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Science/Technology Push Technological Development Science Push Market Pull Incremental Technological Improvement Market Pull Science-Push Innovation Manufacturing Marketing Basic Design & Sales science Engineering Demand-Pull


  1. Science/Technology Push Technological Development Science Push

  2. Market Pull Incremental Technological Improvement Market Pull

  3. Science-Push Innovation Manufacturing Marketing Basic Design & Sales science Engineering Demand-Pull Innovation Market Need Development Manufacturing Sales

  4. Consequences of Partial Understanding of the Innovation Process  Seeing innovation as  a linear 'technology push' process or  one in which the market can be relied upon to pull through innovation  Seeing innovation simply in terms of major 'breakthroughs' and ignoring the significant potential of incremental innovation  Electric bulb first introduced in 1880  80% fall in process cost in 16 years  Seeing innovation as product or process only without recognizing the interrelationship between the two

  5. Combined Effect of Technology Push & Market Pull Market Pull Science Push

  6. The Coupling Model New Needs of society and the market place need Manufac- Idea Prototype Marketing Market Research, generation turing production & sales place design & development New State of the art technology and production technology

  7. Integrating Technology Push and Market Pull to Stimulate Innovation Opportunities for Opportunities for Innovation Technology Push Market Pull  Scientific discoveries  Market demand  Applied knowledge  Proliferation of  Recognized needs application areas  Intellectual capital  Recognized needs  Opportunities for (Scientists & engineers) increased: profitability, quality, productivity  Entrepreneurs

  8. What’s the Connection?  Perfect Eyesight  High Fidelity Music  Retail Revolution

  9. Throwing Light

  10. Progress in Transportation 10 -1 Nuclear Fraction of velocity of Light Rockets 10 -2 10 -3 Chemical Rockets 10 -4 Jet Aircraft 10 -5 Propeller Aircraft 10 -6 Automobiles Trains 10 -7 Horse Carriage 1750 1850 1950 2050

  11. Technology S-Curves  Graphical representations of the development of a new technology  Compare some measure of performance with some Technology measure of effort improves slowly at  The relationship first between effort and performance is typically Then accelerates S-shaped Then tapers off

  12. Natural Limit of Given Technology Era of capital intensity and financial domination Technical Advance Era of process improvement and manufacturing domination Era of product of innovation and engineering domination Time Technology Maturation

  13. Technology Lifecycle/ S-curves  Stage 1. Technology development  Stage 2. Technology application  Stage 3. Application launch  Stage 4. Application growth  Stage 5. Technology maturity  Stage 6. Degraded technology

  14. Radical and Incremental Technological Change  Most technological innovation is incremental, and involves  small improvements to existing technologies  Some technological innovation is radical, and involves  fundamentally new ways of solving a problem

  15. S-Curve of Technology Evolution Declining Improvement Rapid Improvement Emergence Maturity Stage 1 Stage 2 Stage 3 Stage 4 Time Technology Evolution refers to the changes in performance characteristics of a specific technology over time

  16. Stages of Evolution  Emergence  Technology has come into existence but shows little improvement in its performance characteristics  Rapid Improvement  Performance characteristic improves at an accelerating pace  Declining improvement  Pace of improvement declines  Maturity  Further improvements become very difficult to achieve

  17. Business and Innovation

  18. Why Is Progress Slow ?  Long gestation period  Want of relevant design or production know-how  Execution into new products requires special tools, processes and fixtures  Learning Curve  Technology Limits

  19. Technological Improvements Along an S-curve  Tend to be incremental, building on prior developments, and taking place within an existing paradigm  Usually done by established firms:  they have existing technical, market, and organizational capabilities  they have an existing customer base  they have access to internal cash flow to invest

  20. Shifting S-Curve Example Traditional Switching VOIP

  21. Who Shifts the S-Curve? Usually new entrants because:  Incumbents have no incentive to introduce the new technology  Incumbents have investments in existing technology  Products based on the new technology cannibalize incumbents’ sales  Managers at incumbent firms do not see the new technology as a threat  Incumbent firms can improve the performance of their old technologies  Incumbent firms face organizational obstacles to changing their core technologies

  22. Why incumbent Firms Fail in the Face of Architectural Innovation Often lack the right external linkages to gather  information about a new technology architecture emerging in an industry Often lack the capacity to recognize the value of  information about architectural innovation that is presented to them Often have difficulty making use of information  because adopting an architectural innovation typically requires a company to restructure

  23. Assignment # 3 Opportunity Now!

  24. Key Sectors for “Opportunity Now” Exercise  Food  Energy  Clothing  Communication  Housing  Healthcare  Transportation  Entertainment

  25. The Innovation Opportunity Grid Product Process Strategy Break- through Substan- tial Incre- mental

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