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Single Minute Exchange in Lean Management, Six Sigma, Continuous improvement Introduction

Single Minute Exchange in Lean Management, Six Sigma, Continuous improvement Introduction

$251.00
How you learn:
Self-paced • Lifetime updates
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Course access is prepared after purchase and delivered via email
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Toolkit Included:
Includes a practical, ready-to-use toolkit containing implementation templates, worksheets, checklists, and decision-support materials used to accelerate real-world application and reduce setup time.
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This curriculum spans the full implementation lifecycle of SMED initiatives, comparable in scope to a multi-workshop operational turnaround program, covering diagnostic analysis, physical and procedural redesign, cross-functional coordination, integration with lean and Six Sigma systems, and technology-enabled scaling across production networks.

Module 1: Foundations of Single Minute Exchange of Die (SMED) in Lean Systems

  • Conduct value stream mapping to isolate changeover processes within production lines and quantify current changeover durations.
  • Differentiate between internal and external setup activities by observing live machine operations and classifying each task accordingly.
  • Establish baseline performance metrics such as Total Changeover Time and Setup Consistency across shifts for comparative analysis.
  • Engage cross-functional teams (production, maintenance, engineering) in defining the scope of SMED implementation to ensure operational alignment.
  • Document existing standard operating procedures for changeovers and identify deviations across operators or shifts.
  • Secure leadership commitment by presenting cost-of-delay calculations tied to extended changeover times in high-mix environments.

Module 2: Data Collection and Current State Analysis

  • Deploy time-motion studies using video recording and stopwatch methods to capture granular task sequences during changeovers.
  • Categorize each setup activity into preparation, disassembly, adjustment, verification, and cleanup phases for systematic review.
  • Map operator movements using spaghetti diagrams to identify non-value-added walking or searching during changeover events.
  • Quantify tool and component availability delays by auditing staging locations and material replenishment cycles.
  • Interview operators to document tacit knowledge and undocumented workarounds used during complex setups.
  • Validate data accuracy through cross-shift observations and reconcile discrepancies in recorded setup times.

Module 3: Separation and Conversion of Internal and External Activities

  • Redesign tooling carts to pre-stage dies, bolts, and adjustment tools outside the machine zone for external preparation.
  • Implement external pre-heating or pre-calibration of components to eliminate in-process thermal or alignment waits.
  • Convert internal die clamping steps to external positioning by installing guide rails and alignment pins.
  • Standardize tool requirements and create shadow boards to reduce tool search and selection time during changeovers.
  • Introduce pre-assembly jigs for multi-part components to enable external sub-assembly before machine downtime begins.
  • Revise work instructions to mandate completion of safety checks and documentation during machine run time.

Module 4: Streamlining and Simplifying Setup Operations

  • Replace traditional bolt-fastening with quick-release clamps or hydraulic locking mechanisms to reduce tightening cycles.
  • Implement standardized connectors for utilities (pneumatic, electrical, hydraulic) to eliminate trial-and-error hookups.
  • Integrate digital setup sheets with tablets at the machine to replace paper-based checklists and reduce verification errors.
  • Use color-coded or keyed components to prevent misalignment and incorrect die installation.
  • Eliminate fine-adjustment steps by improving die-to-machine fit through precision machining and tolerance control.
  • Redesign material handling paths to enable parallel staging of the next job while the current run is completing.

Module 5: Standardization and Visual Management

  • Develop step-by-step visual work instructions with annotated photos and torque specifications for each setup task.
  • Implement changeover scorecards at the machine to record actual vs. target times and track operator adherence.
  • Assign ownership of setup kits to specific roles and define accountability for kit replenishment after each changeover.
  • Install floor markings and shadowed tool layouts to ensure consistent staging and return of equipment.
  • Create a changeover sequence board to display the next job, required tools, and responsible personnel in real time.
  • Standardize die storage locations using labeled racks with first-in, first-out (FIFO) logic to reduce search time.

Module 6: Integration with Lean and Six Sigma Systems

  • Link SMED outcomes to Overall Equipment Effectiveness (OEE) calculations by isolating availability improvements from setup reduction.
  • Use DMAIC framework to validate root causes of setup variability and test countermeasures through controlled pilot runs.
  • Align SMED timelines with Kanban replenishment cycles to enable smaller batch sizes without capacity loss.
  • Incorporate changeover time as a key input in takt time calculations for mixed-model production lines.
  • Integrate SMED performance into daily lean management reviews with production supervisors and maintenance leads.
  • Apply statistical process control (SPC) to monitor setup consistency and detect operator or equipment drift over time.

Module 7: Sustaining Improvements and Organizational Scaling

  • Establish a tiered audit process to verify adherence to revised setup standards across shifts and production cells.
  • Train internal coaches to lead SMED workshops and replicate improvements in parallel production lines.
  • Update preventive maintenance schedules to include die and guide rail inspections that support consistent setup performance.
  • Institutionalize lessons learned by integrating successful SMED practices into capital equipment procurement specifications.
  • Measure labor cost impact of reduced setup times and reallocate freed capacity to value-added activities.
  • Scale SMED methodology to non-manufacturing areas such as test equipment configuration or software deployment pipelines.

Module 8: Advanced SMED Applications and Technology Integration

  • Deploy RFID tags on dies and tools to automate tracking and alert operators of missing components pre-setup.
  • Integrate SMED data with Manufacturing Execution Systems (MES) to trigger automatic job transitions and material calls.
  • Use augmented reality (AR) glasses to overlay setup instructions and alignment guidance during complex changeovers.
  • Implement automated guided vehicles (AGVs) to transport dies from storage to machine interface points on schedule.
  • Apply predictive analytics to forecast changeover duration based on product sequence, operator, and machine history.
  • Design modular tooling systems with plug-and-play interfaces to enable zero-adjustment changeovers for standardized families.
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