SMED Principles and Techniques
- Convert internal setup steps to external by pre-staging tooling, jigs, and materials at point-of-use locations near equipment.
- Redesign changeover sequences using parallel work methods, assigning specific roles to team members to eliminate idle time.
- Implement quick-release mechanisms (e.g., hydraulic clamps, standardized connectors) to replace manual bolting and alignment procedures.
- Use video recordings of changeovers to identify wasted motion and validate the effectiveness of SMED interventions.
- Develop setup kits with labeled, serialized components to reduce search and verification time during changeovers.
- Apply tolerance charts and preset gauges to eliminate trial runs and reduce adjustment cycles during equipment calibration.
Module 3: Data Collection and Performance Measurement
- Deploy real-time downtime tracking systems to capture setup duration, root cause codes, and operator inputs at the machine level.
- Define and calculate OEE loss components attributable to setup time, separating availability loss from performance and quality losses.
- Establish baseline setup times using historical production logs and validate with direct observation to avoid data distortion.
- Implement a standardized setup time reporting template across shifts to ensure consistency in data entry and reduce variance.
- Use statistical process control (SPC) charts to monitor setup time stability and detect special-cause variation after process changes.
- Integrate setup performance metrics into daily management reviews to maintain visibility and accountability at the operational level.
Module 4: Operator Engagement and Standard Work
- Develop setup standard work documents with visual work instructions, torque specifications, and sequence checklists for each product family.
- Assign setup ownership to cross-trained operators and include setup KPIs in individual performance evaluations.
- Conduct regular setup readiness audits to verify availability and condition of tools, dies, and documentation prior to changeovers.
- Implement shadow boards and labeled storage systems to reduce tool retrieval time and prevent loss or misplacement.
- Facilitate operator-led kaizen events focused on eliminating specific pain points in high-frequency changeovers.
- Require sign-off on setup verification forms to ensure all safety, quality, and calibration steps are completed before production restart.
Module 5: Equipment and Process Design for Quick Changeover
- Specify quick-change tooling interfaces during capital equipment procurement to ensure compatibility with existing SMED standards.
- Modify machine guarding to allow access for external adjustments without full lockout/tagout procedures where safety permits.
- Design modular fixtures that accommodate multiple part variants using adjustable locators and standardized mounting patterns.
- Integrate automatic die recognition systems with PLC logic to reduce setup verification and parameter input errors.
- Relocate utilities (air, hydraulic, electrical) with quick-connect fittings to minimize hose and cable connection time.
- Collaborate with maintenance engineering to align preventive maintenance schedules with planned changeover windows.
Module 6: Supply Chain and Material Flow Integration
- Coordinate with logistics to deliver changeover materials (e.g., raw stock, packaging) on sequenced carts synchronized with production schedules.
- Implement FIFO lanes with visual level indicators to ensure material availability without overstocking at changeover points.
- Align setup timing with inbound delivery windows to avoid idle time waiting for changeover-specific components.
- Design changeover staging areas with gravity-fed conveyors and height-adjustable tables to reduce manual handling.
- Link setup completion signals to downstream processes via andon systems to trigger material replenishment or line restart.
- Negotiate with suppliers to standardize material packaging dimensions to reduce adjustments during feed mechanism changes.
Module 7: Sustaining Improvements and Scaling Across Sites
- Embed setup time targets into production control algorithms to influence scheduling and batch size decisions.
- Conduct monthly setup performance reviews with operations, maintenance, and engineering to address recurring failure modes.
- Develop a central repository for proven setup improvements to enable replication across similar equipment and plants.
- Audit setup standard work adherence during gemba walks and include findings in site-level continuous improvement scorecards.
- Revise training curricula for new hires to include hands-on setup simulations and SMED best practices.
- Establish a tiered escalation process for unresolved setup bottlenecks, defining response times and cross-functional ownership.