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System Dynamics Model for

Analyzing and Measuring the Benefits of Global Earth Observation

Felicjan Rydzak and Michael Obersteiner

International Institute for Applied System Analysis

33 rd International Symposium on Remote Sensing of Environment 2009, Stresa, Italy

(2)

Project

• European Community's Sixth Framework Programme –

“Global Earth Observation – Benefit Estimation: Now, Next and Emerging” (GEOBENE)

• The project objectives: develop methodologies and

analytical tools to assess societal benefits of GEO in the

domains of: Disasters, Health, Energy, Climate, Water,

Weather, Ecosystems, Agriculture and Biodiversity.

(3)

Integration and benefits measurement

Easy Simulation and

Results Presentation

GEO-BENE studies in

particular

Model n SBAs

Report n Data n

Analysis n

FeliX

Global Model

(4)

FeliX

F ull of E conomic- E nvironmental L inkages and I ntegration d X /dt

• Global model trying to ‘mimic’

the whole system (the whole

‘elephant’) and make it an experimental field to asses benefits of GEOSS (does

GEOSS help us to get to know

<and ‘socialize’> with the

‘elephant’?)

• System Dynamics model

(5)

FeliX – Causal Loop Diagram

Population Total Fertility Gross World

Product

+

- Labour Force

+

+

(6)

FeliX – Causal Loop Diagram

Population

Life Expectancy

Total Fertility Gross World

Product

Health + +

-

+

+ Labour Force

+

+

(7)

FeliX – Causal Loop Diagram

Population

Life Expectancy

Total Fertility Gross World

Product

Health

Food Production

+ +

-

+

+ +

Labour Force +

+

DemandFood

Agriculture Land

+ +

+

(8)

FeliX – Causal Loop Diagram

Population

Life Expectancy

Total Fertility Gross World

Product

Health

Food Production

+ +

-

+

+ +

Labour Force +

+

DemandFood

Agriculture Land

Urban Land +

- +

+

+

(9)

FeliX – Causal Loop Diagram

Population

Life Expectancy

Total Fertility Gross World

Product

Health

Pollution Food Production

+ +

-

+

+

+ -

Emission Ratio

+

Energy Production

+ Labour Force

+

+

DemandFood

Agriculture Land

Urban Land +

Forest Land -

-

-

Forest Biomass Production

+

+ Crops Biomass

Production -

+ +

+

<Crops Biomass Production>

+

(10)

FeliX – Causal Loop Diagram

Population

Life Expectancy

Total Fertility Gross World

Product

Health

Pollution Food Production

+ +

-

+

+

+ -

Emission Ratio Climate Damage Water

Resources

Land Fertility

- +

+

Energy Production

+ Labour Force

+

+

DemandFood

Agriculture Land

Urban Land +

Forest Land -

-

-

Forest Biomass Production

+

+ Crops Biomass

Production -

+ +

+

+

<Gross World Product>

+

<Crops Biomass Production>

+

(11)

FeliX – Causal Loop Diagram

Population

Life Expectancy

Total Fertility Gross World

Product

Health

Pollution Food Production

+ +

-

+

+

+ -

Emission Ratio Climate Damage Water

Resources

Land Fertility

- +

+

Energy Production

+

Capital Investments from Energy Sector Labour Force

+

+

DemandFood

Agriculture Land

Urban Land +

Forest Land -

-

-

Forest Biomass Production

+

+ Crops Biomass

Production

- + Energy Demand

+

+ +

+

+

+

<Gross World Product>

+

<Crops Biomass Production>

+

(12)

FeliX – Causal Loop Diagram

Population

Life Expectancy

Total Fertility Gross World

Product

Health

Pollution Food Production

+ +

-

+

+

+ -

Emission Ratio Climate Damage Water

Resources

Land Fertility

- +

+

Energy Production Other

Investments Capital Investments

+

+

Capital Investments from Energy Sector

+ Labour Force +

+

+

DemandFood

Agriculture Land

Urban Land +

Forest Land -

-

-

Forest Biomass Production

+

+ Crops Biomass

Production

- + Energy Demand

+

+ +

+

+

+

<Gross World Product>

+

<Crops Biomass Production>

+

M

(13)

FeliX – Causal Loop Diagram

Population

Life Expectancy

Total Fertility Gross World

Product

Health

Pollution Food Production

+ +

-

+

+

+ -

Emission Ratio Climate Damage Water

Resources

Land Fertility

- +

+

Energy Production Energy

Revenue

Energy Sector Technology Investments Other

Investments Capital Investments

+ +

+

+

Capital Investments from Energy Sector

+ Labour Force +

+

+

DemandFood

Agriculture Land

Urban Land +

Forest Land -

-

-

Forest Biomass Production

+

+ Crops Biomass

Production

- + Energy Demand

+

+ + +

+

+

+

<Gross World Product>

+

<Crops Biomass Production>

+

(14)

FeliX – Causal Loop Diagram

Population

Life Expectancy

Total Fertility Gross World

Product

Health

Pollution Food Production

+ +

-

+

+

+ -

Emission Ratio Climate Damage Water

Resources

Land Fertility

- +

+

Energy Production Energy

Revenue

Energy Sector Technology Investments Other

Investments Capital Investments

+

+

+

+

Capital Investments from Energy Sector

+ +

+

Other Technology Investments +

Labour Force +

+

DemandFood

Agriculture Land

Urban Land +

Forest Land -

-

-

Forest Biomass Production

+

+ Crops Biomass

Production

- + Energy Demand

+

+ + +

+

+

+

<Gross World Product>

+

<Crops Biomass Production>

+ Technology

Stock +

(15)

Population

Life Expectancy

Total Fertility Gross World

Product

Health

Pollution Food Production

+ +

-

+

+

+ -

Emission Ratio Climate Damage Water

Resources

Land Fertility

- +

+

Energy Production

Resources Depletion Energy

Revenue

Energy Sector Technology Investments Other

Investments Capital Investments

+ +

+

+ -

+

Capital Investments from Energy Sector

+ +

+

Other Technology Investments +

Labour Force +

+

DemandFood

Agriculture Land

Urban Land +

Forest Land -

-

-

Forest Biomass Production

+

+ Crops Biomass

Production

- + Energy Demand

+

+ + +

+

+

+

<Gross World Product>

+

<Crops Biomass Production>

+ Technology

Stock +

FeliX – Causal Loop Diagram

(16)

Modeling process

• Information from other models, case studies, reports

• Group Model Building sessions with SME

• Nine model sectors: Economy, Energy, CO2 Emissions, Carbon Cycle, Climate & Environment, Population,

Technology, Land, Energy and the Global Earth Observation System of Systems (GEOSS)

• Social Benefits Areas (SBAs) are inherently embedded into the model structure.

• Calibration to historical data (over a period of a century –

subject to data availability).

(17)

Economy Sector

Gross World Product

2e+014 1.5e+014 1e+014 5e+013

0

1900 1930 1960 1990 2020 2050 2080 Time (Year)

$/ Y ear

Gross World Product : Base Run

Gross World Product : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(18)

Economy Sector

GWP per Capita

40,000 30,000 20,000 10,000

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

$/ (P er so n* Y ear )

GWP per Capita : Base Run

GWP per Capita : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(19)

Population Sector

Population

10 B 7.5 B 5 B 2.5 B

0

1900 1930 1960 1990 2020 2050 2080

Time (Year)

P eopl e

Population : Base Run

Population : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(20)

Population Sector

Population 0 to 14

2 B 1.5 B 1 B 500 M

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

P eopl e

Population 0 to 14 : Base Run

Population 0 to 14 : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(21)

Population Sector

Population 15 to 64

6 B 4.5 B 3 B 1.5 B

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

P eopl e

Population 15 to 64 : Base Run

Population 15 to 64 : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(22)

Population Sector

Population 65 Plus

1 B 750 M 500 M 250 M

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

P eopl e

Population 65 Plus : Base Run

Population 65 Plus : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(23)

Population Sector

Births Rate

200 M 150 M 100 M 50 M

0

1900 1930 1960 1990 2020 2050 2080

Time (Year)

P er son/ Y ear

Births Rate : Base Run

Births Rate : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(24)

Population Sector

Total Fertility

6 4.5 3 1.5

0 1900 1930 1960 1990 2020 2050 2080

Time (Year)

D mn l

Total Fertility : Base Run

Total Fertility : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(25)

Population Sector

Life Expectancy

100 75 50 25

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

Y ear

Life Expectancy : Base Run

Life Expectancy : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(26)

Energy Sector

Energy Demand

20,000 15,000 10,000 5,000

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

M toe/ Y ear

Energy Demand : Base Run

Energy Demand : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(27)

Energy Sector

Oil Production

6,000 4,500 3,000 1,500

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

M toe/ Y ear

Oil Production : Base Run

Oil Production : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(28)

Energy Sector

Coal Production

4,000 3,000 2,000 1,000

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

M toe/ Y ear

Coal Production : Base Run

Coal Production : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(29)

Energy Sector

Gas Production

6,000 4,500 3,000 1,500

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

M toe/ Y ear

Gas Production : Base Run

Gas Production : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(30)

Energy Sector

CO2 Emission from Oil

4 B 3 B 2 B 1 B

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

TonC /Y ear

CO2 Emission from Oil : Base Run

CO2 Emission from Oil : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(31)

Carbon Cycle Sector

CO2 Emission from Coal

4 B 3 B 2 B 1 B

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

TonC /Y ear

CO2 Emission from Coal : Base Run

CO2 Emission from Coal : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(32)

Carbon Cycle Sector

CO2 Emission from Gas

4 B 3 B 2 B 1 B

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

TonC /Y ear

CO2 Emission from Gas : Base Run

CO2 Emission from Gas : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(33)

Carbon Cycle Sector

Total CO2 Emission

10 B 7.5 B 5 B 2.5 B

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

TonC /Y ear

Total CO2 Emission : Base Run

Total CO2 Emission : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(34)

Land Use Sector

Agriculture Land

4e+013 3e+013 2e+013 1e+013

0 1900 1930 1960 1990 2020 2050 2080 Time (Year)

m* m

Agriculture Land : Base Run

Agriculture Land : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(35)

Land Use Sector

Other Land

4e+013 3.5e+013 3e+013 2.5e+013

2e+013

1900 1930 1960 1990 2020 2050 2080 Time (Year)

m *m

Other Land : Base Run

Other Land : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(36)

Land Use Sector

Forest Land

6e+013 5.5e+013 5e+013 4.5e+013

4e+013

1900 1930 1960 1990 2020 2050 2080 Time (Year)

m *m

Forest Land : Base Run

Forest Land : Calibration\2009_03_09_Calibration

- in red – historical data

- in blue – FeliX model Base Run

(37)

Energy Scenario

Wind Energy Production

20,000 15,000 10,000 5,000

02000 2015 2030 2045 2060 2075 2090 Time (Year)

Mtoe/Year

Wind Energy Production : Scenario 1 Wind Energy Production : Base Run

Food Potential Agriculture Land

2 B 1.75 B 1.5 B 1.25 B

1 B

2000 2015 2030 2045 2060 2075 2090

Time (Year)

ha

Food Potential Agriculture Land : Scenario 1 Food Potential Agriculture Land : Base Run

Total CO2 Emission

10 B 7.5 B 5 B 2.5 B

02000 2015 2030 2045 2060 2075 2090

Time (Year)

TonC/Year

Total CO2 Emission : Scenario 1 Total CO2 Emission : Base Run

GEOSS through discovery of additional or more

appropriate locations for wind energy installations, as far as available area and weather conditions are concerned, leads to a greater competitiveness of this energy source.

Wind Energy Market Share Non-GEOSS scenario  43%

GEOSS Scenario  68%

67,242,112 ha saved for food production.

Note: at that time the energy is produced from biomass, solar and wind

(nonrenewables constitute only about 2%)

About 15 billions TonsC less in the atmosphere in case of

GEOSS scenario compared to

non-GEOSS scenario over the

considered period.

(38)

Model vs. Simulator

• Access to code

• Freedom to design of specific simulation experiments

• The whole model overview but

• Requires specific modeling skills

• User friendly!

• Pre-defined GEOSS scenarios

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