Slides from the second afternoon panel session at the Eversheds event: Attracting and Maintaining Institutional Investment in Renewable Energy - 2nd July 2012
3. Resource Revolution:
Meeting the world’s energy,
materials, land and water needs
McKinsey Global Institute
Sustainability and Resource Productivity Practice
Eversheds presentation
July 2, 2011
CONFIDENTIAL AND PROPRIETARY
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4. Main messages
▪ The resource challenge of the next 20 years will be quite different
from any we have seen in the past in five main ways
1. 3 billion new middle class consumers
2. Increasingly challenging and expensive sources of new supply
3. Increasing linkages between resources
4. Environmental factors creating negative feedback loops
5. Growing concern about resource access of the poorest
households
▪ This new resource era creates large upside and downside risks
for renewables
– Large emerging market demand
– New technological innovations such as shale gas could reduce
penetration of renewables
– Uncertain learning curves for renewables, highly dependent on
manufacturing and supply chain efficiencies
– Policy framework which is uncertain and shifting from climate
concerns, to other issues such as energy cost, access and jobs
McKinsey & Company | 1
5. Contents
What are the emerging resource
trends?
What are the implications for the
energy sector?
McKinsey & Company | 2
6. Resource markets are changing fundamentally
Commodity prices have increased sharply since 2000
McKinsey Commodity Price Index
260 World
War I
240
1970s
220
oil shock ▪ Prices are
200 increasing
World
180 War II
▪ Resource
prices are
160 becoming more
volatile
140
▪ Resources are
120 increasingly
inter-linked
100
80 Post-war Great
depression depression
60
40
1900 10 20 30 40 50 60 70 80 90 2000 2011
SOURCE: Resource Revolution McKinsey & Company | 3
7. The emergence of 3 billion middle-class consumers will fuel future
Global middle class1, Billions of people
demand
4.88
0.11
0.23
0.31
0.32
3.25 0.68
0.06 3 billion
0.17
0.25
0.33
Sub-Saharan Africa 1.85 0.70
Middle East and North Africa 0.11 0.03
0.18 3.23
Central and South America
0.34
North America
Europe 0.66 1.74
Asia-Pacific 0.53
2009 2020 2030
1 Based on daily consumption per capita ranging from $10 to $100 (in purchasing power parity terms)
SOURCE: OECD McKinsey & Company | 4
8. Many countries have shown that as incomes rise, ENERGY EXAMPLE
demand for resource increases—and a similar curve
is likely in China and India Historic (1970-2008)
Per capita energy consumption, 1970–2008, projected to 2030 for India and China Projected
Million British thermal units per person
250
United States
200
150 Australia
Historical range
Germany for energy
consumption
France
100 evolution
South Korea Japan
United Kingdom
2030 projected
50
China 2030 projected
India
0
0 5,000 10,000 15,000 20,000 25,000 30,000 35,000 40,000 45,000
Per capita GDP
Real 2005 $PPP per person
SOURCE: IEA; Global Insight; McKinsey analysis McKinsey & Company | 5
9. Major new drivers
There is a significant risk of real price increases of production
and greater volatility as we approach short-term supply limits to 2020
2020 cost curve – maximum production potential
2030 demand:
Breakeven price1 104 Mbpd
$/bbl (real 2008$), WTI
120
110 2020 demand:
100 96 Mbpd
90
80 2010 demand:
87 Mbpd
70
60
50
40
existing oil sands
Coal to liquids
30
Next phase of
Gas to liquids
New offshore
Oil shale
New Iraq
20
10
Capacity
Mbpd -2 0 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 95 100 105 110 115 120
1 Assumes an IRR of 10% for new capacity additions and cash break-even for existing production capacity
2 Includes 3 mbpd and 3 mbd incremental capacity from Iraq and deepwater, respectively
SOURCE: Wood Mackenzie; BP Stat; IOGCC; McKinsey Oil Supply Model team analysis McKinsey & Company | 6
10. Commodity price movements have become more closely linked
Correlation with oil prices
1980–1999 2000–04 2005–11
Maize -0.01 0.74 0.96
Wheat -0.07 0.59 0.94
Rice 0.32 0.96 0.61
Beef -0.11 0.75 0.74
Steel -0.01 0.99 0.99
Timber -0.52 0.67 0.91
SOURCE: McKinsey analysis McKinsey & Company | 7
11. Governments care about these resource issues for different reasons
Description Examples
▪ Threats to access to critical inputs (e.g.,
Resource
water, rare earth metals, etc)
security
▪ Risks to competitiveness of local firms in
Firm
face of rising input costs and constraints
competitiveness on resource access
▪ Resource prices raising the cost of living
Inflation for households and putting pressure on
inflation and growth
▪ Potential for local firms to capture global
New growth
resource productivity growth
opportunities opportunities
▪ Rising cost of government subsidies in
Public finances the face of higher resource prices
▪ Concerns with resource trends on
Environmental
environmental factors
resilience
McKinsey & Company | 8
12. Contents
What are the emerging resource
trends?
What are the implications for the
energy sector?
McKinsey & Company | 9
13. Four major uncertainties
1 Emerging market energy demand
2 The shale gas revolution
2 Learning curves of renewable technologies
3 Regulatory frameworks
McKinsey & Company | 10
14. EMERGING MARKET DEMAND GROWTH
In energy, the developing world will account for over 90% of the Developing
1 growth in energy demand by 2030 with 60% coming from China Developed
and India
Primary energy demand; QBTU CAGR, Share of
2010-30 growth
664 % %
587
173 China 2.8 43
494 148
57 India 4.3 19
100
39
25
Rest of 1.3 31
222
195 Non-OECD
170
81 81 81 USA >0.1 >1
0.3 4
94 98 101 Rest of OECD
27 29 Global 1.0 3
24
2010 2020 2030
* Includes cross-border energy use, e.g., sea, air travel
SOURCE: McKinsey analysis (Cost Curve v3.0); McKinsey Global Energy Perspective (GEP) McKinsey & Company | 11
15. SHALE GAS
Renewables1
In the US, cheap gas displaces coal, becoming the
2 majority fuel at a price of between $3/MMBTU and $4/MMBTU
Petroleum
Nuclear
Power sector generation by fuel; Henry Hub price, TWh; $/MMBTU Gas
Coal
2012 2020 2030
4,421 4,476
4,243 4,336
3,947 4,011 4,061
3,823 727 727
3,765 793
555 555 888 0
558 0
444 567 14 0 28
26 27 29
27 872 872
848 848 872
799 848 872
848
746 975 823 1,207
843 615 657
1,423 1,715
1,653 1,766 1,768 1,619 1,797 1,820 1,615
1,235 1,162
3.5 10 6 4 3 10 6 4 3
1 Including hydro
SOURCE: EIA, US Low Carbon Economics Tool McKinsey & Company | 12
16. LEARNING CURVES
Depending on the learning curve improvements of different renewable
3 technologies, they could become cost competitive in next 5-10 years
LCOE at 7% WACC
Annual average
x
cost reduction
LCOE 2011-2025
EUR/MWh
200
190 Solar PV 9
180
170
160
150
140 Wind offshore 5
130
120
110
100 Biomass 3
Coal/gas today 90
80
Coal Europe 70
CCGT Europe1 60
Coal US 50
CCGT US 1 40
30 Wind onshore 1
20
10
0
2011 12 13 14 15 16 17 18 19 20 21 22 23 24 25 Year
1 CO2 price in Europe today at 10 EUR/ton
McKinsey & Company | 13
SOURCE: IEA; Eurostat; Platt’s; EIA; Team analysis
17. LEARNING CURVES
Across several technologies, performance improvement levers result
3 primarily from manufacturing & SC maturing and technology gains
Relative improvement of LCOE PRELIMINARY ESTIMATES
Lever with highest impact
Cost reduction potential until 2025
PV Wind Wind Biomass Batteries for
(until 2020) onshore offshore greenfield vehicles
Total
66% 18% 50% 38% 71%
improvement
Manufacturing
& Supply 31% 12% 30% 13% 23%
Chain
Materials 11% 0% 0% 0% 18%
O&M 0% 5% 10% ~0% 0%
Technology
24% 2% 10% 25% 30%
improvement
SOURCE: Solar KIP, Battery KIP, Wind onshore & offshore model; Biomass model; Team analysis McKinsey & Company | 14
18. POLICY UNCERTAINTY
Climate and energy policies are seen to be largely driven by energy
4 costs, energy security and local jobs, rather than GHG mitigation
Which of the following policy priorities are the most important in determining your country's
future climate and energy policies over the next ten years?
North Policy makers
World Europe America China world total
Lowering energy costs 31% 31% 33% 24% 38%
Increasing energy security 21% 21% 27% 16% 16%
Promoting local jobs and investments 21% 17% 27% 16% 30%
Reducing GHG emissions & global warming 11% 14% 6% 16% 12%
Reducing local air pollution 9% 8% 3% 25% 4%
Increasing physical security
5% 9% 1% 2% 0%
(e.g., avoiding nuclear power)
N= 3.954 1.409 1.082 148 80
SOURCE: Global McKinsey Quarterly survey, November 2011 McKinsey & Company | 15
19. POLICY UNCERTAINTY
For those companies that use a CO2 price, the average assumption is 31-
4 36 USD/tCO2 by 2020, and 37-42 USD/tCO2e by 2030 across regions
Avg. price USD / tCO2e by 2020
If you use a CO2 price what level of CO2 price do you use when planning
for future investment decisions, in each economy by 2020? Between 2020-2030? Avg. price USD / tCO2e 2020-2030
Average CO2 price for the Average CO2 price for the Average CO2 price for the
EU market US market Chinese market
Ø 36 Ø 41 Ø 36 Ø 42 Ø 31 Ø 37
N= N= N=
Energy sector 31 20 7
Europe 36 43 34 41 30 38
30 13 7
Energy sector 13 10 11
dev. markets incl. 34 42 36 41 25 29
China and India 13 8 11
Energy sector 11 32 4
32 38 32 41 34 41
North America
11 20 5
Energy sector 4 7 3
Asia Pacific 43 41 41 46 37 40
OECD countries 4 4 3
SOURCE: Global McKinsey Quarterly survey, November 2011 McKinsey & Company | 16
20. Institutional Investment Trends in EU Renewables
and
A Pension Fund Primer
EVERSHEDS WORKSHOP:
Attracting and Maintaining Institutional
Investment in Renewable Energy
London, 2 July 2012
Tom Murley, Director & Head of Renewable Energy, HgCapital
Jens Thomassen