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Energy Systems and Resources. Markets for Technology and Other Economic Concepts. Apply Systems Thinking. Seek the underlying structure Events Trends Structure Understanding the deep logic, not prediction. A Market Perspective. Dynamics of Technology Markets
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Energy Systems and Resources Markets for Technology and Other Economic Concepts
Apply Systems Thinking • Seek the underlying structure Events Trends Structure • Understanding the deep logic, not prediction
A Market Perspective • Dynamics of Technology Markets • Technology change occurs in cycles that are recognizable • But not predictable • Micro-view: forces for change or stasis • An explosion of new technology • Disruptive technologies • Path dependence • Time compression • The international game • Opportunities at the boundaries • Politics matter
To Every Thing, There Is a Season… • Markets for technology change in recognizable cycles • Each phase driven by distinct forces • Pattern of change robust • Across different cultures • In different times
To Every Thing, There Is a Season • Companies and innovations designed to succeed in one part of the cycle often compete poorly in others • Important to understand technology from a systems perspective • Recognize market dynamics • Understand the driving forces • Influence on planning and strategy
Dynamics of Market ChangeFour Phases of Technology Competition Performance Mature Discontinuity Takeoff Amorphous Effort
Amorphous Phase of Technology Competition • Market • Customer needs uncertain • New technology fit to old market models • Technology • Performance uncertain • Often developed in apparently unrelated fields • Competitive skills • Reading the market • Speed to market: QWERTY & first mover advantage • Flexibility, agility, rapid response
Amorphous Phase of Technology CompetitionExamples • Automobiles • Late 1800s early 1900s • Electric, steam, Otto cycle, Diesel cycle • Boat vs. wagon model • Automobiles today? • Personal Computers, late 1970s • Mouse? Graphical user interface? • Hardware and software bundled?
Takeoff Phase of Technology Competition • Market • Customer preferences clarified • Performance dimensions of importance defined • Technology • Rapid advances in performance • Dominant design emerges • Competitive skills • Move technology into production rapidly • Focused, incremental innovation (sustaining technologies) • Process improvement
Takeoff Phase of Technology CompetitionExamples • Automobiles • Ford Model T through 1920s • GM designs 1930s • Aircraft • DC-3 through Lockheed Super-G Constellation • B707 through today • Computers • IBM PC through today
Mature Phase of Technology Competition • Market • Customers do not value further improvements • Technology becomes a commodity • Technology • Further advance encounters fundamental barriers • Speed of sailing ships
Mature Phase of Technology Competition • Competitive skills • Efficiency: manufacturing, sales distribution • Creating non-technology product differentiation • Service • Being big -- scale economies matter • Systems innovation • Containerization of shipping
Mature Phase of Technology CompetitionExamples • Automobiles today • Aircraft • Passenger: why doesn’t the SST fly? • Military • Personal computers • Telecom (central switching)?
The Discontinuity • Market • Ripe for change • Technology • Best opportunities in apparently unrelated fields • New technology often seen as inferior • Competitive skills • Attacker’s advantage • Learning: scanning for opportunities and threats • Effectiveness, not efficiency • Solid and relevant technology base
The DiscontinuityExamples • Hybrid automobiles? • Fuel cell • Battery • Small turbine • Other? • Computers? • PDA • Thin client • Ubiquitous computing?
Implications for Strategic Planning • Two approaches to business planning: • Strategic foresight: specify end goals and pathway to achieve • Best for stable environment: takeoff and mature phases of markets • Strategic recognition: identify and support high potential ideas • Best for dynamic environment: amorphous and discontinuity • Scenario planning works with strategic recognition
Technology as Driver of Discontinuities • Information technologies • Ubiquitous computing • Infinite bandwidth • Effective software • An Observation: performance (MIPS/$1000) • Log performance v. time, 1900 – 2000
Technology as Driver of Discontinuities • Two key elements • Rate of change is exponential • Computation performance improves long term Log MIPS/$1000 1010 10-6 1900 2000
Technology as Driver of Possibilities • Moore’s Law: 5th Paradigm • Electro-mechanical (1900 Census) • Electronic relays • Vacuum tube • Transistor • Integrated circuit • And next? • Neural networks? • 3D computing with nanotube circuits?
What Drives Exponential Progress?An Explanatory Logic • More capable methods (paradigms) are employed at each stage • The value of the information embedded in each round of change increases • When a specific paradigm loses power, another takes over (disruptive paradigm?) • Transistors to integrated circuits • Principles of natural selection apply • Biological evolution: accelerating rates of change
Accelerating Change • So does technological • Doubling time for computer speed (per unit cost) • 1910 to 1950: three years • 1950 to 1966: two years • now: every year • 90 years: first MIPS/$1000 • Now: we add 1 MIPS/$1000 every day
Accelerating Change (Continued) • Human genome project • began 14 years ago: 1000 year project • scheduled for 15 years • already done • Miniaturization • Technology disappears in Hollywood & life • Electric motors • Computers • Phones • Factor of 6 per linear dimension per decade
Disruptive TechnologiesChanging the Rules • Leading companies listen to customers • Disruptive technologies perform worse • Entrained air in manufactured ice • Early semiconductors performed worse than electron tubes • Most desirable customers will not use • Disruptive tech – niche markets • Careful attention to customers blinds incumbent to importance and potential
Disruptive TechnologiesChanging the Rules • Incumbents measure markets carefully • Concerned with • Size • Likely growth rates • Profitability • Disruptive technologies offer new products and services • Harder to measure • Measure potential, not current reality
Disruptive TechnologiesChanging the Rules • Incumbents invest where returns are highest • Disruptive technologies tend to be cheaper • Margins lower • Incumbents pursue large markets • Disruptive technologies begin in niches
Disruptive TechnologiesThe Disk Drive Market • Hard disk drive (HDD) market • Write and read info that computers use • 1974, the 14 inch HDD introduced • Mainframe use • Improvement over magnetic tape • 14 inch technology improves rapidly • 100 MB capacity 1974 • 10,000 MB 10 years later, 22% annual rate • Sustaining technologies
Disruptive TechnologiesThe Disk Drive Market • 1978, new firms develop 8 inch HDD • 20 MB capacity, initially • Inferior in mainframe use • Mainframes needed 300-400 MB • Disruptive technology • Eventually overthrew 14” drives • Established new set of players
How Disk-Drive Performance Met Market Needs Source: Christensen, Clayton M., (1999). Innovation and General Manager, p. 16. Boston: Irwin/McGraw-Hill
Disruptive TechnologiesThe Disk Drive Market • 8-inch drive makers sought niche market • Minicomputers • No interest to mainframe makers • Once established in minicomputer market: • Costs fell • Performance (MB) improved, 40% per year • 1988 overtook requirements of mainframe market • Never overtook performance of 14” disk
Disruptive TechnologiesThe Disk Drive Market • New set of suppliers with new technology • Old suppliers of 14-inch drives passed from scene • Pattern repeated • 5-inch drives • 3.5-inch drives
Disruptive TechnologiesTo Predict? To Recognize? • How does one foresee disruptive technology? • Next slide shows all that is known…
Path Dependence • Best technology does not always win • Path dependence of technology • Producers or consumers see one technology as slightly superior • With market share + experience, manufacturing costs fall • Consumer acceptance grows with familiarity • Advantage snowballs: technology becomes de-facto standard • Winner is first to establish network economies
Path Dependence: VHS vs. Betamax • Sony Betamax machines first to market • Played 1-hour videocassette – too short for movie • All other aspects: quality leader • Sony strategic choice: technology leader AND establish industry standard • Failed in second: MITI refusal to adopt Sony standard
Path Dependence: VHS vs. Betamax • VHS (Matsushita) introduces VCR 1976 • 1 year later • Played 2-hour videocassette • Matsushita licensed the technology widely • Soon 6 brand-name competitors producing VHS machines • Matsushita strategy: price leader • Rental stores preferred • 70% of customers rented machines: 1980
Path Dependence • More machines in the market using VHS format • Incentive for producers of films to use VHS • Customers preferred VHS because of wider choice • More VHS machines sold…etc. • Sony counters with 2-hour machine, technology • Too late
Path Dependence • The point of the story… • In chaotic early technology market, strategic choice matters • Apparently small advantages can become so large that even superior technology cannot prevail.
Cost Structure and Price Competition • Why are technology products so vulnerable to virulent price competition?? • Cost structure • High fixed cost, development • Low marginal cost, serving one more customer cheap • Under competition, P = MC • Therefore competitive basis shifts quickly to cost