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LeanEnterprise
Value
Lean Supply Chain Management Principles and
Practices
LeanEnterprise
Value
Lean Supply Chain Management Basics Learning Points
Lean supply chain management represents a new way of thinking about supplier networks 1048707
Lean principles require cooperative supplier relationships while balancing cooperation and competition
Cooperation involves collaborative relationships amp coordination
mechanisms Supplier partnerships amp strategic alliances
represent a key feature of lean supply chain management a spectrum of
LeanEnterprise
Value
Theory Lean Represents a ldquoHybridrdquo Approach to Organizing Interfirm Relationships
ldquoMarketsrdquo (Armrsquos Length) Lower production costs higher coordination costs Firm buys (all) inputs from outside specialized suppliers Inputs are highly standardized no transaction-specific assets Prices serve as sole coordination mechanism
ldquoHierarchiesrdquo (Vertical Integration) Higher production costs lower coordination costs
Firm produces required inputs in-house (in the extreme all inputs) Inputs are highly customized involve high transaction costs or dedicated investments
and require close coordination ldquoLeanrdquo (Hybrid)Lowest production and coordination costs economicall
y most efficient choice-- new model Firm buys both customized amp standardized inputs Customized inputs often involve dedicated investments Partnerships amp strategic alliances provide collaborative advantage
Dominant conventional approach Vertical integration armrsquos length relationships with suppliers
LeanEnterprise
Value
Lean Supply Chain Management Differs Sharply from Conventional Practices
ILLUSTRATIVE
CHARACTERISTICS
CONVENTIONAL MODEL LEAN MODEL
Number amp structure Many vertical Fewer clustered
Procurement personnel Large Limited
Outsourcing Cost-based Strategic
Nature of interactions Adversarial zero-sum Cooperative positive-sum
Relationship focus Transaction-focused Mutually-beneficial
Selection length Lowest price Perfomance
Contract length Short-term Long-term
Pricing practices Competitive bids Target costing
Price changes Upward Downward
Quality Inspection-intensive Designed-in
Delivery Large quantities Smaller quantities (JIT)
Inventory buffers Large Minimized eliminated
Communication Limited task-related Extensive multi-level
Information flow Directive one-way Collaborative two-way
Role in development Limited build-to-print Substantial
Production flexibility Low High
Technology sharing Very limited nonexistent Extensive
Dedicated investments Minimal-to-some Substantial
Mutual commitment Very limited nonexistent High
Govemance Market-driven Self-governing
Future expectations No Quarantee Considerable
LeanEnterprise
Value
Lean Supply Chain Management Principles Derive from Basic Lean Principles
Focus on the supplier network value stream Eliminate waste Synchronize flow Minimize both transaction and production costs Establish collaborative relationships while balancing co
operation and competition Ensure visibility and transparency Develop quick response capability Manage uncertainty and risk Align core competencies and complementary capabilitie
s Foster innovation and knowledge-sharing
LeanEnterprise
Value
A Set of Mutually-Reinforcing Lean Practices Translate these Principles into Action
This lecture highlights key enablers amp practices by focusing on bull Synchronized production and deliverybull Partnerships and strategic alliancesbull Early supplier integration into design and development IPTs
Design supplier network architecture Design of supplier network driven by strategic thrust Fewer suppliers ldquoclustered controlrdquo Supplier selection based on performance
Develop complementary supplier capabilities Ensured process capability (certification) Targeted supplier development (SPC Kaizen) Greater responsibilities delegated to suppliers
Create flow and pull throughout supplier network Linked business processes ITIS infrastructure Two-way information exchange amp visibility Synchronized production and delivery (JIT)
Establish cooperative relationships amp effective coordination mechanisms
Joint problem-solving mutual assistance Partnerships amp strategic alliances Open and timely communications Increased interdependence amp ldquoshared destinyrdquo
Maximize flexibility amp responsiveness Seamless information flow Flexible contracting Rapid response capability
Optimize product development through early supplier integration
Integrate suppliers early into design amp development IPTs Collaborative design architectural innovation Open communications and information sharing Target costing design-to-cost
Integrate knowledge and foster innovation Knowledge-sharing technology transfer Aligned technology roadmaps
LeanEnterprise
Value
Synchronized Production and Delivery Throughout the Supplier Network is a Central
Lean Concept
Integrated supplier lead times and delivery schedules Flows from suppliers pulled by customer demand (using
takt time load leveling line balancing single piece flow) Minimized inventory through all tiers of the supply chain On-time supplier delivery to point of use Minimal source or incoming inspection Effective two-way communication links to coordinate pro
duction amp delivery schedules Striving for zero quality defects essential to success Greater efficiency and profitability throughout the supplie
r network
LeanEnterprise
Value
Aerospace Firms Have Faced an UphillChallenge in Synchronizing Flow with Suppliers
PERCENT OF SUPPLIER SHIPMENTS TO STOCKROOMFACTOWO INCOMING OR PRIOR INSPECTIONS
DefenseCommercial Morethan 75 of sales to defer
or commercial markets
Defense (25) Commercial (9)
(Year 1993 N= Number of responding business unitsc
LeanEnterprise
Value
Supplier Certification has been an Important Early Enabler of Achieving Synchronized
Flow in Aerospace
PERCENT OF DIRECT PRODUCTION SUPPLIERS OF A TYPICAL AEROSPACE ENTERPRISE THAT ARE CERTIFIED (1991 1993 1995)
Industry (48) Airframe (13) Electronics (20) Engines and Other (15)
(N=Number of respondents answering this question for all three years)
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Lean Supply Chain Management Basics Learning Points
Lean supply chain management represents a new way of thinking about supplier networks 1048707
Lean principles require cooperative supplier relationships while balancing cooperation and competition
Cooperation involves collaborative relationships amp coordination
mechanisms Supplier partnerships amp strategic alliances
represent a key feature of lean supply chain management a spectrum of
LeanEnterprise
Value
Theory Lean Represents a ldquoHybridrdquo Approach to Organizing Interfirm Relationships
ldquoMarketsrdquo (Armrsquos Length) Lower production costs higher coordination costs Firm buys (all) inputs from outside specialized suppliers Inputs are highly standardized no transaction-specific assets Prices serve as sole coordination mechanism
ldquoHierarchiesrdquo (Vertical Integration) Higher production costs lower coordination costs
Firm produces required inputs in-house (in the extreme all inputs) Inputs are highly customized involve high transaction costs or dedicated investments
and require close coordination ldquoLeanrdquo (Hybrid)Lowest production and coordination costs economicall
y most efficient choice-- new model Firm buys both customized amp standardized inputs Customized inputs often involve dedicated investments Partnerships amp strategic alliances provide collaborative advantage
Dominant conventional approach Vertical integration armrsquos length relationships with suppliers
LeanEnterprise
Value
Lean Supply Chain Management Differs Sharply from Conventional Practices
ILLUSTRATIVE
CHARACTERISTICS
CONVENTIONAL MODEL LEAN MODEL
Number amp structure Many vertical Fewer clustered
Procurement personnel Large Limited
Outsourcing Cost-based Strategic
Nature of interactions Adversarial zero-sum Cooperative positive-sum
Relationship focus Transaction-focused Mutually-beneficial
Selection length Lowest price Perfomance
Contract length Short-term Long-term
Pricing practices Competitive bids Target costing
Price changes Upward Downward
Quality Inspection-intensive Designed-in
Delivery Large quantities Smaller quantities (JIT)
Inventory buffers Large Minimized eliminated
Communication Limited task-related Extensive multi-level
Information flow Directive one-way Collaborative two-way
Role in development Limited build-to-print Substantial
Production flexibility Low High
Technology sharing Very limited nonexistent Extensive
Dedicated investments Minimal-to-some Substantial
Mutual commitment Very limited nonexistent High
Govemance Market-driven Self-governing
Future expectations No Quarantee Considerable
LeanEnterprise
Value
Lean Supply Chain Management Principles Derive from Basic Lean Principles
Focus on the supplier network value stream Eliminate waste Synchronize flow Minimize both transaction and production costs Establish collaborative relationships while balancing co
operation and competition Ensure visibility and transparency Develop quick response capability Manage uncertainty and risk Align core competencies and complementary capabilitie
s Foster innovation and knowledge-sharing
LeanEnterprise
Value
A Set of Mutually-Reinforcing Lean Practices Translate these Principles into Action
This lecture highlights key enablers amp practices by focusing on bull Synchronized production and deliverybull Partnerships and strategic alliancesbull Early supplier integration into design and development IPTs
Design supplier network architecture Design of supplier network driven by strategic thrust Fewer suppliers ldquoclustered controlrdquo Supplier selection based on performance
Develop complementary supplier capabilities Ensured process capability (certification) Targeted supplier development (SPC Kaizen) Greater responsibilities delegated to suppliers
Create flow and pull throughout supplier network Linked business processes ITIS infrastructure Two-way information exchange amp visibility Synchronized production and delivery (JIT)
Establish cooperative relationships amp effective coordination mechanisms
Joint problem-solving mutual assistance Partnerships amp strategic alliances Open and timely communications Increased interdependence amp ldquoshared destinyrdquo
Maximize flexibility amp responsiveness Seamless information flow Flexible contracting Rapid response capability
Optimize product development through early supplier integration
Integrate suppliers early into design amp development IPTs Collaborative design architectural innovation Open communications and information sharing Target costing design-to-cost
Integrate knowledge and foster innovation Knowledge-sharing technology transfer Aligned technology roadmaps
LeanEnterprise
Value
Synchronized Production and Delivery Throughout the Supplier Network is a Central
Lean Concept
Integrated supplier lead times and delivery schedules Flows from suppliers pulled by customer demand (using
takt time load leveling line balancing single piece flow) Minimized inventory through all tiers of the supply chain On-time supplier delivery to point of use Minimal source or incoming inspection Effective two-way communication links to coordinate pro
duction amp delivery schedules Striving for zero quality defects essential to success Greater efficiency and profitability throughout the supplie
r network
LeanEnterprise
Value
Aerospace Firms Have Faced an UphillChallenge in Synchronizing Flow with Suppliers
PERCENT OF SUPPLIER SHIPMENTS TO STOCKROOMFACTOWO INCOMING OR PRIOR INSPECTIONS
DefenseCommercial Morethan 75 of sales to defer
or commercial markets
Defense (25) Commercial (9)
(Year 1993 N= Number of responding business unitsc
LeanEnterprise
Value
Supplier Certification has been an Important Early Enabler of Achieving Synchronized
Flow in Aerospace
PERCENT OF DIRECT PRODUCTION SUPPLIERS OF A TYPICAL AEROSPACE ENTERPRISE THAT ARE CERTIFIED (1991 1993 1995)
Industry (48) Airframe (13) Electronics (20) Engines and Other (15)
(N=Number of respondents answering this question for all three years)
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Theory Lean Represents a ldquoHybridrdquo Approach to Organizing Interfirm Relationships
ldquoMarketsrdquo (Armrsquos Length) Lower production costs higher coordination costs Firm buys (all) inputs from outside specialized suppliers Inputs are highly standardized no transaction-specific assets Prices serve as sole coordination mechanism
ldquoHierarchiesrdquo (Vertical Integration) Higher production costs lower coordination costs
Firm produces required inputs in-house (in the extreme all inputs) Inputs are highly customized involve high transaction costs or dedicated investments
and require close coordination ldquoLeanrdquo (Hybrid)Lowest production and coordination costs economicall
y most efficient choice-- new model Firm buys both customized amp standardized inputs Customized inputs often involve dedicated investments Partnerships amp strategic alliances provide collaborative advantage
Dominant conventional approach Vertical integration armrsquos length relationships with suppliers
LeanEnterprise
Value
Lean Supply Chain Management Differs Sharply from Conventional Practices
ILLUSTRATIVE
CHARACTERISTICS
CONVENTIONAL MODEL LEAN MODEL
Number amp structure Many vertical Fewer clustered
Procurement personnel Large Limited
Outsourcing Cost-based Strategic
Nature of interactions Adversarial zero-sum Cooperative positive-sum
Relationship focus Transaction-focused Mutually-beneficial
Selection length Lowest price Perfomance
Contract length Short-term Long-term
Pricing practices Competitive bids Target costing
Price changes Upward Downward
Quality Inspection-intensive Designed-in
Delivery Large quantities Smaller quantities (JIT)
Inventory buffers Large Minimized eliminated
Communication Limited task-related Extensive multi-level
Information flow Directive one-way Collaborative two-way
Role in development Limited build-to-print Substantial
Production flexibility Low High
Technology sharing Very limited nonexistent Extensive
Dedicated investments Minimal-to-some Substantial
Mutual commitment Very limited nonexistent High
Govemance Market-driven Self-governing
Future expectations No Quarantee Considerable
LeanEnterprise
Value
Lean Supply Chain Management Principles Derive from Basic Lean Principles
Focus on the supplier network value stream Eliminate waste Synchronize flow Minimize both transaction and production costs Establish collaborative relationships while balancing co
operation and competition Ensure visibility and transparency Develop quick response capability Manage uncertainty and risk Align core competencies and complementary capabilitie
s Foster innovation and knowledge-sharing
LeanEnterprise
Value
A Set of Mutually-Reinforcing Lean Practices Translate these Principles into Action
This lecture highlights key enablers amp practices by focusing on bull Synchronized production and deliverybull Partnerships and strategic alliancesbull Early supplier integration into design and development IPTs
Design supplier network architecture Design of supplier network driven by strategic thrust Fewer suppliers ldquoclustered controlrdquo Supplier selection based on performance
Develop complementary supplier capabilities Ensured process capability (certification) Targeted supplier development (SPC Kaizen) Greater responsibilities delegated to suppliers
Create flow and pull throughout supplier network Linked business processes ITIS infrastructure Two-way information exchange amp visibility Synchronized production and delivery (JIT)
Establish cooperative relationships amp effective coordination mechanisms
Joint problem-solving mutual assistance Partnerships amp strategic alliances Open and timely communications Increased interdependence amp ldquoshared destinyrdquo
Maximize flexibility amp responsiveness Seamless information flow Flexible contracting Rapid response capability
Optimize product development through early supplier integration
Integrate suppliers early into design amp development IPTs Collaborative design architectural innovation Open communications and information sharing Target costing design-to-cost
Integrate knowledge and foster innovation Knowledge-sharing technology transfer Aligned technology roadmaps
LeanEnterprise
Value
Synchronized Production and Delivery Throughout the Supplier Network is a Central
Lean Concept
Integrated supplier lead times and delivery schedules Flows from suppliers pulled by customer demand (using
takt time load leveling line balancing single piece flow) Minimized inventory through all tiers of the supply chain On-time supplier delivery to point of use Minimal source or incoming inspection Effective two-way communication links to coordinate pro
duction amp delivery schedules Striving for zero quality defects essential to success Greater efficiency and profitability throughout the supplie
r network
LeanEnterprise
Value
Aerospace Firms Have Faced an UphillChallenge in Synchronizing Flow with Suppliers
PERCENT OF SUPPLIER SHIPMENTS TO STOCKROOMFACTOWO INCOMING OR PRIOR INSPECTIONS
DefenseCommercial Morethan 75 of sales to defer
or commercial markets
Defense (25) Commercial (9)
(Year 1993 N= Number of responding business unitsc
LeanEnterprise
Value
Supplier Certification has been an Important Early Enabler of Achieving Synchronized
Flow in Aerospace
PERCENT OF DIRECT PRODUCTION SUPPLIERS OF A TYPICAL AEROSPACE ENTERPRISE THAT ARE CERTIFIED (1991 1993 1995)
Industry (48) Airframe (13) Electronics (20) Engines and Other (15)
(N=Number of respondents answering this question for all three years)
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Lean Supply Chain Management Differs Sharply from Conventional Practices
ILLUSTRATIVE
CHARACTERISTICS
CONVENTIONAL MODEL LEAN MODEL
Number amp structure Many vertical Fewer clustered
Procurement personnel Large Limited
Outsourcing Cost-based Strategic
Nature of interactions Adversarial zero-sum Cooperative positive-sum
Relationship focus Transaction-focused Mutually-beneficial
Selection length Lowest price Perfomance
Contract length Short-term Long-term
Pricing practices Competitive bids Target costing
Price changes Upward Downward
Quality Inspection-intensive Designed-in
Delivery Large quantities Smaller quantities (JIT)
Inventory buffers Large Minimized eliminated
Communication Limited task-related Extensive multi-level
Information flow Directive one-way Collaborative two-way
Role in development Limited build-to-print Substantial
Production flexibility Low High
Technology sharing Very limited nonexistent Extensive
Dedicated investments Minimal-to-some Substantial
Mutual commitment Very limited nonexistent High
Govemance Market-driven Self-governing
Future expectations No Quarantee Considerable
LeanEnterprise
Value
Lean Supply Chain Management Principles Derive from Basic Lean Principles
Focus on the supplier network value stream Eliminate waste Synchronize flow Minimize both transaction and production costs Establish collaborative relationships while balancing co
operation and competition Ensure visibility and transparency Develop quick response capability Manage uncertainty and risk Align core competencies and complementary capabilitie
s Foster innovation and knowledge-sharing
LeanEnterprise
Value
A Set of Mutually-Reinforcing Lean Practices Translate these Principles into Action
This lecture highlights key enablers amp practices by focusing on bull Synchronized production and deliverybull Partnerships and strategic alliancesbull Early supplier integration into design and development IPTs
Design supplier network architecture Design of supplier network driven by strategic thrust Fewer suppliers ldquoclustered controlrdquo Supplier selection based on performance
Develop complementary supplier capabilities Ensured process capability (certification) Targeted supplier development (SPC Kaizen) Greater responsibilities delegated to suppliers
Create flow and pull throughout supplier network Linked business processes ITIS infrastructure Two-way information exchange amp visibility Synchronized production and delivery (JIT)
Establish cooperative relationships amp effective coordination mechanisms
Joint problem-solving mutual assistance Partnerships amp strategic alliances Open and timely communications Increased interdependence amp ldquoshared destinyrdquo
Maximize flexibility amp responsiveness Seamless information flow Flexible contracting Rapid response capability
Optimize product development through early supplier integration
Integrate suppliers early into design amp development IPTs Collaborative design architectural innovation Open communications and information sharing Target costing design-to-cost
Integrate knowledge and foster innovation Knowledge-sharing technology transfer Aligned technology roadmaps
LeanEnterprise
Value
Synchronized Production and Delivery Throughout the Supplier Network is a Central
Lean Concept
Integrated supplier lead times and delivery schedules Flows from suppliers pulled by customer demand (using
takt time load leveling line balancing single piece flow) Minimized inventory through all tiers of the supply chain On-time supplier delivery to point of use Minimal source or incoming inspection Effective two-way communication links to coordinate pro
duction amp delivery schedules Striving for zero quality defects essential to success Greater efficiency and profitability throughout the supplie
r network
LeanEnterprise
Value
Aerospace Firms Have Faced an UphillChallenge in Synchronizing Flow with Suppliers
PERCENT OF SUPPLIER SHIPMENTS TO STOCKROOMFACTOWO INCOMING OR PRIOR INSPECTIONS
DefenseCommercial Morethan 75 of sales to defer
or commercial markets
Defense (25) Commercial (9)
(Year 1993 N= Number of responding business unitsc
LeanEnterprise
Value
Supplier Certification has been an Important Early Enabler of Achieving Synchronized
Flow in Aerospace
PERCENT OF DIRECT PRODUCTION SUPPLIERS OF A TYPICAL AEROSPACE ENTERPRISE THAT ARE CERTIFIED (1991 1993 1995)
Industry (48) Airframe (13) Electronics (20) Engines and Other (15)
(N=Number of respondents answering this question for all three years)
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Lean Supply Chain Management Principles Derive from Basic Lean Principles
Focus on the supplier network value stream Eliminate waste Synchronize flow Minimize both transaction and production costs Establish collaborative relationships while balancing co
operation and competition Ensure visibility and transparency Develop quick response capability Manage uncertainty and risk Align core competencies and complementary capabilitie
s Foster innovation and knowledge-sharing
LeanEnterprise
Value
A Set of Mutually-Reinforcing Lean Practices Translate these Principles into Action
This lecture highlights key enablers amp practices by focusing on bull Synchronized production and deliverybull Partnerships and strategic alliancesbull Early supplier integration into design and development IPTs
Design supplier network architecture Design of supplier network driven by strategic thrust Fewer suppliers ldquoclustered controlrdquo Supplier selection based on performance
Develop complementary supplier capabilities Ensured process capability (certification) Targeted supplier development (SPC Kaizen) Greater responsibilities delegated to suppliers
Create flow and pull throughout supplier network Linked business processes ITIS infrastructure Two-way information exchange amp visibility Synchronized production and delivery (JIT)
Establish cooperative relationships amp effective coordination mechanisms
Joint problem-solving mutual assistance Partnerships amp strategic alliances Open and timely communications Increased interdependence amp ldquoshared destinyrdquo
Maximize flexibility amp responsiveness Seamless information flow Flexible contracting Rapid response capability
Optimize product development through early supplier integration
Integrate suppliers early into design amp development IPTs Collaborative design architectural innovation Open communications and information sharing Target costing design-to-cost
Integrate knowledge and foster innovation Knowledge-sharing technology transfer Aligned technology roadmaps
LeanEnterprise
Value
Synchronized Production and Delivery Throughout the Supplier Network is a Central
Lean Concept
Integrated supplier lead times and delivery schedules Flows from suppliers pulled by customer demand (using
takt time load leveling line balancing single piece flow) Minimized inventory through all tiers of the supply chain On-time supplier delivery to point of use Minimal source or incoming inspection Effective two-way communication links to coordinate pro
duction amp delivery schedules Striving for zero quality defects essential to success Greater efficiency and profitability throughout the supplie
r network
LeanEnterprise
Value
Aerospace Firms Have Faced an UphillChallenge in Synchronizing Flow with Suppliers
PERCENT OF SUPPLIER SHIPMENTS TO STOCKROOMFACTOWO INCOMING OR PRIOR INSPECTIONS
DefenseCommercial Morethan 75 of sales to defer
or commercial markets
Defense (25) Commercial (9)
(Year 1993 N= Number of responding business unitsc
LeanEnterprise
Value
Supplier Certification has been an Important Early Enabler of Achieving Synchronized
Flow in Aerospace
PERCENT OF DIRECT PRODUCTION SUPPLIERS OF A TYPICAL AEROSPACE ENTERPRISE THAT ARE CERTIFIED (1991 1993 1995)
Industry (48) Airframe (13) Electronics (20) Engines and Other (15)
(N=Number of respondents answering this question for all three years)
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
A Set of Mutually-Reinforcing Lean Practices Translate these Principles into Action
This lecture highlights key enablers amp practices by focusing on bull Synchronized production and deliverybull Partnerships and strategic alliancesbull Early supplier integration into design and development IPTs
Design supplier network architecture Design of supplier network driven by strategic thrust Fewer suppliers ldquoclustered controlrdquo Supplier selection based on performance
Develop complementary supplier capabilities Ensured process capability (certification) Targeted supplier development (SPC Kaizen) Greater responsibilities delegated to suppliers
Create flow and pull throughout supplier network Linked business processes ITIS infrastructure Two-way information exchange amp visibility Synchronized production and delivery (JIT)
Establish cooperative relationships amp effective coordination mechanisms
Joint problem-solving mutual assistance Partnerships amp strategic alliances Open and timely communications Increased interdependence amp ldquoshared destinyrdquo
Maximize flexibility amp responsiveness Seamless information flow Flexible contracting Rapid response capability
Optimize product development through early supplier integration
Integrate suppliers early into design amp development IPTs Collaborative design architectural innovation Open communications and information sharing Target costing design-to-cost
Integrate knowledge and foster innovation Knowledge-sharing technology transfer Aligned technology roadmaps
LeanEnterprise
Value
Synchronized Production and Delivery Throughout the Supplier Network is a Central
Lean Concept
Integrated supplier lead times and delivery schedules Flows from suppliers pulled by customer demand (using
takt time load leveling line balancing single piece flow) Minimized inventory through all tiers of the supply chain On-time supplier delivery to point of use Minimal source or incoming inspection Effective two-way communication links to coordinate pro
duction amp delivery schedules Striving for zero quality defects essential to success Greater efficiency and profitability throughout the supplie
r network
LeanEnterprise
Value
Aerospace Firms Have Faced an UphillChallenge in Synchronizing Flow with Suppliers
PERCENT OF SUPPLIER SHIPMENTS TO STOCKROOMFACTOWO INCOMING OR PRIOR INSPECTIONS
DefenseCommercial Morethan 75 of sales to defer
or commercial markets
Defense (25) Commercial (9)
(Year 1993 N= Number of responding business unitsc
LeanEnterprise
Value
Supplier Certification has been an Important Early Enabler of Achieving Synchronized
Flow in Aerospace
PERCENT OF DIRECT PRODUCTION SUPPLIERS OF A TYPICAL AEROSPACE ENTERPRISE THAT ARE CERTIFIED (1991 1993 1995)
Industry (48) Airframe (13) Electronics (20) Engines and Other (15)
(N=Number of respondents answering this question for all three years)
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Synchronized Production and Delivery Throughout the Supplier Network is a Central
Lean Concept
Integrated supplier lead times and delivery schedules Flows from suppliers pulled by customer demand (using
takt time load leveling line balancing single piece flow) Minimized inventory through all tiers of the supply chain On-time supplier delivery to point of use Minimal source or incoming inspection Effective two-way communication links to coordinate pro
duction amp delivery schedules Striving for zero quality defects essential to success Greater efficiency and profitability throughout the supplie
r network
LeanEnterprise
Value
Aerospace Firms Have Faced an UphillChallenge in Synchronizing Flow with Suppliers
PERCENT OF SUPPLIER SHIPMENTS TO STOCKROOMFACTOWO INCOMING OR PRIOR INSPECTIONS
DefenseCommercial Morethan 75 of sales to defer
or commercial markets
Defense (25) Commercial (9)
(Year 1993 N= Number of responding business unitsc
LeanEnterprise
Value
Supplier Certification has been an Important Early Enabler of Achieving Synchronized
Flow in Aerospace
PERCENT OF DIRECT PRODUCTION SUPPLIERS OF A TYPICAL AEROSPACE ENTERPRISE THAT ARE CERTIFIED (1991 1993 1995)
Industry (48) Airframe (13) Electronics (20) Engines and Other (15)
(N=Number of respondents answering this question for all three years)
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Aerospace Firms Have Faced an UphillChallenge in Synchronizing Flow with Suppliers
PERCENT OF SUPPLIER SHIPMENTS TO STOCKROOMFACTOWO INCOMING OR PRIOR INSPECTIONS
DefenseCommercial Morethan 75 of sales to defer
or commercial markets
Defense (25) Commercial (9)
(Year 1993 N= Number of responding business unitsc
LeanEnterprise
Value
Supplier Certification has been an Important Early Enabler of Achieving Synchronized
Flow in Aerospace
PERCENT OF DIRECT PRODUCTION SUPPLIERS OF A TYPICAL AEROSPACE ENTERPRISE THAT ARE CERTIFIED (1991 1993 1995)
Industry (48) Airframe (13) Electronics (20) Engines and Other (15)
(N=Number of respondents answering this question for all three years)
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Supplier Certification has been an Important Early Enabler of Achieving Synchronized
Flow in Aerospace
PERCENT OF DIRECT PRODUCTION SUPPLIERS OF A TYPICAL AEROSPACE ENTERPRISE THAT ARE CERTIFIED (1991 1993 1995)
Industry (48) Airframe (13) Electronics (20) Engines and Other (15)
(N=Number of respondents answering this question for all three years)
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Closer Communication Links with Suppliers Paved the Way for Synchronizing Flow
TYPES OF INFORMATION PROVIDED TO RESPONDING BUSINESS UNITS BY THEIR MOST IMPORTANT SUPPLIERS ON A FORMAL BASIS 1989 vs 1993
1989 (381432151614) 1993 (556569554154)(N=78Total number of responding business units)
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Concrete Example Engine Parts CastingSupplier Worked with Customer Company to
Achieve Synchronized Flow
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Mastering amp Integrating Lean Basics with Prime was Necessary for Achieving
Synchronized Flow
6S -- Visual factory Total productive maintenance Quality control Process certification Mistake proofing Setup reduction Standard work Kaizen
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Ensure Substantial Performance
Improvements
Long-term relationships and mutual commitments Intensive and regular sharing of technical and cost infor
mation Mutual assistance and joint problem-solving Customized (relationship-specific) investments Risk-sharing cost-sharing benefit-sharing arrangement
s Trust-building practices -- ldquoone teamrdquo mindset collocati
on of technical staff ldquoopen kimonordquo Progressively increasing mutual dependence -- shared f
ate discouraging opportunistic behavior Self-enforcing contracting driving continuous improvem
ent
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Supplier Partnerships amp Strategic Alliances Bring Important Mutual Benefits
Reduced transaction costs (cost of information gathering negotiation contracting billing)
Improved resource planning amp investment decisions Greater production predictability amp efficiency Improved deployment of complementary capabilities Greater knowledge integration and RampD effectiveness Incentives for increased innovation (through cost- shari
ng risk-sharing knowledge-sharing) Increased mutual commitment to improving joint long- t
erm competitive performance
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value Major Lean Lessons for Aerospace Industry
Supply chain design linked to corporate strategic thrust Fewer first-tier suppliers Greater supplier share of product content
Strategic supplier partnerships with selected suppliers Trust-based relationships long-term mutual commitment Close communications knowledge-sharing Multiple functional interfaces
Early supplier integration into design Early and major supplier role in design Up-front design-process integration Leveraging supplier technology base for innovative solutions
Self-enforcing agreements for continuous improvement Target costing Sharing of cost savings
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Chrysler Supplier PartnershipsSpeed Development
Length of Product Development Cycle
234 Weeks 232 Weeks
183 Weeks180 Weeks
184 Weeks
160 Weeks
K-Car (81) Minivan (84) Shadow (87)
Dakota Truck (87)
LH Cars (93) Neon (94) JA Cirrus Stratus (95)
LH Cars (98E)
Source Dyer (1998)Estimated
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Aerospace Early Supplier Involvement in IPTs Impacts Producibility and Cost
EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARYAEROSPACE PRODUCT GDEVELOPMENT PRO RAMS IMPACTS
ON PRODUCIBILITY AND COST
Firms facing producibility and cost problems
of responding firms in Group A(420)
of responding firms in Group B(79)
WITH With early supplier involvement in IPTsWITHOUT Without early supplier involvement in IPTs
EARLY Before Milestone
Group A (With) Group B (Without)
Numerator(s) N=47 Number of affirmative responses to this question (ie faced producibility and cost problem) in each group (ie Group Aand Group B)Denominator(s)R=209 Total number of respondents to this question in each groupSample Size S=29 Maximum possible number of respondents to any question in the survey (Group A20 Group B9)SOURCE Lean Aerospace Initiative Product Development Survey (1994)
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Early Supplier Involvement Key Success Factors
FIRMS WITH EARLY SUPPLIER INVOLVEMENT IN IPTS IN US MILITARY AEROSPACE PRODUCT DEVELOPMENT PROGRAMS KEY
SUCCESS FACTORS
Per
cent
of r
espo
ndin
g bu
sine
ss u
nits
in e
ach
grou
p
EARLY SUPPLIER INVOLVEMENT IN IPTS
Established co-located IPTsincluding suppliers
Used commercial parts
Numerator(s) N=118 (Group A) 12 ( Group B) Number of affirmative responses to this question in each group bycategory of practiceimplementation ( ie co-located IPTs use of commercial parts) Denominator(s) R=209 Total number of respondents to this question in each groupSample SizeS=29 Maximum possible mumber of respondents to any question in the survey (Group A20 Group B9)
NOTESEarly Before Milestone 1With Without Early supplier involvement in IPTs (before Milestone 1)
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Evolution of Early Supplier Integrationin the Aerospace Industry
ARCHITECTURAL INNOVATION Major modification of how components in a systemproduct are linked together
bullSignificant improvement in systemproduct architecture through changes in formstructure functional interfaces or system configuration bullKnowledge integration over the supplier network (value stream perspective prime-key suppliers-subtiers tapping supplier technology base)
ldquoOldrdquo Approach ldquoCurrentrdquo Lean
ldquoEmergingrdquo Lean
Armrsquos length interfaces totally defined and controlled
Collaborative but constrained by prior workshare arrangements
Collaborative and seamlessly integrated enabling architectural innovation
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Summary Architectural Innovation YieldsSignificant Benefits
Key Characteristics
Case Study A
(SMART MUNITION
SYSTEM)
Case Study B
(ENGINE NOZZLE)
MAKE-BUY DESIGN
RESPONSIBILITY
Early supplier integration
into IPT Teaming with key
suppliers to optimize
design
New joint design and
engineering approach
based on make-buy Prime retains design control
SUPPLIER ROLE Collaborative Suppliers given design
responsibility and
configuration control
Part of joint design team Component design
responsibility Joint configuration control
SUPPLIER
SELECTION
AGREEMENT
Competitive pre-sourcing Commercial pricing Long-term commitments Long-term warranty
Supplier down select after
joint preliminary design
period CPFF Not-to- compete
agreements
PROCESS
RELATIONSHIPS
Collocated teams Open communications knowledge-sharing WorksharingElectronic linkages Govrsquot part of team
Collocated teams Concurrent engineering Knowledge-sharing Electronic linkages Government involvement
MAJOR DRIVERS Cost Performance
ARCHITECTURAL
INNOVATION
Guidance control unit
redesigned from modular to
Integrated system
architecture
Riveting rather than welding
resulted in redesign of
interfaces and how components
are linked together
MAJOR BENEFITS Over 60 reduction in unit cost Cycle time 64 mo Down
to 48 mo (down by 25) Win-win for value stream
Five-fold reduction in unit cost Cycle time reduction ont as important Substantial risk reduction Win-win for value stream
Case studies
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Summary of Key Practices Enabling Architectural Innovation
Pre-sourcing long-term commitment Early supplier integration into IPTs IPPD co-location joint desi
gn amp configuration control Leveraging technology base of suppliers (key suppliers tooling
suppliers subtiers) Workshare arrangements optimizing supplier core competencie
s Retaining flexibility in defining system configuration Open communications informal links knowledge-sharing Target costing design to cost Supplier-capability-enhancing investments Incentive mechanisms (not to compete agreements long-term
warranty) maintaining trade secrets Government part of the team relief from military standards and
specifications
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Electronic Integration of Supplier Network Early Results
Important success factors include Clear business vision amp strategy Early stakeholder participation (eg top management support internal process owners supp
liers joint configuration control) Migrationintegration of specific functionality benefits of legacy systems into evo
lving new ITIS infrastructure Great care and thought in scaling-up experimental ITIS projects into fully-functi
onal operational systems Electronic integration of suppliers requires a process of positiv
e reinforcement -- greater mutual information exchange helps build increased trust which in turn enables a closer collaborative relationship and longer-term strategic partnership
Close communication links with overseas suppliers pose a serious security risk and complex policy challenge
Challenge Electronic integration of supplier networks for technical data exchange as well as for synchronization of business processes
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Fostering Innovation across Supplier Networks Ensures Continuous Delivery of Value to all Stakeholders
Research Case studies on F-22 Raptor avionics subsystems -- what incentives practices amp tools foster innovation across suppliers
Major finding Innovation by suppliers is hampered by many factors This seriously undermines weapon system affordability
Excessive performance and testing requirements that do not add value One-way communication flows concern for secrecy ldquokeyholerdquo visibility by suppli
ers into product system architecture Little incentive to invest in process improvements due to program uncertainty lim
ited internal supplier resources often narrow business case Major subcontractors switching rather than developing subtier suppliers Yearly contract renegotiations wasteful amp impede longer-term solutions
Recommendations Use multiyear incentive contracting amp sharing of cost savings Improve communications with suppliers share technology roadmaps Make shared investments in selected opportunity areas to reduce costs Provide government funding for technology transfer to subtiers
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value Quick Review of Aerospace Progress
Aerospace industry has made important strides in supplier integration but this is only the beginning of the road
Production Supplier certification and long-term supplier partnerships -- process control amp parts synchronization
Development Early supplier integration into product development critical
Strategic supply chain design is a meta core competency Implementation efforts have required new approaches
Re-examination of basic assumptions (eg make-buy) New roles and responsibilities between primes and suppliers Communication and trust fundamental to implementation
Aerospace community faces new challenges and opportunities Imperative to take ldquovalue streamrdquo view of supplier networks Focus on delivering best lifecycle value to customer Need to evolve information-technology-mediated new organizationa
l structures for managing extended enterprises in a globalized market environment
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Lean Supplier Networks Offer SignificantCompetitive Advantages
Exhibit superior performance system-wide -- greater efficiency lower cycle time higher quality
Not an accident of history but result of a dynamic evolutionary process
Not culture dependent but are transportable worldwide
Can be built through a proactive well-defined process of change in supply chain management
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Key Questions for Aerospace Enterprise Management
Does the size structure and composition of the supplier network reflect your enterprisersquos strategic vision
Has your enterprise created partnerships and strategic alliances with key suppliers to strengthen its long-term competitive advantage
Are major suppliers as well as lower-tier suppliers integrated into your enterprisersquos product process and business development efforts
Has your enterprise established mutually-beneficial arrangements with suppliers to ensure flexibility and responsiveness to unforeseen external shifts
Does your enterprise have in place formal processes and metrics for achieving continuous improvement throughout the extended enterprise
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Emergence of Strategic Supplier Partnerships has been aCentral Feature of Aerospace Industryrsquos Transformation
in the 1990s
Survey 85 of firms established production-focused supplier partnerships involving long-term agreements (LTAs) with key suppliers
Major reasons Reduce costs 97 Minimize future price uncertainty 85 Mutual performance improvement 85 Chief characteristics One or more products 3+ years 97 Multi-year designbuild 49 On-going (evergreen) 24
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Case Study Results Show Significant PerformanceImprovements by Building Integrated Supplier Networks
through Supplier Partnerships
Case study Major producer of complex airframe structures
REDUCED CYCLE TIME (Main Product
Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
REDUCED CYCLE TIME (Main Product Order-to-Shipment months)
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Supplier Partnerships Driven by Strategic Corporate Thrust to Develop Integrated Supplier Networks
KEY PRACTICES BEFORE AFTER
Reduced and streamlined supplier base Number of direct production suppliers 542 162
Improved procurement dfficiency Procurement personnel as of total employment () Subcontracting cycle time (days)
49
13
19
7
Improved supplier quality and schedule Procurement (dollars) from certified suppliers ()Supplier on-time performance ( of all shipments)
0
764
75
830
Established strategic supplier partnerships ldquoBest valuerdquo subcontracts as all awards 0
500
95
1000
BEFORE 1989 AFTER 1997 Refers to 1991
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value Focus on Early Supplier Integration
Nearly 80 of life cycle cost committed in early design phase Design and development of complex aerospace systems calls on core
capabilities of numerous suppliers providing as much as 60-70 of end product value
Supplier network represents an enormous beehive of distributed technological knowledge amp source of cost savings
What are better ways of leveraging this capability for more efficient product development in aerospace sector
Worldwide auto industry experience provides critical lessons
Historic opportunity for achieving BEST LIFECYCLE VALUE in aerospace weapon system acquisition through early supplier
integration into design and development process
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value Lean Difference Auto Industry
Lean Difference Significantly lower development cost and shorter cycle time
Average engineering hours per new car (millions of hours)
Average development cycle time per new car
(months)
Prototype lead time
(months to first engineering protoy
pe)
Source Clark Ellison Fujimoto and Hyun (1995) data refer to 1985-89
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995
LeanEnterprise
Value
Lean Difference Auto Industry Supplier Role in Design
Lean difference starts with significant supplier role in design and development
Supplier Proprietary Parts Assembler DesignedDetail-Controlled Parts
Supplier DesignedldquoBlack Boxrdquo Parts
Percent of total cost of parts purchased from suppliers
Source Clark Ellison Fujimoto and Hyun (1995