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Perspectives on interconnectedglobal business ecosystems
Mäkinen, Saku, PhD, professor
April 12th, 2011
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Tivit Business Forum
Brief agenda
• Ecosystem and its evolution• Properties of ecosystems• [R]Evolutionary mechanisms• Challenges arising from basic properties
• Roles in ecosystems• Keystone player• Dominator player• Niche player
• Value delivery to customer• The central theme for profitability and survival for any ecosystem and
party• Empirical example of value delivery deficiencies and delays
• Summary from structure-evolution-value considerations
Mäkinen, Saku, PhD,professor, industrial management
2
Ecosystem; defined
• Ecosystem, in biology• An ecosystem is a biological environment consisting of all the
organisms in a given area, along with the nonliving factors with which they interact; a biological community and its physical environment linked together through nutrient cycle and energy flow.
• Business ecosystem• An economic community supported by a foundation of interacting
organizations and individuals; suppliers, producers, competitors, etc. The economic community produces goods and services of value to customers, who are themselves members of the ecosystem. Over time, they coevolve their capabilities and roles as well as structures of the ecosystem.
4Mäkinen, Saku, PhD,professor, industrial management
Properties of systems
• Hierarchy• System has a hierarchically nested structure, whereby the system is
seen as a composition of smaller sub-systems that are themselves systems
• Goal orientation• System as a whole is goal-seeking
• Holism at system level performance delivery• Holistic system, its performance and its properties are synthesised
/synergised through the sub-systems properties
Mäkinen, Saku, PhD,professor, industrial management
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Properties of systems
• Interdependence • Sub-systems are interdependent both within the same as well as
across different levels of the system hierarchy
• Modular structure• Sub-systems are specialised for particular functions
• Feedback mechanisms• System has multi-levelled feedback loops
Mäkinen, Saku, PhD,professor, industrial management
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Case mobile ecosystem; industry level
8Mäkinen, Saku, PhD,professor, industrial management
•Hierarchy•Goal orientation•Holism at system levelperformance delivery
•Interdependence •Modular structure•Feedback mechanisms
Basole, 2009
Analyzing generic ecosystem; reducing complexity
Supplier 1
Supplier 2
Complementor 1
Complementor 2
Focal firm Customer
Components Complements
Mäkinen, Saku, PhD,professor, industrial management
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Generic ecosystem; case semiconductor manufacturing
Lens manufacturer
Energy source manufacturer
Mask manufacturer
Resist manufacturer
Lithography tool manufacturer
Semiconductor manufacturers
Mäkinen, Saku, PhD,professor, industrial management
•Hierarchy•Goal orientation•Holism at system levelperformance delivery
•Interdependence •Modular structure•Feedback mechanisms
10Adner, Kapoor, 2010
Evolution of ecosystem2 basic mechanisms
Mäkinen, Saku, PhD,professor, industrial management
Perf
orm
ance
Launch Development Maturity Time
Currenttechnology
Technologyoption 1
Technologyoption 2
All actors aim at improving towards holistic goal of performance deliveryBut make innovation decisions uniquely
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So, if lens producer develops technological performance?
Lens producer
Energy source producer
Mask producer
Resist producer
Lithography tool producer Semiconductor manufacturers
Perf
orm
ance
Launch Development Maturity Time
Mäkinen, Saku, PhD,professor, industrial management
Perf
orm
ance
Launch Development Maturity Time
Perf
orm
ance
Launch Development Maturity Time
Perf
orm
ance
Launch Development Maturity Time
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orm
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Launch Development Maturity Time
Perf
orm
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Launch Development Maturity Time
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Challenges arising from [r]evolution
• Goal orientation and holism in performance delivery• Customer value should be the central theme directing evolution• Managing the goal orientation is not trivial for all parties
• Hierarchy and interdependence • Sub-systems are tied together, coevolving• The delivery of performance is delayed due to interconnectedness
• Modular structure and feedback mechanisms• Synthesis of performance delivery of sub-system levels needs to be
coordinated, either by focal agent or self-organization• Feedback mechanisms may not be economically viable
• Coordination mechanisms• Focal firm, self-interest, profit-survival interest• Other focal agent, e.g. regulatory, other social interests• Self-organization, mutual self-interests, cliques, social interests etc.
13Mäkinen, Saku, PhD,professor, industrial management
Roles in ecosystems
One view on the role aspect…
14Mäkinen, Saku, PhD,professor, industrial management
Roles in ecosystem
• Depending on the level of (cf. Iansiti, Levien, 2004)• Complexity of relationships• Level of turbulence and innovation
• Keystone organizations• High complexity and high level of turbulence/innovation• Simplify complex connectivity btw participants• Reliable point of reference for technological innovations• Concentrating on its own core, and providing guidance on innovation in
technology development of other parties• Disproportionately valued in contrast to its revenue/employees in the
ecosystem as a whole
• Requirements for keystone player• Create value e.g. through platform (services, tools, technologies) to other
parties in ecosystem• Share value through platform to other to attract and retain parties in the
ecosystem development (diversity and robustness on shocks)
15Mäkinen, Saku, PhD,professor, industrial management
Roles in ecosystem
• Depending on the level of (cf. Iansiti, Levien, 2004)• Complexity of relationships• Level of turbulence and innovation
• Dominator player• High complexity and low turbulence/innovation• Integrate vertically or horizontally to own and manage large part of
the network directly (not ecosystem as such)• Controls value creation and value capture• Mediates market requirements to the network
• Requirements for dominator• Market understanding and value delivery• Stability and ability to resist environmental shocks• Responsibility to manage the network
16Mäkinen, Saku, PhD,professor, industrial management
Roles in ecosystem
• Depending on the level of (cf. Iansiti, Levien, 2004)• Complexity of relationships• Level of turbulence and innovation
• Niche player• Low complexity and high turbulence/innovation• Concentrates on specialized capabilities that differentiates it from others
in the ecosystem• Leverage from complementary offering facilitates specialization• In healthy ecosystem, form the bulk and create most of the value
• Requirements for niche player• Careful consideration for developments in ecosystem• Keystone-dominator balance, are there forces to replace specialty?• Innovation is crucial in niche value delivery• How critical is the niche occupied for the whole ecosystem, can it be
replaced?
17Mäkinen, Saku, PhD,professor, industrial management
Managing ecosystem? Example of keystone configuration…
Lens producer
Energy source producer
Mask producer
Resist producer
Lithography tool producerKEYSTONE PLAYER
Semiconductor manufacturers
Mäkinen, Saku, PhD,professor, industrial management
Perf
orm
ance
Launch Development Maturity Time
Perf
orm
ance
Launch Development Maturity Time
Perf
orm
ance
Launch Development Maturity Time
Perf
orm
ance
Launch Development Maturity Time
Perf
orm
ance
Launch Development Maturity Time
Perf
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Launch Development Maturity Time
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Importance of BENEFIT for customer
• The health of ecosystem depends on BENEFIT delivery• Environmental shocks need to be absorbed, diversity• Diversity to fulfill customer demand and moderate its changes
• Different roles have differing dangers• Keystone needs to understand market trends, if not, some other
player finds opportunities; fragile and vulnerable, albeit powerful• Niche player may be more survival oriented, may shift to new
ecosystem with its innovation focus and specialized capabilities• Dominator is solely responsible for value delivery
• BENEFIT for end-user ultimately determines fate• But what is this benefit then…
20Mäkinen, Saku, PhD,professor, industrial management
Value for customer and heterogeneity of customer needs
21Mäkinen, Saku, PhD,professor, industrial management
Woodall,, 2003
Needs of the
Segment A
Needs of the
Segment B
Value for customer heterogeneity and ecosystem structure
• Role of value heterogeneity• More heterogeneous needs,
more niches• More homogenous needs,
more controlled ecosystem• More niches, more fruitful
avenues for ecosystem• More central control sought
after, less needs satisfied competitively
• More heterogeneous needs, more value/risks on keystone
22Mäkinen, Saku, PhD,professor, industrial management
Het
erog
enei
ty o
f mar
ket n
eeds
Low
High
Economies from centralized control
Low High
Self-organizing network
Keystone platform
Dominator platformDominator
Summary from structure-evolution-benefit
• Innovation and competitive advantage• Leaderships no guarantee for competitive advantage nor profits• Innovation in ecosystems cascades unpredictably• Value for the customer (benefit) needs to be the focal point
• Platform for heterogeneous benefits• Heterogeneous value for customer, segment interconnectedness around core
value• Emphasize modularity and platform design, profit sharing• Viable niche mechanisms in modules, survival and profitability• Stable, governed, proprietary platform with wide access to ecosystem
participants
• Systemic goods for homogenous benefit• Homogeneous value for customer, value chain configuration, orchestrated
ecosystem• Emphasize partnership management, interfaces• Viability through joint technology development, sub-system competition• Oligopolistic competition at system level, market connections are stressed
Mäkinen, Saku, PhD,professor, industrial management
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