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Framing Innovation for Sustainability Greening of Industry Conference October 1215 San Francisco, CA

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Title: Framing Innovation for Sustainability Greening of Industry Conference October 1215 San Francisco, CA


1
Framing Innovation for SustainabilityGreening of
Industry ConferenceOctober 12-15San Francisco,
CA
  • Andrea Larson
  • Darden Graduate School of Business Administration
  • University of Virginia
  • Charlottesville, VA
  • larsona_at_darden.virginia.edu

2
Why Is This Hard?
  • Radical Ideas
  • Conceptual Clarity Lacking
  • Barriers to Understanding
  • Right Questions?

3
Confusion About How To Think
  • No established field or single functional area
  • Economics is the intellectual foundation of
    market/capitalist economies
  • Economists fold environment into existing models
  • Environment and Sustainability

4
ALTERNATIVE QUESTIONS
  • HOW DO THE WAYS IN WHICH WE THINK DETERMINE THE
    POSSIBILITIES WE SEE?
  • HOW MIGHT WE THINK IN NEW WAYS ABOUT THE ISSUES?

5
Empirical DataGrounded Theory on Innovation3
Lenses
Innovation for Sustainability
Entrepreneurial Innovation
Science
Stakeholder Networks
6
Schumpeterian Entrepreneurship
Innovation
  • Substitution Through New
  • Processes
  • Products
  • Technologies
  • Markets
  • Organizing modes
  • and New Combinations

NOT incremental improvements to existing products
and systems
7
Entrepreneurship Creating the Future Through
Innovation
Conventional Economy (mirrored in business school
curricula)
Entrepre-neurial Sector
Sustainability Innovation
Wind turbine technology Fuel cells Hybrid
cars Non-toxic materials (plastics) Organic
food Green building design
Zero emissions Zero waste Reverse
logistics Cradle to cradle logic Buy function,
not product Markets in natures services
Past
Future
8
The changes are different in kind, not just in
degree.
9
Natural System Issues
  • Biodiversity Depletion
  • Habitat destruction
  • Habitat degradation
  • Extinction
  • Food Supply Problems
  • Overgrazing
  • Farmland loss and degradation
  • Wetlands loss and degradation
  • Overfishing
  • Coastal pollution
  • Soil erosion
  • Soil salinization
  • Water shortages
  • Groundwater depletion
  • Loss of biodiversity
  • Air Pollution
  • Global climate change
  • Stratospheric ozone depletion
  • Urban air pollution
  • Acid deposition
  • Outdoor pollutants
  • Indoor pollutants

Major Environmental Problems
  • Water Pollution
  • Sediment
  • Nutrient overload
  • Toxic chemicals
  • Infectious agents
  • Oxygen depletion
  • Pesticides
  • Oil spills
  • Excess heat
  • Human Health
  • Childhood diseases
  • Cancer
  • Asthma
  • Immune system deficiencies
  • Reproductive system problems
  • Endocrine system disruptions
  • Waste Production
  • Solid
  • Hazardous
  • Molecular

Source Adapted from Living in the Environment,
Tenth Edition, G. Tyler Miller, Jr., 1998
10
Population Growth
16 15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0
Billions of people
Black Death - the Plague
2-5 million years
8000
6000
4000
2000
2000
2100
Time
B.C.
A.D.
Hunting and Gathering
Agricultural Revolution
Industrial Revolution
Source Living in the Environment, Tenth Edition,
G. Tyler Miller, Jr., 1998
11
(No Transcript)
12
Environmental Impact Model
Number of people (P)
Number of units of resources used per person (A)
?
Environmental degradation and pollution per
unit of resource used (T)
?
Environmental impact of population (I)

Source Living in the Environment, Tenth Edition,
G. Tyler Miller, Jr., 1998
13
Unlike natural systems, modern human societies
process resources in a linear fashion, creating
wastes faster than they can be reconstituted into
usable resources.
6 Product
94 Waste
On average 94 of the raw materials used in
creating a product ends up as waste only 6 ends
up in the final product.
Source National Academy of Engineering
14
Pressures on the Corporation
Global Wealth Distribution, Poverty, Health Issues
Distrust of Corporations
Stockholders
Governments (local, state, national, internatl)
NGOs
Competitors (Entrepreneurs, Innovators)
Corporation
Customers
Science Knowledge
  • Impacts of industrial activity
  • Implications of current trends

Citizen Groups
Costs
Employees
Communications (internet, transparency demands)
15
Changing Conditions for Business
Demand for Natural Resources (population,
consumption, technology)
1900
1970
Material cost, availability Waste
disposal Regulation Health issues Fines
Liabilities Insurance Bank credit Risk Fiduciary
responsibility Audits
Innovation and Entrepreneurship
The Economy
The Economy
Corporation
Public opinion NGOs Media Intl
agreements Science knowledge
Shareholder activism Customer demand Recruitment
and retention Communications technology
and Internet
Natural Resources (services, assimilative
capacity)
Adapted from TNS
16
I remember when there was no damn environment
17
Terrarium
18
Unlike natural systems, modern human societies
process resources in a linear fashion, creating
wastes faster than they can be reconstituted into
usable resources.
6 Product
94 Waste
On average 94 of the raw materials used in
creating a product ends up as waste only 6 ends
up in the final product.
Source National Academy of Engineering
19
Changing Character of Environmental Issues in the
Last 25 Years
Local Specific Short Delay Low Complexity Society
Impact Low
Global Diffuse Long Delay High Complexity Societa
l Impact High
20
WHAT HAS CHANGED?
  • HUMAN ACTIVITY NOW INFLUENCES THE DYNAMICS OF
    NATURAL SYSTEMS
  • ATMOSPHERE
  • OCEAN FISHERIES, CORAL REEFS
  • HYDROLOGIC SYSTEMS
  • HUMAN IMMUNE SYSTEM
  • CHILDHOOD ASTHMA AND CANCERS
  • ANIMAL, INCLUDING HUMAN, REPRODUCTIVE SYSTEMS

21
FRAMEWORKS GROUNDED IN SCIENCE
  • Industrial Ecology
  • Earth Systems Engineering and Management
  • The Natural Step
  • Natural Capital
  • Green Chemistry
  • Cradle to Cradle Design
  • Natures Services
  • Biomimicry
  • Ecological Economics

22
Entrepreneurial Innovation
An iterative process of interactions with
prospective stakeholders that results in a
stakeholder network from which the new
product/process/technology emerges.
23
What Field Data Show
  • Entrepreneurial innovation is a process
  • It is typically led by an outsider-insider
    entrepreneur
  • Sustainable innovation is generated through
    stakeholder network processes (led by an
    outsider-insider entrepreneur)
  • The network brings in requisite additional
    outsider perspectives to stimulate innovation
  • Stakeholder networks open to change, willing to
    experiment, motivated to create the future as
    opposed to staying within current possibilities

24
Innovation
An iterative process of interactions with
prospective stakeholders that results in a
stakeholder network from which the new
product/process emerges.
Prospective Stakeholders
Collaborative Ties
Health Experts
Govt Policy Advisors
Innovation
Company
Environmental Groups
Community Groups
Capital Know-how Materials Design ideas Other
inputs
Add Stakeholders (those with a stake, people who
will be influenced or can provide creative input)
Scientists
Traditional Entrepreneurial Innovation Process
Sustainable Innovation Process
25
  • What are the most useful ways to think about the
    future of business given the changing
    relationship between human activity and natural
    systems?

26
NEW DEFINITIONS OF THE FIRM
  • The essence of the firm is the competitive
    claims made of it by diverse stakeholders.
    (Venkataraman)
  • value creation is best understood as
    participating in a deal that satisfies multiple
    stakeholders over time. (Freeman)

27
Empirical DataGrounded Theory on Innovation3
Lenses
Innovation for Sustainability
Entrepreneurial Innovation
Science
Stakeholder Networks
28
Redefining the Challenge
  • Human activity is changing the dynamics of
    natural systems
  • Consequently environment and sustainability
    are not just additional business factors to be
    folded in
  • They are one and the same with prosperity
  • This challenge is about the definition of
    capitalism and the purpose of the firm

29
CONCLUSIONS
  • Food for thought
  • A need to change our conceptualizations
  • This is not about greening
  • This is about an entirely different relationship
    of the species to natural systems
  • This is not about the environment
  • This is about the definition of prosperity

30
History repeats itself
  • but each time the price goes up.

31
Kirzner (1973)
  • So long as our decision-makers continue to
    believe that the alternative courses of action
    made available to them by the market are what
    they believed them to be yesterday, we are
    powerless to account for any plan made today
    being different from that made yesterday.
  • PLANS ARE BEING MADE DIFFERENTLY. HOW DO WE
    ACCOUNT FOR THESE NEW, SUSTAINABLE INNOVATION
    IDEAS, PRODUCTS, SERVICES, TECHNOLOGIES, AND
    MARKETS?

32
Sources of Entrepreneurial Opportunities
  • Inefficiencies (Hayek, 1945)
  • Significant changes in social, political,
    demographic, and economic forces outside the
    control of the individual (Kirzner 1973, 1997)
  • Inventions and discoveries that produce new
    knowledge (1-3, Drucker, 1985)
  • Information distribution varies (Sarasvathy,
    1998)
  • Different abilities to identify or pursue
    opportunities (Drucker, 1985)
  • Alertness and Discovery (Kirzner 1973, 1997)
  • Imagination (Shackles 1982)
  • Seeing opportunities as opposed to risks and
    obstacles (Shane Venkataraman, 1999)

33
  • In the morning, the sun rises
  • In the evening, it sets.

34
Mid-1400 A.D. Western Europe
  • Raised the possibility that the Earth was round

1492 Columbus sailed to test the theory
35
500 A.D. Gupta Empire in India
  • Concluded the earth was spherical and rotated on
    an axis
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