Skip to main content

Non Value Adding Activities in Lean Practices in Operations

$199.00
Your guarantee:
30-day money-back guarantee — no questions asked
When you get access:
Course access is prepared after purchase and delivered via email
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.
Who trusts this:
Trusted by professionals in 160+ countries
How you learn:
Self-paced • Lifetime updates
Adding to cart… The item has been added

This curriculum spans the diagnostic, analytical, and systemic intervention stages of lean waste reduction, comparable in scope to a multi-phase operational improvement program that integrates value stream analysis, root cause investigation, and enterprise-wide alignment across manufacturing and service environments.

Module 1: Identifying and Classifying Non-Value-Adding Activities

  • Determine whether inspection steps in a manufacturing line are necessary or redundant based on historical defect rates and process capability data.
  • Map customer-defined value against current process steps to distinguish between value-adding, necessary non-value-adding, and pure waste activities.
  • Decide whether rework loops in a service process should be classified as non-value-adding despite being required due to current error rates.
  • Classify waiting times in a hospital patient flow as transportation, delay, or motion waste depending on root cause and process ownership.
  • Assess if internal reporting tasks in a supply chain function meet regulatory requirements or are perpetuated by legacy expectations.
  • Use time studies to quantify the proportion of operator time spent on searching for tools versus actual assembly tasks.

Module 2: Value Stream Mapping for Waste Detection

  • Select appropriate scope boundaries for a value stream map when processes span multiple departments with conflicting performance metrics.
  • Decide whether to include supplier lead times in the current state map when procurement contracts limit immediate influence.
  • Document information flow delays separately from material flow to isolate IT system bottlenecks from physical constraints.
  • Validate process cycle efficiency by reconciling observed lead times with ERP system timestamps and shift logs.
  • Negotiate access to real-time production data versus relying on end-of-shift summaries that mask intra-day variability.
  • Determine the frequency of map updates when process changes occur incrementally across a multi-site operation.

Module 3: Quantifying the Impact of Waste

  • Calculate labor cost attributable to overproduction by tracing excess inventory back to production scheduling algorithms.
  • Estimate carrying costs of work-in-process inventory using weighted average capital cost and warehouse utilization rates.
  • Attribute machine downtime to specific waste categories (e.g., waiting vs. defects) using maintenance logs and production records.
  • Model the cost of defects by including downstream rework, customer complaint handling, and potential contract penalties.
  • Compare the cost of expediting shipments against baseline logistics spend to assess the financial impact of poor planning.
  • Use activity-based costing to allocate overhead expenses to non-value-adding administrative tasks in a finance department.

Module 4: Root Cause Analysis for Persistent Waste

  • Choose between 5 Whys and fishbone diagrams based on team familiarity and data availability during a kaizen event.
  • Validate whether a perceived root cause of material handling waste is actually a symptom of upstream scheduling instability.
  • Decide whether to involve union representatives in root cause sessions when process changes may affect job classifications.
  • Document countermeasures that address root causes without creating new bottlenecks in adjacent process steps.
  • Use Pareto analysis to prioritize which defect types to investigate first based on frequency and cost impact.
  • Assess whether variation in operator technique is due to inadequate training or inconsistent work instructions.

Module 5: Designing Waste-Reduction Interventions

  • Select point-of-use storage configurations that minimize motion waste without increasing inventory carrying costs.
  • Redesign changeover procedures to reduce setup time while maintaining product quality and safety compliance.
  • Implement visual management tools in multilingual environments without relying on text-based signage.
  • Introduce pull systems in mixed-model production lines where demand forecasting remains highly variable.
  • Modify workflow layouts to eliminate backtracking while respecting existing building infrastructure constraints.
  • Integrate mistake-proofing devices into legacy equipment without requiring full automation upgrades.

Module 6: Sustaining Improvements and Preventing Backsliding

  • Define audit frequency and ownership for standardized work documents across rotating shift teams.
  • Balance the need for continuous improvement with operational stability during peak production periods.
  • Integrate waste metrics into existing KPI dashboards without overwhelming frontline supervisors.
  • Respond to temporary workarounds during equipment failure without allowing them to become permanent practices.
  • Update training materials and onboarding processes to reflect revised workflows after kaizen events.
  • Manage resistance to change when supervisors are evaluated on output metrics that previously incentivized overproduction.

Module 7: Scaling Lean Waste Reduction Across the Enterprise

  • Align waste reduction goals with corporate financial objectives to secure executive sponsorship for lean initiatives.
  • Adapt lean tools for non-manufacturing functions such as HR and IT where value streams are less visible.
  • Coordinate improvement efforts across divisions that use different ERP systems and data formats.
  • Establish a center of excellence while avoiding bureaucratic overhead that slows site-level problem solving.
  • Negotiate shared metrics for cross-functional processes where departments have competing performance incentives.
  • Standardize waste classification protocols across global sites with different regulatory and labor environments.