
Achieve manufacturing excellence through continuous improvement that reduces waste, boosts profitability, and strengthens quality and safety innovation across all operational pillars with a positive culture and supporting technology.
Identify the four pillars of manufacturing excellence—safety, quality, yield, and productivity—driven by a culture that balances people, processes, and tools and pursues continuous improvement.
Establish a cross-functional APQP framework to design and validate new products, translating the voice of the customer into requirements, technical specifications, and special characteristics.
Explore how advanced product quality planning uses PCP to prevent changes, identify changes early, and validate evidence, enabling on-time, low-cost, high-quality products through early risk mitigation and standard work.
Apply acceptance sampling to determine the batch quality level from a production run by testing a predetermined sample size and deciding to accept or reject the lot.
Design an acceptance sampling plan by selecting a sample size n and an acceptance criterion C, the maximum defective items in the sample, balancing producer's and consumer's risk with AQL.
Control limits describe process variation and real-time performance, while specification limits set customer targets; using them interchangeably causes dangerous mistakes on control charts.
Explore the differences between control limits and specification limits, learn to read control charts, compute center lines and sigma, and assess process capability and customer specifications.
Explore process capability metrics, including CP, CPK, PP, and PPK, to assess variation, measurement reliability, and a process's ability to meet specifications under statistical control.
Explore process capability concepts like CP and CPK, centering, and formulas using USL, LSL, and sigma to assess whether a process meets customer specifications.
Manage process capacity and variation to align output with demand, identify sources of variation—from variety and structural demand changes to random and assignable variation—and reduce disruptions to operations.
Explore how a process control plan reduces waste and cost, sustains quality, and focuses on critical-to-quality characteristics through monitoring, inspections, and corrective actions.
Identify the appropriate control plan level—prototype, development, or production—and define dimensions to measure, material and performance tests, and controls through a cross-functional team as a living document.
Discover how the production part approval process (PPAP) builds confidence in components, suppliers, and production methods, explains its 18 elements and five submission levels, and clarifies when to apply it.
Advance manufacturing excellence by applying process improvement and root cause analysis using nine techniques such as FMEA, value stream mapping, SMED, and fishbone diagramming.
Develop and maintain a cross-functional process control plan across prototype, development, and production levels, detailing dimensions, tests, controls, sampling and measurement validation, guided by FMEA, special characteristics, and customer requirements.
Apply fmea to identify potential failure modes early in product development, assess effects, and implement mitigations to design out failures and improve reliability and customer satisfaction.
Describe the product or process with a block diagram, list subsystems and components, identify failure modes, effects, and causes, assess controls, and compute the risk priority number to guide actions.
Single piece flow manufactures one unit at a time in a cellular environment, meeting customer requirements with minimal interruptions and reducing batch processing flaws.
Implement a single piece flow system in a cellular environment, balancing product focus or mixed model cells with short changeovers to meet customer demand.
Discover value stream mapping as a visual tool to analyze current processes, design future states, and remove waste, improving material and information flow across manufacturing and services.
Create a current state value-stream map by walking the process, collecting data, and interviewing operators to reveal issues. Outline a future state map with takt time, bottlenecks, and flow improvements.
Set up a quality system that aligns with customer requirements and standards, ensuring features and characteristics meet stated needs and minimize defects through consistent practice.
Total quality management (TQM) describes a company-wide approach to quality improvement through formal quality policy and procedures, with all employees engaged to boost customer satisfaction.
Master the eight dimensions of quality—performance, features, reliability, conformance, durability, serviceability, aesthetics, and perception—and learn how they influence design, procurement contracts, warranties, and total cost of ownership.
Explore the cost of quality (coq) and its four categories—appraisal, prevention, internal failure, and external failure—highlighting inspections, audits, training, and prevention strategies to avoid defects.
Explore external failure costs like warranty claims, recalls, and returns, and apply Deming's 14 points to transform management, build quality in, and reduce total cost through leadership and continuous improvement.
Identify and contain nonconformities under ISO 9001:2015 clause 8.7.1, and apply containment, root cause investigation, corrective actions, and preventive actions to prevent unintended use or delivery.
Learn to distinguish correction from corrective action for non-conformities, perform root cause analysis using fishbone, flowchart, or the five whys, and implement preventive actions with internal audits and monitoring.
Explore how ISO 9001 certification validates an organization's quality management system through audits by certification bodies, and how individuals become certified auditors with upgrade steps.
Learn the pdca model, a cyclic plan-do-check-act process for continuous improvement of processes. Understand each phase: plan, do, check, act, and when to apply the cycle.
The PDCA cycle is embedded in ISO 9001 quality management, guiding planning, doing, checking, and acting. It emphasizes context, interested parties, leadership, risk, and continual improvement.
Identify and manage organizational knowledge under ISO 9001:2015, linking data, information, analysis, wisdom, and the knowledge triangle to improve processes and performance.
Discover techniques to track and record organizational knowledge, guard against tribal knowledge, and apply it to improvements using work instructions, checklists, training packages, on-the-job training, and knowledge databases.
Document control keeps documents developed, reviewed, stored, retrieved, and discarded in a systematic, traceable way. ISO 9001:2015 clause 7.5.3 requires a documented procedure covering identification, storage, review, and change tracking.
Organizations gain efficiency, productivity, and customer satisfaction by implementing ISO 9001 quality management systems through a systematic, risk-based approach that standardizes processes and drives continuous improvement.
Identify waste, map value streams, establish flow, implement pull, and pursue continuous improvement to deliver customer value.
Establish a continuous workflow by visualizing cross-functional processes, using a carbon lean cue, and pursuing continuous improvement to reduce waste such as muda, mura, muri.
Apply Jidoka, the automatic stop of a process on deviation, as a pillar of lean management and the Toyota Production System; automatically stop to address quality issues and process abnormalities.
Explore kaizen as a change-for-good philosophy that engages all levels in continuous, incremental improvements, supported by five s and standardized work, pdca, and a pull system to boost flow.
explains mistake proofing, poka yoke, and error proofing to prevent defects, emphasizing three levels and human factors within lean manufacturing and total productive maintenance for zero defects.
Explore the five s system for good housekeeping and efficiency, detailing seri, set in order, shine, standardized, sustain, plus project planning, team roles, area sizing, and measurement systems analysis.
Explain how stable measurements with adequate resolution enable reliable data by analyzing bias, variance, and SS variation, then apply lean audits to drive continuous improvement and clear reporting.
Learn cellular manufacturing, where cells of people, equipment, and workstations streamline single-piece production. Use group technology and part families to cut setup, lead times, and inventory.
Learn to implement cellular manufacturing by mapping value streams, selecting cell types, and balancing work to meet takt time, minimizing waste and aligning with demand.
Benchmarking drives continuous improvement by comparing performance to best-in-class standards. It uses internal, competitive, functional, and generic benchmarks to identify gaps and opportunities.
Manufacturing excellence is the continuous improvement of your processes to reduce waste, increase production profitability and gain a competitive edge concerning quality and safety innovation. It starts with executing business strategy more consistently and reliably than your competition. In this course, you will learn how to apply the total quality management (TQM) approach to drive quality excellence within your organisation. You will be able to describe and analyse manufacturing systems against best practices. You will acquire relevant techniques in setting up a world-class quality system.
Next, you will learn the various frameworks, standards, models and techniques that will enable you to build an effective and cost-efficient manufacturing system. This will in turn create a minimum load on the environment, lower risks and operating costs, improve quality and yield to enhance faster delivery, increase profitability and create value for customers. You will also learn to eliminate non-value-added, wasteful activities in manufacturing processes and apply various tools and techniques to drive incremental improvements. You will also have the opportunity to learn to stop the multiple barriers to process and material flow and eliminate process variations to achieve consistent product quality.
Finally, you will examine all the dimensions of quality, Edward Deming’s ‘14 principles of quality’ and transformational management. You will become proficient in developing a working process control plan and applying failure mode and effect analysis (FMEA) techniques to problem-solving. This course will significantly benefit students, researchers, quality and operations management professionals, manufacturers, engineers and anyone who wants to understand or improve their knowledge of manufacturing and operational excellence. So wait no more and enrol in this course today!