
Apply lean manufacturing principles to reduce waste and maximize value through practical tools, continuous improvement, and a culture shift that enhances quality and customer satisfaction.
Explore the definition and history of lean manufacturing, compare it with traditional methods, and examine how continuous improvement, value stream mapping, and Kaizen reduce waste and maximize customer value.
Maximize customer value by delivering high quality, easy-to-use products while reducing costs and non added value activities that constitute waste.
Apply Taiichi Ohno's circle exercise to observe the factory floor, revealing waste in movements, flow, and delays. Recognize overproduction and excess inventory as key wastes driving continuous improvement.
Reduce overproduction by aligning production with demand through lean tools like just in time, kanban, takt time, and one-piece flow, cutting inventory and setup times to improve efficiency.
Identify and eliminate idle time, a waste that is a non-value adding time that increases costs and slows throughput, shortening delivery times to customers.
Identify and eliminate process waste by standardizing setups, applying kaizen and dfma, and mapping value streams to create smoother, cost-effective production.
Identify and reduce operational losses at workstations by applying lean tools like checklists, work standardization, and kaizen, while forming u-shaped cellular systems and flow production to improve ergonomics.
Analyze lean inventory as a value driver, reducing waste from excess stock and improving flow. Apply just-in-time, kanban, visual management, and SMED to optimize changeovers and align with customer needs.
Identify and reduce quality defects in lean manufacturing by understanding causes from design errors to materials and human errors; use checklists, five S, poka yoke, and kaizen with quality control.
Explore how underutilized human potential becomes the eighth waste in lean manufacturing. Identify organizational, cultural, and leadership barriers, and apply strategies like Kaizen and 360-degree feedback.
Apply value stream mapping to visualize the full production flow, identify wasteful steps, optimize supplier and customer interactions, and drive continuous improvement for faster, high quality delivery.
Construct a value stream map in four steps—define scope, assemble a team, map current and future states, and plan implementation. Apply Pareto analysis to prioritize high-volume products.
Map the current state value stream to reveal key production stages, waste, and opportunities for time and cost reduction through real-time data, observation, and a lean expert-led multidisciplinary team.
Design the future state value stream map from the current map, applying lean tools like SMED, Kanban, and just-in-time to reduce inventory, cut setup times, and improve flow.
Explore the five s pillars—sort, set in order, shine, standardize, sustain—and how they reduce waste, improve safety, and enable continuous improvement in lean manufacturing.
Eliminate clutter and boost efficiency by practicing 5s sorting (Seiri): identify essential tools, tag and remove unnecessary items using red tags, and document before-and-after progress for safer, cleaner workspaces.
Explore how the second s of five s, shine, prioritizes cleaning and organizing to prevent contamination, boost reliability, and reduce downtime through proactive maintenance and clear standards.
Arrange items with clearly labeled locations and defined storage limits to streamline workflows. Incorporate visual management tools like shadow boards, color coding, and kanban to sustain order and safety.
Standardize work by turning prior sorting and organization into lasting procedures through checklists, cleaning schedules, labeling, and guidelines, fostering continuous improvement, safety, and consistent quality.
Explore takt time as the heart of lean manufacturing, aligning production with customer demand to reduce waste. Learn to measure operation times, build utilization charts, and optimize for balance.
Explore the Kanban delivery system within lean manufacturing, contrasting pull and push methods, visual Kanban boards and cards, and just-in-time inventory to reduce waste and boost production efficiency.
Explore one piece flow and cellular manufacturing to reduce WIP, shorten flow times, and improve quality with u-shaped rabbit chase layouts and cross-trained teams.
Apply total productive maintenance (TPM) to boost productivity, reduce breakdowns, and enhance safety by engaging all departments in equipment upkeep, standardization, routine servicing, eliminating weak points, and skills development.
Define TPM as total productive maintenance that maximizes machine efficiency through employee involvement and preventive maintenance, emphasizing continuous improvement across autonomous maintenance, planned maintenance, quality, and life cycle management.
Explore autonomous inspections, their benefits and implementation steps, and how operators and technicians collaborate to boost efficiency, reduce downtime, and document maintenance.
Identify contamination sources and implement cleaning and lubrication standards for machinery in stages 2 and 3, using five whys to root out causes and establish inspection checklists.
Learn how autonomous maintenance stages 4 and 5 empower operators to perform self-inspections with tools like multimeters and thermal cameras, apply visual controls, and follow checklists to extend equipment life.
Master stages six and seven of autonomous maintenance by enforcing workplace control and management through standardized cleaning, inspection, and lubrication procedures, visual management, and operator-led reporting and scheduling.
Calculate and interpret the OEE metric by combining availability, performance, and quality to drive lean manufacturing and continuous improvement, illustrated with a chocolate plant example.
Explore key TPM indicators—failure count, micro downtime, MTBF, MTTR, MWh, MRT—and how regular monitoring guides maintenance planning, cost management, and downtime reduction.
Discover the Smed method, the single minute exchange of die, to reduce machine setup times and boost lean manufacturing efficiency, flexibility, and production responsiveness.
Explore the SMED method in lean manufacturing to reduce machine downtime by converting internal setup activities to external ones, using video analysis, standardization, and organized tool preparation for faster changeovers.
Explore SMED principles across four stages to convert internal setup tasks to external ones, reducing machine downtime through video analysis, spaghetti diagrams, checklists, and standardized procedures.
Demonstrate SMED in action with five-day changeover projects, slashing Weingarten 700 machine setup from eight hours to two hours and thirty-three minutes through team-based analysis, process maps, and hydraulics redesign.
Explore kaizen's philosophy of continuous improvement through small, daily enhancements by all employees, tying in lean and Six Sigma to drive efficiency, reduce waste, and sustain long-term organizational excellence.
Master the Kaizen process step by step to implement lean manufacturing, from loss analysis to effectiveness control, with cross-functional teams, measurements, brainstorming, and detailed implementation plans.
Most manufacturing professionals know Lean exists. Very few know how to make it stick.
This course was built by a practitioner with 25 years of hands-on Lean Manufacturing implementation experience — not a consultant who observed it from the sidelines, but someone who ran the workshops, fixed the lines, and trained the teams.
If you've sat through a Lean seminar and returned to work to find nothing changed, you're not alone. The gap between understanding Lean theory and applying it under real production pressure is where most improvement initiatives quietly die.
This course closes that gap.
The Lean Manufacturing Academy is a comprehensive, practitioner-designed program covering the complete Lean toolkit: from the foundational principles of waste elimination to advanced tools like SMED, TPM, and Value Stream Mapping — all taught with real-world case studies and practical exercises you can apply in your plant the following week.
The course begins with the history and evolution of Lean Manufacturing, giving you the "why" behind every tool before you learn the "how." You'll master the 8 types of waste — Defects, Overproduction, Waiting, Non-Utilized Talent, Transportation, Inventory, Motion, and Extra-Processing — with specific causes, effects, and elimination strategies for each.
From there, the program moves into the core Lean toolkit:
5S — the foundation of every high-performing production environment. You'll learn how to implement all five stages correctly and — critically — sustain them beyond the initial audit.
One Piece Flow and Kanban — the shift from push to pull production that reduces WIP, shortens lead times, and makes quality problems visible immediately rather than downstream.
Value Stream Mapping (VSM) — how to map your current state, identify the biggest constraints, and design a future state that guides your improvement roadmap.
SMED (Single-Minute Exchange of Die) — a structured methodology to cut changeover times by 50–80%, unlocking capacity without adding headcount.
TPM (Total Productive Maintenance) — how to engage operators in equipment care, measure OEE, and systematically eliminate the six big losses.
Kaizen and Continuous Improvement — how to run effective improvement workshops, build a problem-solving culture, and measure the ROI of your Lean initiatives using World Class Manufacturing (WCM) benchmarks.
This course is designed for manufacturing engineers, operations managers, plant managers, production supervisors, quality professionals, and anyone responsible for improving efficiency in a production environment. No prior Lean experience is required — the course builds from fundamentals to advanced implementation.
It is also ideal for Lean practitioners looking to formalize their knowledge, prepare for certification, or refresh their toolkit with structured, up-to-date frameworks.
No prerequisites required. A basic familiarity with a production or operations environment will help you connect the concepts to your own workplace, but it is not mandatory.
Theory without context is forgettable. Every module in this course is grounded in real implementation examples — what worked, what failed, and what the data showed after. You will finish with practical frameworks you can immediately apply, not just concepts you can recite.
7.5 hours of structured content. Updated with current industry examples. Lifetime access.
If you're ready to stop talking about Lean and start implementing it, enroll now and begin transforming your operations today.