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By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013...

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By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo credit:
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Page 1: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

By: Jim MacInnes, P.E. Re-Imagining our Economic SystemMSU CCED Institute March 26, 2013

Biophysical Economics: The Science Behind Economic Growth

Photo credit:

Page 2: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 3: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

WHAT IS REAL ECONOMIC WEALTH?

• Money can be printed, and created with the stroke of a pen… or with a keystroke.

• Money and even gold has little or no intrinsic value. So, while money is a ‘marker’ for economic wealth, it is not real economic wealth.

• In 1926 Nobel Laureate, Fredrick Soddy, wrote the book Wealth, Virtual Wealth and Debt, and argued that true economic wealth is:

1. the ability to control the flows of useful energy 2. embodied energy

Page 4: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 5: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

The Biophysical Economy – Reprinted with the permission of SUNY ESF Systems Ecologist, Charles A. S. Hall

The Biophysical Economy – Reprinted with the permission of SUNY ESF Systems Ecologist, Charles A. S. Hall

Page 6: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 7: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

Energy Conservation and the First Law of Thermodynamics

• Thermodynamics is a natural law that deals with the relationship between heat, work and energy

• The First Law of Thermodynamics is about conservation of energy. Energy can be changed from one form to another, however, it cannot be created or destroyed.

• Total Energy of a System = Work done + Waste Heat

• In its simplest form: Work = Force x Distance

• If we want to make something, or transport people and/or freight we must consume useful (concentrated) energy.

Page 8: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

Entropy and the Second Law of Thermodynamics

• Not only must we consume energy to make things, but we must also consume energy to keep them in good repair.

• The second law of thermodynamics is often called Entropy, and is an important law of nature that says everything changes over time to a higher state of disorder.

• Absent energy inputs, nature’s equilibrium is disorder.

• In business, Entropy is accounted for as “depreciation expense” and we must invest “CAPEX” to keep things maintained.

• Global Warming represents the entropy bill for our fossil fuel powered industrial revolution.

Page 9: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

“Weather-related Events on the rise” Reprinted from Traverse City Record Eagle November 18, 2012

Disasters with at least $1 billion in damage for the period 1980 – 2011

Page 10: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

Energy return on energy invested (EROI)

Energy returned to society (100 barrels of oil) EROI = ------------------------------------------------------------------------- = 100 Energy required to (1 barrel of oil) get that Energy

Page 11: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

EROI and Net Energy diagram for building, operating and decommissioning a power-generating project.

Reprinted with the permission of Ida Kubiszewski and Cutler J. Cleveland, The Encyclopedia of

Earth.

Page 12: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

EROI of various electric power generators. Reprinted with the permission of Ida Kubiszewski and

Cutler J. Cleveland, The Encyclopedia of Earth.

- EROI for other energy sources: oil and gas at 11–18 to 1; corn-based ethanol at 0.8 –1.6 to 1; and, biodiesel at 1-3 to 1.

Page 13: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

Reprinted with the permission of Charles A. S. Hall

Page 14: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

Reprinted with the permission of Charles A. S. Hall

Page 15: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 16: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 17: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 18: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 19: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

Reprinted with the permission of David Murphy and Charles A. S. Hall

Energy consumption used to do “Work” causes economic growth, not the converse

Energy is a limiting factor for economic growth.

“Best First” principle (low hanging fruit) and history of diminishing EROI

Page 20: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

Where could we get more energy to power economic growth?

Increase the energy available from fossil fuels, nuclear, wind, solar, etc.

Conserve energy by not doing something and redirect the energy savings to other more productive uses.

Invest in Energy Efficiency where we can do the same job using less which releases energy for other more productive uses

Page 21: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 22: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 23: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

Emerging, non-OECD, economies can afford to pay morefor an incremental barrel of oil (wealth) because it offers more incremental benefit (utility)

Page 24: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

VW’s aero car for China:Gas tank: 1.7 gallonsSpeed: 75 mphMileage: 258 mpgSelling price: US $600

Page 25: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 26: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

1850 1859 1868 1877 1886 1895 1904 1913 1922 1931 1940 1949 1958 1967 1976 1985 1994 2003

-30%

-20%

-10%

0%

10%

20%

30%

40%

50%

60%

70%

Annual Rate of Change (all petroleum liquids)

Rate of Change (all liquids) Linear (Rate of Change (all liquids))

Rate of Change in Global Petroleum production

Page 27: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

The Evidence: Declining Growth Rate of US GDP

19

35

19

38

19

41

19

44

19

47

19

50

19

53

19

56

19

59

19

62

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65

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68

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71

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74

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80

19

83

19

86

19

89

19

92

19

95

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98

20

01

20

04

20

07

20

10

-15%

-10%

-5%

0%

5%

10%

15%

20%

25%

Gross domestic product Linear (Gross domestic product)

An

nu

al

pe

rce

nt

ch

an

ge

Page 28: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 29: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.
Page 30: By: Jim MacInnes, P.E. Re-Imagining our Economic System MSU CCED Institute March 26, 2013 Biophysical Economics: The Science Behind Economic Growth Photo.

• The market will demand a new energy infrastructure based on non-fossil fuel solutions.

• The construction of that new infrastructure requires not just money, but…energy. And that’s the very commodity in short supply.

• Are we willing, in the short term, to sacrifice additional FF energy consumption to build a new renewable energy infrastructure – effectively steepening the decline – in order to invest in a long-term energy plan?

Reprinted with permission of UCSD Physics Prof. Tom Murphy

The Energy Trap


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