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1 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Outline Manufacturing System Design Manufacturing Strategy Tools Manufacturing System Design Tools Manufacturing System Design Framework
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2 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean What is Manufacturing System Design? Manufacturing system design is NOT just … Factory floor improvements Kaizen activities Changes within the four walls Waste elimination Manufacturing system design IS the above plus … A selection of a layout that meets system demands (outputs) Development of an operational policy for decision making Selection of the right process technology Make-buy decisions Organizational structure design and interaction methods
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3 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean What is Manufacturing System Design? Manufacturing system “infrastructure” design Manufacturing strategy Operating policy Partnerships (suppliers) Organization structure details Manufacturing system “structure” design Buildings, location, capacity Machine selection Layout WIP
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4 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean What is Manufacturing System Design? Manufacturing system “infrastructure” design Manufacturing strategy Operating policy Partnerships (suppliers) Organization structure details Manufacturing system “structure” design Buildings, location, capacity Machine selection Layout WIP Manufacturing System Design Tools Manufacturing Strategy Tools
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5 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean What is Manufacturing Strategy? A “game plan” for the manufacturing organization to keep itself aligned with the Corporate strategy It consists of : â Long term objectives â Strategies â Programs â Initiatives To help the business build and maintain a competitive advantage for future success
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6 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Why Have a Strategy? âAssures decisions based on long term success of the enterprise â Aligns manufacturing with business and corporate strategies âCreates an awareness of competition â Assures long term product, capability and process differentiation from competitors â Provides for clear communication between management levels â Focuses improvement activities on long-term success PROVIDES A BASIS FOR FUTURE SUCCESS
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7 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Outline Manufacturing System Design Manufacturing Strategy Tools Manufacturing System Design Tools Manufacturing System Design Framework
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8 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean High Level Strategy Tools/Concepts Focused Factory Wickham Skinner Product-Process Matrix Hayes and Wheelwright 3-DCE Charlie Fine Nine Components of Manufacturing Strategy Fine and Hax Manufacturing Strategy Worksheet Miltenburg
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Manufacturing Strategy Worksheet
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10 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Strategy Worksheet - Miltenburg Requires a strategy before system design attempt Implies “Design Beyond Factory Floor” idea Connects strategy to manufacturing system selection Recommends existing systems based on outputs needed Evaluates system performance relative to other systems A useful strategy and Manufacturing system design tool
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11 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Outline Manufacturing System Design Manufacturing Strategy Tools Manufacturing System Design Tools Manufacturing System Design Framework
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12 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Manufacturing System Design Tools Axiomatic design/MSDD Cochran Production Preparation Process (3P) 2-D manufacturing world maps Toyota production system frameworks Ohno, Shingo, and Monden Various analytical tools/computer simulation tools Manufacturing system design process
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13 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Map of the Manufacturing World There Are Many of These Charts in Literature All Use Only Two Factors (2 Dimensions) But, There Are at Least 10 Factors There Is Much Overlap Which Is Confusing Real System Boundaries are fuzzy
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14 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Outline Manufacturing System Design Manufacturing Strategy Tools Manufacturing System Design Tools Manufacturing System Design Framework
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15 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Framework For Manufacturing System Design A holistic view of manufacturing system design environment Visual description of “design beyond factory floor” Manufacturing is a part of the product strategy Manufacturing system design is strategy driven, not product design driven Tool of many tools Combines useful strategy and design tools Can lead to a innovative & new manufacturing system designs Shows the unending design cycle -- Continuous Improvement
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16 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Stakeholders Enterprise Snapshot Business Unit Strategy Enterprise Needs Corporate Goals/Objectives/Strategy Management Manufacturing Operation Human Resources Services Consulting R&D Product Development Sales/Marketing E-commerce Investment Strategy Customer Support Partnerships/Alliances Commercial Military SocietyEmployeesMgmtGovt.SuppliersCustomersStockholders Product Strategy
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17 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Product Strategy Marketing Product Design Manufacturing Suppliers Product Product Strategy Strategy
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18 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean
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Stakeholders Executive Management (Corporate Strategy) Middle Management (Business Strategy) Product Strategy Suppliers Product Design Manufacturing Marketing Requirements/Considerations/Constraints Manufacturing System Design/Selection Implement (pilot) Evaluate/Validate Full Rate Production [Interpret] [Seek approval] Modifications Optimizing Manufacturing System Design SocietyEmployeesMgmtGovt.SuppliersCustomersStockholders
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Stakeholders Executive Management Middle Management [Business Unit] Product Strategy Suppliers ProductDesign Manufacturing Marketing Suppliers Product Design Manufacturing Marketing Requirements/Considerations/Constraints Manufacturing System Design/Selection Implement (pilot) Evaluate/Validate Full Rate Production [Interpret] [Seek approval] DFMA,IPT 3-DCE Concurrent Engineering VSM Kaizen Trial & Error Kaikaku - Miltenburg, - 3P, - 2D plots, - MSDD, - AMSDD - design Kaizen Manufacturing System Design Modifications Fine Tune Finalized Product Design Make/Buy Risk-sharing Partnerships - Analytical Tools, - Simulation Tools Customer Needs Technical Feasibility Feasible performance guarantees
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Stakeholders Executive Management Middle Management [Business Unit] Product Strategy Suppliers ProductDesign Manufacturing Marketing Suppliers Product Design Manufacturing Marketing Requirements/Considerations/Constraints Manufacturing System Design/Selection Implement (pilot) Evaluate/Validate Full Rate Production [Interpret] [Seek approval] DFMA, IPT 3-DCE Concurrent Engineering VSM Kaizen Trial & Error Kaikaku - Miltenburg, - 3P, - 2D plots, - MSDD - AMSDD - design Kaizen Manufacturing System Design Modifications Fine Tune Finalized Product Design Make/Buy Risk-sharing Partnerships - Analytical Tools, - Simulation Tools Customer Needs Technical Feasibility Feasible performance guarantees
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22 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Conclusions Manufacturing system design beyond factory floor Strategy driven manufacturing system design There is no general manufacturing system design methodology Manufacturing is a competitive weapon Know the industry dynamics Which component in Product Strategy has the highest leverage? Manufacturing Process Improvement?
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Executive Management Middle Management Product Development Manufacturing Organization Baseline Manufacturing/TPS Pilot Plant Full Rate Production Suppliers Current Situation
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24 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean What Should the Manufacturing System Design Consider? Capability, tax baseGovernment Product performance, quality & cost Satisfaction of needs Low risk participation, steady business Customers General public Business Return of investmentStockholders Responsible behaviorSociety/Community/Environment Stable businessSuppliers Employment stability Satisfactory salary, working conditions Promotion opportunities Employees Hourly Management Primary NeedStakeholder
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25 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Manufacturing System Design Process
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26 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Focused Factory Focus on One or Few Products in a Factory Advantage Through Simplicity, Repetition, Experience, and Consistency Ability to Compete in the Focused Product Plant Within a Plant (PWP) Idea Easier to Improve, Change and Upgrade No Process, Tool, Skill Conflicts Need for a Well-defined Manufacturing Policy Decision Aid
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27 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Product-Process Matrix Creates Awareness to Product Position on Life Cycle Curve Manufacturing Processes Linked to Product Life Cycle Highly Flexible Manufacturing System Needed During Initial and Growth Stages No Design Standard User Needs Vary Dedicated, Cost Effective Manufacturing System Is Needed As Product Sales Saturate and Decline Standard Design User Is Indifferent to Additional Features
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28 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Product-Process Matrix
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29 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean 3-DCE: Clock Speed Three Dimensional Concurrent Engineering Product Architecture, Supply Chain Architecture and Process Architecture Avoids “Throwing the Design Over the Wall” Three Strengths Instead of One (Product Design) Shared Competitive Advantage Shared Risk Builds Mutual Trust Between Supplier and Contractor Ensures “Readiness” Concurrently Reduced Overtime, Expediting, Late Deliveries
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30 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean 3-DCE Model PRODUCT PROCESS SUPPLY CHAIN Performance Specifications Technology And process Planning Time, Space, and Availability Product Architecture, and Make/buy Manufacturing System, Make/buy Recipe, Unit Process Details, strategy
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31 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean 9 Components of Strategy - Fine & Hax Facilities Capacity Vertical Integration Processes and Technologies Scope and New Products Human Resources Quality Infrastructure Vendor Relations
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32 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Manufacturing Strategy Tools: Application Focused Factory Strategy Formulation, Factory Design, Operating Policy Design Product-Process Matrix Strategy Formulation, Determine Time to Change Manufacturing System, Evaluate competitor strategy, Locate Niche Markets 3-DCE Product Design, Manufacturing System Design, Supply Chain Design 9 Components of Manufacturing Strategy Strategy Formulation, Determine Effect of Manufacturing on other Components and Vice Versa Manufacturing Strategy Worksheet Strategy Formulation, Competitive Analysis, Layout Selection, Changing existing system,
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33 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Axiomatic Design (MSDD) Allows for Structured Break Down of A System Links High Level Goals to Lowest System Level Shows necessary conditions on the factory floor to achieve corporate goals Forces the designers to prioritize Objectives Translates ‘goals’ into ‘means’ Great Communication Tool Across the board Does not restrict to selecting Existing Designs A unique manufacturing system design is possible depending on the highest goal A Visual Design Tool
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34 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Example of MSDD
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35 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Manufacturing World Maps Shows existing systems that might match desired system requirements Helps the designer focus on the right type of systems Useful to verify if system is operating within limits Useful in planning a move from one type of system to another
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36 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Other tools Production Preparation Process Creative Brainstorming Cooperative Decision making Unrestricted Design possibilities Detailed consideration to each part Various Analytical Tools And Simulation Tools Loop, ?, ?
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37 - MS/Shields - 041001 © 2001 Massachusetts Institute of Technology Lean Aerospace Initiative web.mit.edu/lean Product Strategy Application Best Life Cycle Cost Acquisition Cost + Direct Operating Cost + Maintenance Cost - Scrap Acquisition = Development Cost + Manufacturing Cost Direct Operating Cost = f(performance) Maintenance = f(External Quality) + Ease of maintenance Scrap Value = f(reliability, maintainability, customer support)
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