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Leverhulme Major Research Fellowship Department of Geography Global Energy Futures: O i g th Gl b l E g Dil Overcoming the Global Energy Dilemma Professor Mike Bradshaw Professor Mike Bradshaw www.le.ac.uk/geography/staff/academic_bradshaw.html

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Leverhulme Major Research Fellowship

Department of Geography

Global Energy Futures: O i g th Gl b l E g DilOvercoming the Global Energy Dilemma

Professor Mike BradshawProfessor Mike Bradshaw

www.le.ac.uk/geography/staff/academic_bradshaw.html

Introduction: Global Energy Dilemmas Introduction: Global Energy Dilemmas

“Without energy there is no economy Without climate there is noWithout energy there is no economy. Without climate there is noenvironment. Without economy and environment there is no materialwealth, no civil society, no personal or national security. And the problemis that we have been getting the energy our economy needs in ways thatis that we have been getting the energy our economy needs in ways thatare wrecking the climate that our environment needs.”

John P. Holdren (Science Advisor to President Barrack Obama)

“It is no exaggeration to claim that the future of human prosperitydepends on how successfully we tackle two central energy challengesdepends on how successfully we tackle two central energy challengesfacing us today: securing the supply of reliable and affordable energy;and effecting a rapid transformation to a low-carbon, efficient andenvironmentally benign system of energy supply ”environmentally benign system of energy supply.

International Energy Agency 2008

PlanPlan

• The Global Energy Dilemmas• Drivers of Future Energy Demand and Drivers of Future Energy Demand and

Carbon EmissionsTh Gl b l E S t i 2030 40• The Global Energy System in 2030-40

• The Global Energy Dilemmas Nexuse Global e gy le as Ne us• Conclusions

The Global Energy DilemmaCan we have secure and affordable energy Can we have secure and affordable energy services that are environmentally benign?

ENERGY ENVIRONMENT

Energy Security

ClimateChange

ECONOMY

EconomicGlobalizationGlobalization

The Kaya ENVIRONMENT

ECONOMY The Kaya Identity(EIA 2008)

ECONOMY

(EIA 2008)

ENERGY

http://www.wired.com/wired/st_formula.html

EIA’s 2035 Reference Scenario

Delivers a 41% Delivers a 41% increase in emissions between 2008 and 2035!

The Triple ChallengeThe Triple Challenge

1. To improve energy intensity, that is to reduce the the amount of energy used gyper unit of output.

2 To reduce the carbon intensity of 2. To reduce the carbon intensity of energy supply, that is the amount of CO2

d d i f li dproduced per unit of energy supplied.3. To achieve the above in ways that are 3. To achieve the above in ways that are

secure, affordable and equitable.

Some Key QuestionsSo e ey Quest o s• What will global energy demand be in g gy

2030?• What will be the geography of that energy • What will be the geography of that energy

demand?• How will we satisfy that level of demand?• What will be the environmental • What will be the environmental

consequences of satisfying that level of demand?

• What policy prescriptions are required?• What policy prescriptions are required?

The Kaya ENVIRONMENT The Kaya Identity

ENVIRONMENTECONOMY

ENERGY

http://www.wired.com/wired/st_formula.html

Projected Population Change, by major area

According the UN Population division, the World’s P l ti ill b 8 Population will be over 8 billion by 2030, reaching 9.3 billion in 2050 and 10 billion billion in 2050 and 10 billion by 2100. Most of the growth will be in Africa and Asia

Source: United Nations, Department of Economic and Social Affairs, Population Division (2011): World Population Prospects, the 2010 Revision. New York

A shift in the global economic centre of gravity

Source: US Energy Information Administration

Primary energy consumption per capitaWorldwide, nearly 2.4 billion people still use traditional biomass fuels for cooking and nearly 1.6 billion people cooking and nearly 1.6 billion people do not have access to electricity.

BP Statistical Review of World Energy 2011

Energy Intensity & Development

Energy use per unit of GDP(Toe per thousand $2010 PPP)

Energy Intensity 2007Kg of oil equivalent

$ 1,000 GDPHistorical trends of energy intensity

Russia 340.0

China 283.3

I di 196 20 6

Energy use per unit of GDP

Toe per thousand $2010 GDPForecast

India 196.2

US 177.4

Japan 126.9

0.5

0.6

US

p 6 9

EU 125.0

UK 101.60.3

0.4

China

World

0.1

0.2World

India

01810 1830 1850 1870 1890 1910 1930 1950 1970 1990 2010 2030

Source: Rühl et al (2011)

A Global Shift in Energy Demand is underway

500

Non-OECDQuadrillion BTUs

400

450Non-OECD demand will account for 96% of the projected increase in energy demand to 2030 (BP 2012)

300

350gy ( )

200

250 OECD

100

150

0

50

Source: EIA International Energy Outlook 2010

1990 1994 1998 2002 2006 2010 2014 2018 2022 2026 2030 2034

Energy Mix is critical to the Carbon Intensity of Energy UseIntensity of Energy Use

BP Statistical Review of World Energy 2011

Future Carbon Dioxide Emissions from Energy

Source: US Energy Information Administration

Two words of caution: ‘embedded carbon’

Arrows depict the largest interregional fluxes of emissions (Mt CO2 y−1) from net exporting countries 

(blue) to net importing countries (red); the threshold for arrows is 200 Mt CO2 y−1 in Top and Bottom 

and 100 Mt CO y−1 in Middle Fluxes to and from Europe are aggregated to include all 27 memberand 100 Mt CO2 y−1 in Middle. Fluxes to and from Europe are aggregated to include all 27 member 

states of the European Union. The geographical concentration of fossil fuel resources leads to larger 

fluxes of emissions than those concentrations embodied in goods and services.

The Global Energy System in 2030-40?gy y

Energy FuturesF t G th i Sh f f il Sh f I i Forecast Growth in

energy consumption

Share of fossil fuels

Share of non-OECD

Increase in energy-relatedCO2 emissions

BP 2030 39% growth by Almost all 28% growthBP 2030 Outlook

39% growth by 2030

Almost all growth, 96%, from non-OECD

28% growth

Exxon Mobil 30% growth by 80% of energy Non-OECD Level off by Exxon MobilOutlook to 2040

30% growth by 2040

80% of energy consumption

Non OECD demand will grow by 80%

Level off by 2030, non-OECD70% of emissions

EIAInternational Energy O tl k 2021

53% growth by 2035

79.1% of energy consumption

Non-OECD demand will grow by 85%

43% growth

Outlook 2021 (Reference case)

IEA World 40% growth in 80% of energy Non OECD 20% increase in IEA World Energy Outlook 2012 (New

40% growth in energy demand by 2035

80% of energy consumption

Non-OECDshare increases from 54% to 64%

20% increase in emissions

(Scenarios)

The Global Energy Dilemmas Nexus

Energy Security

Cli t

Energy Security

Energy Security

ClimateChange

Climate Change

?Globalization

?

Globalization

Kaya Characteristics by Macro Region(Per cent of global total*)

CO2 Emissions Energy Use GNI (PPP) Population

(Per cent of global total )

1990 2007 1990 2008 1990 2009 1990 2010

Developed 41.7 39.0 48.6 42.2 58.6 47.6 16.1 14.1

Post‐Socialist

18.8 9.1 19.7 10.7 8.9 7.6 7.8 5.9

Emerging 23 4 38 3 22 2 34 7 17 8 29 9 50 5 49 9Emerging 23.4 38.3 22.2 34.7 17.8 29.9 50.5 49.9

Developing 7.0 8.8 8.4 11.0 12/0 12.8 25.3 29.7

* Columns do not add up to 100 due to unclassified countries in the World Bank data.

Source: World Bank Data

Global Energy Dilemmas: Drivers

Hi h E S i ti P t S i li t E i

Key = Positive, Potentially Positive, Negative

High Energy Societies Post‐Socialist Economies

• Energy Intensity • Energy Intensity

• Carbon Intensity

• Economic Growth

• Carbon Intensity

• Economic Growth

• Population Growth • Population Growth

Emerging Economies Developing Economies

• Energy Intensity

• Carbon Intensity

• Energy Intensity

• Carbon Intensity

• Economic Growth

• Population Growth

• Economic Growth

• Population Growth

Countries Low-carbon technologies and policies

Expand energy access through grid and off-grid options.

D l g ffi i d bl g h th l t tLow-incomecountries(Developing)

Deploy energy efficiency and renewable energy whenever they are least cost

Remove all fossil-fuel subsidies

Adopt cost-recovery pricingAdopt cost recovery pricing

Leapfrog to distributed generation, where grid infrastructure does not exist

Scale up energy efficiency and renewable energy

Middle-incomeCountries(Post-socialist &

Integrate urban and transport approaches to low carbon use

Remove fossil-fuel subsidies(Emerging) Adopt cost-recovery pricing including local externalities

Conduct research, development, and demonstration in new technologies

Undertake deep emission cuts at home

High-incomeCountries

Undertake deep emission cuts at home

Put a price on carbon: cap-and-trade or carbon tax

Remove fossil-fuel subsidies(Developed)

Increase research, development, and demonstration in new technologies

Change high-energy-consuming lifestyle

Provide financing and low-carbon technologies to developing countries

Source: World Bank (2010) WDR 2010: Development and Climate Change.

Conclusion: The Global Governance Challenge

UNFCCCUNFCCCIEFIEA ? EUEUOPECGECF

?

IMF, WTO,World BankWorld BankG8-G20-G77OECDASEAN, EU, NAFTAASEAN, EU, NAFTA

Thank youThank you