RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 1
Authors: Gustav Resch, Lukas Liebmann,
Albert Hiesl – all Energy Economics Group, TU Wien
Contact … Web: http://eeg.tuwien.ac.at
Email: [email protected]
RES in SEERMAP
… some key inputs to
the analysis
… developed initially in the period 2002 to 2004
within the research project
Green-X (5th framework programme of
the European Commission, DG RESEARCH)
www.green-x.at
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 2
Content
1. Background: 27% RES by 2030 at EU level
… thesis on the way forward
2. Key assumptions in our modelling exercise
on SEE countries
… potentials of renewables
… financing conditions
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 3
Background: 27% RES by 2030 at EU level
The EU Energy Roadmap 2050 gave first signals of renewable energy development pathways beyond the year 2020 and identified renewables as a “no-regrets” option.
Subsequently, Europe’s way forward towards 2030 has been discussed intensively and at the Council meeting of this October (2014) the next step was taken: A binding EU-wide RES target of achieving at least 27% as RES share in gross final energy demand was adopted.
This part of the presentations aims for an outlook to 2030, discussing possible RES developments within the EU in the light of the new Council agreement on 27% RES by 2030.
Furthermore, next steps in defining the framework for RES post 2020 will be identified and possible solutions presented.
Few theses will be introduced, aiming for identifying required next steps to be taken…
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 4
0
200
400
600
800
1,000
1,200
1,400
1,600
1,800
Incr
eas
e o
f R
ES g
ener
atio
n b
y d
ecad
e [T
Wh
/a]
Net increase
Gross increase
2010 to 2020 2020 to 20300
100
200
300
400
500
600
700
800
Incr
ease
of
RES
-E g
ener
atio
n b
y d
ecad
e [T
Wh
/a]
Net increase
Gross increase
2010 to 2020 2020 to 2030
The ambition level of 27% renewables by 2030 should not be underestimated, specifically in the power sector
Energy efficiency (and related demand developments) is a key determinant
RES developments at EU-level up to 2030: Net and gross increase of RES generationat EU level by decade (2010-2020 vs. 2020-2030) in accordance with 27% RES by 2030 …
… across all energy sectors (left) and in the electricity sector (right)
… Efforts required for meeting 27% RES by 2030
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 5
Future development of remuneration levels and corresponding market values of renewable energy technologies (on average) at EU level according to a Green-X scenario
of meeting 27% renewables by 2030 helps to identify the required net support (i.e. remuneration minus market revenues)
0
25
50
75
100
125
20
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Leve
lised
(1
5 y
ears
) w
eigh
ted
ave
rage
rem
un
erat
ion
fo
r ye
arly
new
RES
-E in
stal
lati
on
s an
d c
orr
esp
on
din
g m
arke
t va
lues
[€
/MW
hR
ES]
Averageremuneration ofRES-E
Average marketvalue of RES-E
Wholesaleelectricity price
Net
sup
po
rt
for
RES
-E (
on
ave
rage
)
Ran
ge o
f re
mu
ner
atio
n
of
RES
-E a
cro
ss M
Ss
Ran
ge o
f m
arke
t va
lues
o
f R
ES-E
acr
oss
MSs
(Thesis 1) Dedicated support for renewables is required to reach the 2030 target of 27% renewables.
… Efforts required for meeting 27% RES by 2030
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 6
… top-down vs. bottom-up approaches …
It is currently not clear how individual EU member states can or should contribute to the EU-wide 2030 target for renewables.
In principle, the EU-wide target can be allocated to smaller regional entities either via a top-down or bottom-up approach:
‐ In the top-down case, the European Commission would follow a predetermined allocation formula and set individual national targets accordingly.
‐ In the bottom-up case, EU member states would pledge their planned contribution.
Sharing the effort: How to break down the EU-wide target?
Pros & cons:Whilst in the case of a top-down allocation individual targets typically sum up to the overall target of 27% …
individual (bottom-up) pledges may fall short of the overall EU-target. this would require to close the gap accrued:
- either by a separate financing mechanism or - by an iteration of pledges until the gap is closed.
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 7
Benchmarks as a way forward To better guide the pledging procedure, the European
Commission should provide a first benchmark on regional or national targets.
EU member states or regions could then put pledges forward specifying a higher or a lower target than proposed in the benchmark.
Major benefits of combining national or regional pledges with an initial top-down benchmark include a first quantitative indication for a potential national or regional target than can help structuring the pledging process.
In addition, extremely low pledges may be avoided by publicly comparing the pledged target with the benchmarking.
For these reasons, we encourage
combining national or regional pledges
with a top-down benchmark.
Sharing the effort: How to break down the EU-wide target?
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 8
27% renewables by 2030
as a binding EU-target: implications“Doing nothing” as a way forward?
If EU member states are reluctant in providing sufficient pledges …
… the European Commission has to act: establishing a separate financing mechanism to ensure target achievement.
Sharing the effort: How to break down the EU-wide target?
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 9
Example: Improving financing conditions for onshore wind across the EU
“Calculations based on the Green X model show that if all countries had the same renewable energy policy risk profile as the best in class, the EU Member States could reduce the policy costs for wind onshore by more than 15%.”
Financing is a (the) decisive element
WACC real WACC real
EU28 (average) 8.3% 5.9% 8.3% 5.9%
[Unit] %* %*
Impact on wind onshore
2020 TWh 319.0 324.9 5.9 1.9% 353.7 362.6 8.9 2.5%
2030 TWh 560.1 576.6 16.5 2.9% 674.5 680.7 6.2 0.9%
2016 to 2020 bill ion € 8.8 8.6 -0.2 -2.1% 8.7 8.4 -0.4 -4.2%
2016 to 2030 bill ion € 7.8 7.5 -0.2 -3.1% 8.4 7.1 -1.3 -15.6%
Note: * … deviation to default (WACC real), expressed in percentage terms (compared to default)
Electricity generation from wind onshore
Support expenditures for wind onshore, yearly average
Impacts of improvements in
risk performance (WACC)
at EU level (EU28)
Scenario:Business-As-Usual (BAU) Strengthened National Policies (SNP)
WACC ideal WACC ideal
Change to
WACC real
Change to
WACC real
Source: Green-X modelling, DIA-CORE project
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 10
Governments can play an important role in mitigating risks, for instance by implementing long-term stable policy schemes that are less liable to regulatory interventions.
Financing is a (the) decisive element
Source: DIA-CORE project
(Thesis 3) Improving financing conditions: the next step could be to equalise cost of capital in EU member states through a risk sharing facility.
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 11
Thanks for your attention!Interested in further background information?
www.towards2030.eu
Interested in the dialogue process?
http://platform.towards2030.eu
Issue Paper No. 2*: Implementing the EU 2030 Climate and Energy Framework – a closer look at renewables and opportunities for an Energy Union
Issue Paper No. 4 on benchmarks to facilitate sharing the renewables effort
(Thesis 2) Benchmarks of how to break down the EU-wide target to member states should be provided in order to encourage sufficiently ambitious pledges.
Conclusions / Policy recommendations
(Thesis 1) Moderate dedicated support for renewables is required to reach the 2030 target of 27% renewables.
(Thesis 4) The concept of an Energy Union can be developed further by supporting regional targets for renewables and grid infrastructure.
(Thesis 3) Improving financing conditions: the next step could be to equalise cost of capital in EU member states through a risk sharing facility.
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 12
► Key assumptions
Main input sources for
scenario parameters
Based on PRIMES* Defined for this study
Energy demand by sector RES policy framework
Primary energy prices Reference electricity prices
Conventional supply portfolio and conversion efficiencies
RES cost & learning rates(Green-X database, incl.biomass)
CO2 intensity of sectors RES potential (Green-X database)Biomass trade specification
Technology diffusion
Financing conditions
*Primes scenario used subsequently: Reference case (as of 2015/2016)
To ensure maximum consistency with existing EU scenarios and projections the key input parameters of the Green-X scenarios are (as default) based on PRIMES modelling and the (updates of the) Green-X database.
(2) RES in SEERMAP:
Key inputs to the modelling exercise
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 13
► Key assumptions
Main input sources for
scenario parameters
Based on PRIMES* Defined for this study
Energy demand by sector RES policy framework
Primary energy prices Reference electricity prices
Conventional supply portfolio and conversion efficiencies
RES cost & learning rates(Green-X database, incl.biomass)
CO2 intensity of sectors RES potential (Green-X database)Biomass trade specification
Technology diffusion
Financing conditions
*Primes scenario used subsequently: Reference case (as of 2015/2016)
To ensure maximum consistency with existing EU scenarios and projections the key input parameters of the Green-X scenarios are (as default) based on PRIMES modelling and the (updates of the) Green-X database.
(2) RES in SEERMAP:
Key inputs to the modelling exercise
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 14
Definition of potential terms
Theoretical potential ... based on the
determination of the energy flow.
Technical potential … based on technical
boundary conditions (i.e. efficiencies of
conversion technologies, overall technical
limitations as e.g. the available land area to
install wind turbines)
Achieved
potential (2005)
Definition of the (additional) realisable
mid-term potential (up to 2020/2030/2050)
Short-term
potential
(2020)
Maximal
time-path for
penetration
(Realisable
Potential)
Barriers
(non-economic)Additional
realisable
long-term
potential (up to 2050)
2000 2010 2020
Historical
deployment
Theoretical potential
Energ
y g
enera
tion
Economic Potential
(without additional support)
Technical potential R&D
2030
Policy,
Society
Long-term
potential
2040 2050
(2) RES in SEERMAP:
Key inputs to the modelling exercise
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 15
Green-X database on RES potentials
(2) RES in SEERMAP:
Key inputs to the modelling exercise
0
200
400
600
800
1000
AT
BE
BG
HR CY
CZ
DK EE FI FR DE
GR
HU IE IT LV LT LU MT
NL
PL
PT
RO SK SI ES SE UK
RES
-E -
Elec
tric
ity
gen
erat
ion
po
ten
tial
[TW
h]
Additional long-term (2050) potential
Achieved potential 2005
Long-term (2050) potentials for RES-electricity in EU28 countries(in absolute terms [TWh])
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 16
Green-X database on RES potentials
(2) RES in SEERMAP:
Key inputs to the modelling exercise
Long-term (2050) potentials for RES-electricity in EU28 countries(in absolute terms [TWh] by technology)
0 500 1000 1500 2000
Biogas
(Solid) Biomass
Biowaste
Geothermal electricity
Hydro large-scale
Hydro small-scale
Photovoltaics
Solar thermal electricity
Tide & Wave
Wind onshore
Wind offshore
RES-E - Electricity generation potential [TWh]
Achieved potential 2005
Additional long-term (2050) potential
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 17
Green-X database on RES potentials
(2) RES in SEERMAP:
Key inputs to the modelling exercise
0%
100%
200%
300%
400%
500%
600%
AT
BE
BG
HR CY
CZ
DK EE FI FR DE
GR
HU IE IT LV LT LU MT
NL
PL
PT
RO SK SI ES SE UK
EU2
8
RES
-E -
Elec
tric
ity
gen
erat
ion
po
ten
tial
[%
of
gro
ss e
lect
rici
ty d
em
and
]
RES long-term (2050) potential - share on current (2005) demand RES share 2005
Long-term (2050) potentials for RES-electricity in EU28 countries(in relative terms [% - share of gross electricity demand])
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 18
Green-X database on RES potentials
(2) RES in SEERMAP:
Key inputs to the modelling exercise
Long-term (2050) potentials for RES-electricity in Western Balkan countries(in absolute & relative terms)
0
5
10
15
20
25
30
35
40
45
50
AL
BA
KO
MK
ME
SR
RES
-E -
Ele
ctri
city
ge
ner
atio
n p
ote
nti
al [
TWh
/yr.]
Additional long-term (2050) potential Achieved potential 2005
0
10
20
30
40
50
60
Bio
gas
(So
lid)
Bio
mas
s
Bio
was
te
Ge
oth
erm
al e
lect
rici
ty
Hyd
ro la
rge
-sca
le
Hyd
ro s
mal
l-sc
ale
Ph
oto
volt
aics
Sola
r th
erm
al e
lect
rici
ty
Tid
e &
Wav
e
Win
d o
nsh
ore
Win
d o
ffsh
ore
0%
50%
100%
150%
200%
250%
300%
350%
400%
450%
AL
BA
KO
MK
ME
SR
RES
-E -
Ele
ctri
city
gen
erat
ion
po
ten
tial
[%
of
gro
ss e
lect
rici
ty d
eman
d (
20
05
)]
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 19
Green-X database on
RES potentials:
Background info,
wind onshore
(2) RES in SEERMAP:
Key inputs to the modelling exercise
Illustration of our GIS-based analysis …Wind map Europe
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 20
Long-term (2050) potentials for Wind Onshore in SEE countries
Green-X database on
RES potentials:
Background info,
wind onshore
RESTRICTED POTENTIALwith land use restrictions,with default power system constraints(Capacity potential) [MW]
36,976 10,110 17,922 2,423 4,243 2,023 1,064 1,587 7,293
GR BG RO AL BA KO ME MK SR
Gre
ece
Bu
lgar
ia
Ro
man
ia
Alb
ania
Bo
snia
H.
Koso
vo*
Mo
nte
neg
ro
FYR
of
Mac
edo
nia
Serb
ia
TOTAL POTENTIAL with land use restrictions, without power system constraints(Capacity potential) [MW]
54,754 16,412 57,427 9,707 15,983 2,114 6,242 5,386 31,593
Artifical surfaces 0%
Arable land 25.0%
Permanent crops 15.0%
Pastures 20.0%
Heterogeneous agricultural areas 1 10.0%
Heterogeneous agricultural areas 2 10.0%
Heterogeneous agricultural areas 3
(agro-forestry) 5.0%
Forests 5.0%
Natural grasslands, moors 22.5%
Sclerophyllous vegetation &
Transitional woodland-shrub 22.5%
Beaches, dunes, sands 10.0%
Bare rocks 0.0%
Sparsely vegetated areas 30.0%
Burnt areas & glaciers 0.0%
Inland wetlands 5.0%
Maritime wetlands 5.0%
Inland waters 0%Marine waters 0%
AppliedLand useconstraints:Suitability forwind power plants
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 21
► Key assumptions
Main input sources for
scenario parameters
Based on PRIMES* Defined for this study
Energy demand by sector RES policy framework
Primary energy prices Reference electricity prices
Conventional supply portfolio and conversion efficiencies
RES cost & learning rates(Green-X database, incl.biomass)
CO2 intensity of sectors RES potential (Green-X database)Biomass trade specification
Technology diffusion
Financing conditions
*Primes scenario used subsequently: Reference case (as of 2015/2016)
To ensure maximum consistency with existing EU scenarios and projections the key input parameters of the Green-X scenarios are (as default) based on PRIMES modelling and the (updates of the) Green-X database.
(2) RES in SEERMAP:
Key inputs to the modelling exercise
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 22
WACC assumptions and the impact of risk (policy, technology, country)
WACC – risk elements
Policy risk: Instrument-specific risk factor
(i.e. multiplier of default WACC)
FIT (feed-in tariff) 1.00
FIP (feed-in premium) 1.10
QUO (quota system with uniform tradable green
certificates (TGC)) 1.20
ETS only (Emission Trading Scheme only - no dedicated RES
support) 1.30
TEN (tenders for selected RES-E technologies) 1.15
Technology-specific risk factor
(i.e. multiplier of default WACC)
RES-electricity
Biogas 1.00-1.05
Solid biomass 1.05
Biowaste 1.05
Geothermal electricity 1.1
Hydro large-scale 0.95
Hydro small-scale 0.95
Photovoltaics 0.85-0.90
Solar thermal electricity 1.1 (1.0)
Tide & wave 1.4 (1.2)
Wind onshore 0.95
Wind offshore 1.4 (1.15)Note: Numbers in brackets refer to the period post 2020.
WACCc,t,p = WACCdefault * fc * ft * fp
Default assumptions concerning energy technologies in Austria
Note: Through complementary measures the investor risk can be reduced, from „real“ to „ideal“(according to an assessment conducted in the DIA-CORE project)
Source: Dia-Core project (www.diacore.eu)
WACC(in Austria)
default(real) ideal
posttax (nominal) 6.5% 4.9%
pretax (nominal) 8.7% 6.5%
pretax (real) 7.4% 5.3%
RES in SEERMAP
- key inputs
SEERMAP Workshop Belgrade, 23 September 2016 … Slide 23
The impact of country specific risk
WACC – risk elements
MS
Austria
Belgium
Bulgaria
Croatia
Cyprus
Czech Republic
Denmark
Estonia
Finland
France
Germany
Greece
Hungary
Ireland
Italy
Latvia
Lithuania
Luxembourg
Malta
Netherlands
Poland
Portugal
Romania
Slovakia
Slovenia
Spain
Sw eden
UK
WACC
pretax
(real)
WACC
pretax
(real)
Intervie
w
Triple A
policies
Real case
Ideal
situation
7.4% 5.3%
7.1% 5.8%
9.9% 6.7%
13.8% 7.7%
10.2% 6.0%
8.6% 6.4%
6.4% 5.2%
11.0% 4.8%
6.9% 4.4%
7.3% 6.1%
4.4% 3.7%
15.0% 9.1%
12.7% 7.8%
9.0% 6.2%
10.4% 8.3%
8.8% 5.6%
9.7% 5.6%
7.2% 6.0%
9.6% 7.4%
7.2% 5.6%
10.3% 6.5%
9.1% 5.9%
12.0% 7.4%
9.1% 6.3%
12.0% 7.8%
10.5% 8.6%
11.6% 5.3%
7.0% 5.3%
9.4% 6.3%
-50%
-40%
-30%
-20%
-10%
0%
10%
20%
30%
40%
50%
Austr
ia
Belg
ium
Bulg
aria
Cro
atia
Cypru
s
Czech R
epublic
Denm
ark
Esto
nia
Fin
land
Fra
nce
Germ
any
Gre
ece
Hungary
Irela
nd
Italy
Latv
ia
Lithuania
Luxem
bourg
Malta
Neth
erlands
Pola
nd
Port
ugal
Rom
ania
Slo
vakia
Slo
venia
Spain
Sw
eden
UK
Countr
y-s
pecific
WACC -
devia
tion
to E
U a
vera
ge [
%]
Default data (current situation)
50% smoothening
- Represents the status quo
- For future trends: link to GDP per capita trends?