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Course Overview and Objectives

Course Introduction: Cellular Manufacturing with Dissimilar Machines

Course Goals and Success Criteria

Part Family Strategy and Routing Similarity

Classifying Part Families and Routing Similarity Metrics

Value Stream Mapping for Candidate Work Cells

Work-Cell Architecture and Layout

Work-Cell Layout Principles and Ergonomics

Technology Integration and Digital Connectivity

Flow, Capacity, and Staffing

Takt Time, Cycle Time Balancing, and Capacity Planning

Changeover Reduction and Flexible Staffing

Materials, Quality, and Safety Systems

Material Flow, In-Cell Logistics, and Inventory Controls

Built-In Quality, Process Control, and Safety in Cells

Launch, Governance, and Continuous Improvement

Planning and Launching a Multi-Machine Work Cell

Daily Management and Continuous Improvement

Analytics and Decision Support

Modeling and Simulation for Work-Cell Decisions

Capstone Application

Capstone: Design and Justify a Dissimilar-Machine Work Cell

Quizzes

Quiz 1: Fundamentals of Work Cells and Part Families

Quiz 2: Production Flow Analysis and Routing Metrics

Quiz 3: Value Stream Mapping for Dissimilar-Machine Cells

Quiz 4: Layout, Ergonomics, and Safety Zoning

Quiz 5: Takt, Cycle Time, and Balancing

Quiz 6: Changeover Reduction and Cross-Training

Quiz 7: Material Flow and Inventory Control

Quiz 8: Built-In Quality and SPC in Mixed Processes

Quiz 9: Launch Planning and Governance

Quiz 10: Analytics and Simulation for Decision Making

Designing High-Performance Cellular Manufacturing Work Cells for SQDCM Excellence is a practitioner-built course that shows you how to architect, launch, and continuously improve mixed, dissimilar-machine cells that deliver measurable gains in Safety, Quality, Delivery, Cost, and Morale (SQDCM). If your operations run many routings across CNCs, special processes, inspection, and assembly, this course gives you a repeatable blueprint to group parts into families, design an ergonomic and connected layout, balance manual/machine time, and manage material, quality, and safety as one integrated system. You will learn how to apply Production Flow Analysis, routing similarity metrics, and value stream mapping to identify candidate cells; then translate insights into takt-driven capacity plans, staffing models, SMED-driven changeovers, and built-in quality controls. We’ll connect MES/IIoT data, e-kanban, and visual management to daily tiered huddles, KPI trees, and Kaizen pipelines so you can sustain performance. Through hands-on tools, templates, quizzes, and a simulation-backed capstone, you’ll design and justify a real work cell with SQDCM targets, a governance plan, and a replication roadmap. Ideal for lean leaders, IE/ME professionals, operations managers, and advanced technicians ready to move from functional silos to flow, this course helps you cut lead time, stabilize output, and improve safety and first-pass yield—without overspending on automation.

Designing High-Performance Cellular Manufacturing Work Cells for SQDCM Excellence

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            <p>High-performing operations increasingly rely on cellular manufacturing to convert diverse processes into synchronized, flow-based systems that deliver measurable gains in safety, quality, delivery, cost, and morale (SQDCM). This course develops the end-to-end skills needed to design, launch, and govern work cells composed of dissimilar machines organized around families of parts that share similar routings. You will learn how to translate business imperatives into technical design choices—aligning takt and capacity with demand variability, optimizing layouts for ergonomics and safety, and instituting digital connectivity for real-time control—while maintaining a rigorous focus on risk, compliance, and total cost of ownership. The approach integrates lean, industrial engineering, and operations strategy to produce repeatable, data-driven decisions that scale.</p>

<p>The curriculum begins by defining work cells and clarifying scope, prerequisites, and competencies, then maps course goals to each module and introduces a common product-family case used throughout. You will classify part families using Production Flow Analysis, routing matrices, and similarity coefficients; construct current- and future-state value stream maps to expose constraints, queues, and changeover hotspots; and design U-, S-, or linear cell architectures that minimize walk distance, protect line-of-sight, and ensure safety zoning and maintenance access. Flow and capacity modules cover takt calculation, cycle-time distribution analysis, mixed manual/machine balancing, bottleneck buffering, and staffing models, followed by SMED-driven changeover reduction, standard work across machines, and cross-training strategies for volatility. Materials, quality, and safety content addresses point-of-use storage, kanban sizing, intralogistics, error-proof kitting, layered audits, SPC in mixed processes, LOTO, and robust escalation paths. You will plan and govern launches with simulation, piloting, training, and change management; establish daily management with KPI trees, tiered meetings, and a kaizen pipeline; and apply analytics and discrete-event simulation to validate WIP, service levels, and automation tradeoffs. The capstone requires designing and justifying a dissimilar-machine cell with SQDCM targets and a complete launch plan, reinforced by quizzes that assess mastery at each stage.</p>
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