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BUILDING ON THE EXPERIENCE OF
EUROPEAN MARKETS
Marie Latour, National Policy Advisor 22 September 2011
… to successfully develop PV markets in the long term
2
Content
• PV Market Status in 2010 and prospects for 2011• Market Outlook until 2015• Policy recommendations to sustainably develop a
market• PV on the road to competitiveness
4
6
Evolution of the Global PV Market 2000 - 2010
+59%
+145%
+17%
+132%
7
The PV market in 2010
8
The PV market in 2010 – Europe and the rest of the World
Europe: 81 %
Rest of the World: 19 %
9
EU: PV installations Compared to other technologies
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Market in 2010 in Europe (EU27 + CH, NO…)
Germany: 7.4 GW
Italy: 2.3 GW
Czech Rep: 1.5 GW
France: 0.7 GW
Belgium: 424 MW
Spain: 369 MW
Greece: 150 MWSlovakia: 145 MW
Austria: 50 MW
UK: 45 MW
Portugal: 16 MW
Bulgaria: 11 MW
Rest of Europe: 98 MW
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Market segmentation
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Global Cumulated installed capacity until 2010
39.6 GW
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Cumulative installed capacity 2010
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The global top 10 in 2009 and 2010 (MW installed)
2009 2010
1 Germany 3.806 Germany 7.400
2 Italy 723 Italy 2.300
3 Japan 483 Czech Rep 1.490
4 USA 477 Japan 990
5 Czech Rep 398 USA 900
6 Belgium 285 France 719
7 China 160-228 Belgium 424
8 France 185 Spain 369
9 South Korea 167 Australia 320
10 Australia 79 China 300-520
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2011 SO FAR… (in MW)
2010 2011 est.
1 Germany 7.400 4000
2 Italy 2.300 8000
3 Czech Rep 1.490 10
4 Japan 990 1100
5 USA 900 1800
6 France 719 1400
7 Belgium 424 300
8 Spain 369 400
9 Australia 320 ?
10 China 300-520 1500
EU: 15-17 GWWorld: 22-25 GW
India (600-800)Thailand (100?)Israel (100?)Canada…
UK (300-400)Greece (300)Solvakia (350)Austria (100)…
25 GW produces 35 TWh (world)35 TWh relates to five 1000 MW Nuclear reactors.
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Short term Market developments
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Two short term scenarios
• A Moderate scenario (“Business-as-usual” market )• no major reinforcement of existing support mechanisms, • reasonable continuation of current FiTs aligned with PV systems
prices.• Policy-Driven scenario:
• continuation or introduction of support mechanisms, namely FiTs, • strong political will to consider PV as a major power source in the
coming years.• removal of non-necessary administrative barriers and the
streamlining of grid connection procedures.
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EU forecasts until 2015
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World forecasts until 2015
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Unlocking new markets, stabilizing others
In Europe: • Need to consolidate/further expand existing markets
• Germany, Italy, France, Belgium, Spain, Greece, Portugal, UK, Bulgaria
• Need to unlock/develop medium size markets • Hungary, Romania, Turkey, Poland?
• We Keep faith: Grid parity is within reach (2013-2020)
PHOTOVOLTAIC OBSERVATORYPolicy Recommendations
ENSURING A LONG TERM DEVELOPMENT
OF NATIONAL MARKETS
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Photovoltaic ObservatoryPolicy Recommendations
Aim:
• Identify best practices among existing support policies in Europe
• Promote market transparency and PV deployment in the energy sector across Europe
• Advise national decision makers on the successful implementation of their support policies
• Ensure the accelerated development of the market and the industry in a sustainable way
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Policy recommendations: 3 pillars
1. Implementing sustainable support mechanisms
2. Streamlining administrative procedures
3. Guaranteeing efficient grid connection processes
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Pilar 1: Implementing sustainable support mechanisms
1. Use Feed-in Tariffs or similar mechanisms
2. Ensure transparent electricity costs for consumers
3. Encourage the development of a sustainable market
4. Guarantee a gradual market development with the corridor concept
5. Develop a national roadmap to PV competitiveness
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Implementing sustainable support mechanisms1. Use Feed-in Tariffs or similar mechanisms
Overview of EU Support schemes in EU
FITs fix price Green Certificates fix volume:
Exclude non yet cost competitive technologies
AND 2010
3,784
1,025
17,183
1.953
3,494
66803
130
103145
1
1
18
206
0
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Implementing sustainable support mechanisms 3. Encourage the development of a sustainable market
Evaluation Logic
Insufficient support
Sustainable Support
Unsustainable support
Private Investor <6% 6-10% >10%
Business Investor <8% 8-12% >12%
Evaluation of IRR sustainability levels (example)
► Internal Rate of Return (IRR) of PV investment
FiT structure and level Other incentives: Tax rebates, investment
subsidies PV system prices Solar Irradiation
► IRR of PV investment should represent a reasonable incentive compared with IRR of investments with similar risk level
► Higher IRR may lead to unsustainable growth, lower to market stand still
► No unique solution; balanced combination of policy / financial instruments country risk must be considered
► by assessing profitability (IRR) on a regular basis and adapting support levels accordingly
2006 2007 2008 2009 20100
500
1000
1500
2000
2500
3000
Unsustainable Sustainable Insufficient
PV market development under different support strategies
Ma
rke
t G
Wp
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Spanish Case
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Czech Case
10!
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Slovak case
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2000 2001 2002 2003 2004 2005 2006 2007 2008 2009 2010 2011 est.0
1000
2000
3000
4000
5000
6000
7000
8000
42 78 118 139
670951 843
1271
1809
3806
7408
4500
In MW
Growth corridor 2.5 to 3.5 GWp/year
German case
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Implementing sustainable support mechanisms4. Guarantee a gradual market development with the corridor concept
Support structure :
► Basic support : Feed-in Tariffs weighted on the
market development → « corridor »
Rationale and advantages:
► Market > upper limit, degression rate
► Market < lower limit, degression rate
► Transparent control and predictable market
► Ensures sustainable growth of market Period 1 Period 2 Period 3 Period 40
200
400
600
800
1000
1200
1400
1600
1800
Upper limit reached → degression increase
Lower limit reached → degression decrease
“Corridor” market cap rationale
Ma
rke
t G
Wp
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Implementing sustainable support mechanisms5. Develop a national roadmap to PV competitiveness
• Support scheme are temporary• Until when are they needed • How should they be shaped until grid parity is
reached?• FiTs, FiPs, self-consumption, net metering ?
• What will happen after reaching grid parity• What kind of support will be needed
No definitive answer now, but one thing is clear, grid parity is within reach and we must get prepared!
National roadmaps
September 2011
Competing in the Energy Sector
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PV competitiveness
• PV’s generation cost is decreasing faster than many expect
• A competitive solution before 2020
• Policy recommendations
37
WHAT IS A PV SYSTEM?
6-14% 10-20%
21-26%
45-60%
PV modules PV inverterBalance of
systemInstallation
2010 situation (industry averages)
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PV SYSTEM PRICE EVOLUTION
• The price of PV modules and systems has been going down for more than 30 years.
• This will continue thanks to further technological improvements and economies of scale.
• A 36-51% decrease could be achieved on average by 2020.
Market anomalies will disappear as the market matures
> 50%
Evolution of the PV system price in Europe
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HOW MUCH DOES IT COST TO PRODUCE 1KWH FROM PV ?
• Generation cost of PV electricity LCOE: Levelised Cost of Electricity• Used widely to compare electricity from different energy sources
- 50 %
• 5 countries: France, Germany, Italy, Spain, UK
• 4 market segments: - residential rooftop (3 kW), - commercial rooftop (100
kW), - industrial rooftop (500
kW), - utility-scale ground-
mounted (2.5 MW)
• Crystalline Silicon and Thin Film technologies
PV’s generation cost could go down by 50% during this decade
European PV LCOE range projection 2010-2020
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OUTLINE
• PV’s generation cost is decreasing faster than many expect
• A competitive solution before 2020
• Policy recommendations
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Dynamic Grid Parity for electricity consumers:
The moment at which, in a particular marketsegment in a specific country, the present value of the long-term revenues from a PV installation is equal to the long-termcost of installing, financing, operating and maintaining the PV system.
Cheaper than…
Generation Value Competitiveness for utilities:
The moment at which, in a specific country, adding PV to the generation portfolio becomes as equally attractive from an investor’s point of view as a traditional and normally fossil-fuel based technology.
Cheaper than…
COMPETITIVENESS: TWO PERSPECTIVES
PV installed on rooftops
Large installations (rooftops or ground mounted)
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WHAT IS DYNAMIC GRID PARITY?
Usual consumer
Tre
nd
Prosumer
Additional revenue
Reduced bill
Electricity consumer point of view
Tren
d
Tr
end
T
ren
d
Electricity bill
Cost of PV electricity
Sales of excess
electricity
>Electricity bill
Self-consumption assumptions:
30-75%
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DYNAMIC GRID PARITY: THE 3 ROOFTOP SEGMENTS
FR DE IT ESP UK
Residential 3 kW 2016 2017 2015 2017 2019
Commercial 100 kW 2018 2017 2013 2014 2017
Industrial 500 kW 2019 2019 2014 2017 2019
Based on the average irradiance per country.
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38%
0%
0%
0%
42%
20152016
46%
0%
26%
6%
58%
201720182019
100%
100%
46%
89%
100%
2020
DIFFUSION OF DYNAMIC GRID PARITY
ACROSS THE POPULATION
Real irradiance levels can change time when competitiveness is reached.
85%
100%
0%
82%
100%
85%
0%
48%
100%
51%
100%
Residential segment
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GENERATION VALUE COMPETITIVENESS
FR DE IT ESP UK
Industrial 500 kW 2015 2017 2015 2015 2019
Ground-Mounted 2.5 MW 2015 2017 2014 2015 2019
Based on the average irradiance per country.
PV vs Gas CCGT
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SENSITIVITY ANALYSIS:
DELAYING OR ACCELERATING?
Wh
at c
ou
ld d
ela
y
• Higher LCOE:• Market anomalies (eg.
admin. costs)
• Specific applications:• e.g. BIPV on existing
buildings is more expensive
• Investors requesting a “green premium” above real investor’s risk
Wh
at c
ou
ld a
cce
lera
te
• An unexpected surge in fossil fuel prices
• Any scheme rewarding higher electricity injected to the grid (self-consumption or net-metering)
• Specific applications: e.g. BIPV on new or renovated roofs
Competitiveness can happen even quicker!
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OUTLINE
• PV’s generation cost is decreasing faster than many expect
• A competitive solution before 2020
• Policy recommendations
48
THE ROAD TO COMPETITIVENESS
• Sustainable market growth will contribute to price decrease • This market development must occur in all countries and all
market segments. • Support schemes (including FiTs) need to be adapted on a regular
basis to avoid market disturbance.
• Administrative barriers must be removed and procedures streamlined so that additional costs do not increase the total price of a PV system.
• Grid connections must be simple and easily authorised, and priority access to the grid for PV electricity should be ensured.
• Political commitment to continuous research and development must be assured, so that PV technology continues to develop.
• PV should be considered a low-risk investment; therefore reasonable profits should be taken in line with that risk level.
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REACHING COMPETITIVENESS AND BEYOND
For electricity consumers (rooftops):
• Allow final customers to sell the electricity produced on the market.
• Maximise savings on the electricity bill. Regulatory frameworks should therefore promote net-metering and self-consumption schemes.
For utilities:• Facilitate access to capital by lowering the perceived risk.
After competitiveness is reached:
• Some specific incentives might still be needed in order to ensure PV competitiveness in Northern regions of a country.
• Dedicated support mechanisms could be required on a temporary basis for more specific technologies, such as residential and commercial BIPV, or innovative current and upcoming technologies such as concentrated solar PV, organic PV or dyesensitised solar cells.
• Grid stability could be favoured through new incentives for decentralised storage, demand side management, or to provide additional network services contributing to grid stability.
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Switching to solar photovoltaic electricity is not just a desirable option for achieving
our energy and environmental goals. It is also a realistic and competitive one.
PV is already cheaper than many people think
PV can be competitive before 2020 across the EU
The PV industry is committed to lowering costs. Policymakers should act
accordingly.
CONCLUSIONS