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CMCC Webinar Blue Growth: science, society and innovation. A focus - - PowerPoint PPT Presentation

CMCC Webinar Blue Growth: science, society and innovation. A focus on the Mediterranean and Black Sea Presenter : Giovanni Coppini CMCC, Ocean Predictions and Applications Division Moderator: Simona Masina CMCC, Ocean modeling and Data


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CMCC Webinar

Blue Growth: science, society and innovation. A focus on the Mediterranean and Black Sea

Presenter: Giovanni Coppini CMCC, «Ocean Predictions and Applications» Division Moderator: Simona Masina CMCC, «Ocean modeling and Data Assimilation» Division

27 March 2018

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MISSION

The CMCC Foundation

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NETWORK

The CMCC Foundation

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The CMCC Foundation

Advanced Scientific Computing (ASC) Climate Simulation and Prediction (CSP) Economic analysis of Climate Impacts and Policy (ECIP) Impacts on Agriculture, Forests and Ecosystem Services (IAFES) Ocean modeling and Data Assimilation (ODA) Ocean Predictions and Applications (OPA) Risk Assessment and Adaptation Strategies (RAAS) REgional Models and geo-Hydrological Impacts (REMHI) Sustainable Earth Modelling Economics (SEME)

RESEARCH DIVISIONS

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TOPICS

The CMCC Foundation

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WHA

The CMCC Foundation

OUTREACH

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To participate in the Q&A Session, please use the “Questions” menu provided by the Go-to- Webinar system

Q&A session

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CMCC webinar, Zurich, Nov 12, 2018

  • Prof. Tobias Schmidt, Dr. Bjarne Steffen, Energy Politics Group, ETH Zurich, www.epg.ethz.ch

Low-carbon energy finance

new research results and their implications for modelers and policy makers

This project has received funding from the European Union's Horizon 2020 research and innovation programme under grant agreement No 730403, as well as from the European Research Council under grant number 313553. It has also received funding by the Swiss State Secretariat for Education, Research and Innovation (SERI) [contract number 16.0222] and ETH Foundation. The opinions expressed & arguments employed herein do not necessarily reflect the official views of the Swiss Government. The project was also supported by a seed grant from ETH Zurich foundation.

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| | EPG | Energy Politics Group

D GESS

EPG’s research framework: Analyzing the co-evolution

  • f policy with technological change

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Energy sector Policy Politics Technological Change

(Innovation, Diffusion, Finance)

We are an interdisciplinary team of engineers, economists, and political scientists

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Financing is more relevant for low-carbon energy technologies, due to their higher capital intensity

10 Note: Assumes 5% cost of debt, 10% cost of equity, data based on Schmidt, 2014 (Nature Clim. Change)

4% 17% 18% 3% 15% 15% 56% 58% 85% 12% 9% Wind turbines (onshore) 8% Avr fossil fuel- based power Solar Photovoltaic Cost of equity Cost of debt CAPEX OPEX (O&M, fuel)

Percentage of different cost components in LCOE Impact of increased cost of capital on LCOE

Source: Schmidt, 2014 (Nature Clim. Change)

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| | EPG | Energy Politics Group

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The four papers of this talk and their key messages

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Main messages

  • The cost of capital for

project-financed renewable energy assets has fallen substantially over the last 15 years

  • We detect a financing

experience curve (investors also learn) Main messages

  • “Green” state

investment banks (SIBs) help in overcoming investors’ aversion against new energy assets

  • SIBs found to crowd-in

private finance rather than crowd-out Main messages

  • Multilateral development

banks (MDBs) have “greened” their power generation portfolios to very different extents

  • MDBs’ public sector

branches are typically less “green” than their private sector branches Main messages

  • Renewable energy

assets heavily rely on non-recourse project finance (vs. corporate finance for conventional plants)

  • Key driver is debt
  • verhang of fast-

growing new entrants

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Project finance: A niche of capital markets, but not for RE

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Financing of new project on the balance sheet of the sponsor

  • Using assets and cash flows from

existing firm to guarantee additional credit provided by lenders

  • Cost of capital determined by sponsor

solidity

Corporate Finance (CF) Project Finance (PF)

Creating a special purpose vehicle (SPV) to incorporate new project

  • No guarantee from sponsor’s assets,

lenders depend on cash flows of new project alone

  • Cost of capital cost determined by

project cash flows and risks

Classical economic motivations for PF do not hold for renewables in OECD countries Thus study addresses research questions:

1. How important is project finance for renewable energy projects in developed, low-risk countries? 2. What are the drivers and underlying reasons to use project finance in such settings?

Steffen, B. (2018), The importance of project finance for renewable energy projects, Energy Economics (69), 280–294.

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Quantitative analysis of extreme low-risk case DE

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Data: Utility-scale projects 2010–2015 Case selection: Germany Polar type sampling: DE as extreme example of low-risk environment for renewables

  • «Best-in-class» as per UNDP
  • Well-developed capital markets

Analysis of new dataset, combining asset list from grid regulator with financial info from trade register

  • Showing finance structure in population
  • Regression analysis to identify drivers

Steffen, B. (2018), The importance of project finance for renewable energy projects, Energy Economics (69), 280–294.

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Results: High share of PF for RE, driven by new players

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Steffen, B. (2018), The importance of project finance for renewable energy projects, Energy Economics (69), 280–294.

Renewables with much lower risk than fossil fuels – still, use more project finance

96% 88% 50% 22% 50% 94% 78% 100% 6% Solar PV Gas 4% 12% Wind

  • ffshore

9

Wind

  • nshore

Hard coal Lignite

100% 83 185 12 31 5 Project finance Corporate finance

  • No. of

projects

Feed-in tariff Merchant German power generation projects 2010–2015

Key reason: small balance sheets

  • f new players in industry

Results from regression analysis on rationales to use project finance

  • 1. Contamination risk
  • 2. Debt overhang
  • 3. Securitization

Negative financial synergies with existing business

  • 4. Information asymmetry
  • btw. sponsor & lender
  • 5. Agency owners & mgrs

(Further) market imperfections

  • 6. Horizontal joint ventures
  • 7. Independence civic prjcts

Considerations regarding

  • rg. structure
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| | EPG | Energy Politics Group

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The four papers of this talk and their key messages

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Main messages

  • The cost of capital for

project-financed renewable energy assets has fallen substantially over the last 15 years

  • We detect a financing

experience curve (investors also learn) Main messages

  • “Green” state

investment banks (SIBs) help in overcoming investors’ aversion against new energy assets

  • SIBs found to crowd-in

private finance rather than crowd-out Main messages

  • Multilateral development

banks (MDBs) have “greened” their power generation portfolios to very different extents

  • MDBs’ public sector

branches are typically less “green” than their private sector branches Main messages

  • Renewable energy

assets heavily rely on non-recourse project finance (vs. corporate finance for conventional plants)

  • Key driver is debt
  • verhang of fast-

growing new entrants

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Literature lacked an analysis of the financing cost dynamics of renewables

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1. How and why did solar PV and wind onshore financing conditions in DE change

  • ver time?

2. What is the effect of these changes on their generation costs (LCOE)? Our research questions Challenges:

  • Scarce data, as financial details of project finance deals not disclosed
  • For “why” part: Interest rate levels affected by multitude of drivers
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Egli, F., Steffen, B., Schmidt, T. S. (2018). A dynamic analysis of financing conditions for renewable energy technologies. Nature Energy, available online

We focus on Germany and use a mixed-method approach, taking four steps

1 2 3 4 Descriptive: Elicitation and mapping of project finance data

  • Cost of equity, cost of debt/debt margin
  • Leverage, loan tenor, debt service coverage ratio

Qualitative: Investor interviews to identify drivers for changes

  • Semi-structured interviews, grounded theory-type coding of arguments

Quantitative: Regression analysis for experience curves

  • Various specifications of dependent and independent variables

Model-based: Split-up of LCOE into technology cost effects

  • Calibration of levelized cost of electricity (LCOE) in different settings
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Egli, F., Steffen, B., Schmidt, T. S. (2018). A dynamic analysis of financing conditions for renewable energy

  • technologies. Nature

Energy, available

  • nline

5 10 15 2015 2010 2020 2000 2005 2010 2005 2020 2015 2000 CoC f debt

Solar PV Wind onshore

2.3 2.2 2.5 1.2 0.6 2.8 6 4 2 1.6

  • 69%

5.1 0.9 Cost of debt Cost of equity 2.1 1.4 2.3 1.1 1.0 2.4 1 2 3 4 5 6 4.5 1.9 0.9

  • 58%

Ø 2000 - 05 2017 change

Step 1: Historic development of the cost of capital

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Egli, F., Steffen, B., Schmidt, T. S. (2018). A dynamic analysis of financing conditions for renewable energy technologies. Nature Energy, available online

Economy Renewable energy sector Renewable energy financing industry

Drivers of changes in financing conditions

  • Capital markets: Low-cost liquidity, few

investment alternatives, low return expectations

  • Banks: Low-cost refinancing, low bank fees,

preference for project finance

  • Availability of performance data:

Accumulated operation experience of RET assets

  • Technology reliability: Proven track record
  • f technology, low default rates of projects
  • Support policies: Regulatory environment,

e.g. introduction of exposure to market risks

  • Learning by doing: In-house RET

knowledge, better risk assessment and due diligence processes

  • Investment ecosystem: Standardised

investment structures, frame contracts, partner networks

  • Market entry of investors: New investor

types (e.g., large banks, insurers, pension funds), increasing investor competition

Level

Drivers specific to RET deployment and financing Drivers related to general economic development

Step 2: We detect drivers on 3 levels

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Egli, F., Steffen, B., Schmidt, T. S. (2018). A dynamic analysis of financing conditions for renewable energy technologies. Nature Energy, available online

Step 3: We estimate the experience and general interest rate effects

0.1 1.0 10.0 1 100 10 000 Debt margin (%)

Solar PV

ER = 11 ± 7%

Identification of experience effect:

1

( ) ( )

b t t

I DebtMARGIN I DebtMARGIN I I

  =    

2000 2005 2010 2015 2020 5 6 1 2 3 4 5.3% 2.5% 0.3% 2.1% 1.0% 1.1% Bond yield or margin (%) Year Solar PV debtmargin Wind onshore debtmargin General interestrate level (10-year German governmentbond)

Comparison of experience effect and general interest rate level

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Egli, F., Steffen, B., Schmidt, T. S. (2018). A dynamic analysis of financing conditions for renewable energy technologies. Nature Energy, available online

Step 4: We identify the effect of the CoC dynamics on the LCOE

313 187 8 100 200 300 400 500 LCOE (US$ MWh ) 59% 2017 67 59 2000- 2005 500 Change 36% 4% 1% Ø Ø 41% Change in financing cost 54 85 7 28 20 40 60 80 100 120 ( $ ) 60% 2017 62 2000- 2005 113 Change 16% 20% 4% 40% Change in financing cost General interest rate effect Experience effect es Lower capital expenditures Change in financing cost from

Solar PV Wind onshore

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| | EPG | Energy Politics Group

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The four papers of this talk and their key messages

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Main messages

  • The cost of capital for

project-financed renewable energy assets has fallen substantially over the last 15 years

  • We detect a financing

experience curve (investors also learn) Main messages

  • “Green” state

investment banks (SIBs) help in overcoming investors’ aversion against new energy assets

  • SIBs found to crowd-in

private finance rather than crowd-out Main messages

  • Multilateral development

banks (MDBs) have “greened” their power generation portfolios to very different extents

  • MDBs’ public sector

branches are typically less “green” than their private sector branches Main messages

  • Renewable energy

assets heavily rely on non-recourse project finance (vs. corporate finance for conventional plants)

  • Key driver is debt
  • verhang of fast-

growing new entrants

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| | EPG | Energy Politics Group

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SIB: We compare three state investment banks in DE, UK, AU

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Geddes, A., Schmidt, T.S., Steffen, B. (2018), The multiple roles of state investment banks in low-carbon energy finance: An analysis of Australia, the UK and Germany, Energy Policy 115, 158–170.

10 20 100 US Dollar billion 20.9 On- shore Off- shore 1.9 8.2 PV 1.4 W2E & Bioe. 95.5

  • E. Effi-

ciency KfW Finance Private Finance (not reported) 5 7 2 4 1 3 6 8 9 10 2.2 0.2 On- shore W2E & Bioe. 0.4 0.2 7.1 Off- shore PV 4.4 5.2 0.5 0.4

  • E. Effi-

ciency 9.4 GIB Equity GIB Debt Private Finance 0.2 0.0 0.4 1.8 0.6 1.6 W2E & Bioe. 0.3 1.3 0.2 On- shore Off- shore 0.3 PV 0.3 1.5 0.1 0.4

  • E. Effi-

ciency 0.6 CEFC Debt Private Finance

KfW investments 2012-2016 GIB investments 2012-2016 CEFC investments 2012-2016

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Qualitative case study allows to identify effective mechanisms

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Geddes, A., Schmidt, T.S., Steffen, B. (2018), The multiple roles of state investment banks in low-carbon energy finance: An analysis of Australia, the UK and Germany, Energy Policy 115, 158–170.

Case selection and method Comparative study of 3 cases

  • Industrialized countries w/ SIB

heavily involved in RE finance

  • GIB in UK, and CEFC in AU:

Green SIB on national level, with 5 years track record

  • KfW in DE: Not exclusively green

SIB, but largest RE investor Data iteratively analyzed

  • Semi-structured interviews with

56 interviews from investors (SIB and others) and developers

  • Qualitative content analysis to

identify key themes by mapping developer demands to bank

  • fferings
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| | EPG | Energy Politics Group

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Results: SIBs take four key roles, well beyond capital provision

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Geddes, A., Schmidt, T.S., Steffen, B. (2018), The multiple roles of state investment banks in low-carbon energy finance: An analysis of Australia, the UK and Germany, Energy Policy 115, 158–170.

  • A. Capital Provision and

De-risking Roles

  • Direct funding for crucial gaps,

concessional or commercial terms

  • De-risking instruments

(e.g., guarantees)

  • C. Signaling Role
  • SIB reputation crowding-in private

equity and debt

  • “SIB participation signal” with

effect on financing cost

  • B. Educational Role
  • Specialist internal expertise

(e.g. accurately assessing risks)

  • Financial innovation

and standardization

  • D. First or Early Mover
  • Early movers with respect to new

technologies (in the country), new deal structures, new manufacturers and developers

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| | EPG | Energy Politics Group

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The four papers of this talk and their key messages

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Main messages

  • The cost of capital for

project-financed renewable energy assets has fallen substantially over the last 15 years

  • We detect a financing

experience curve (investors also learn) Main messages

  • “Green” state

investment banks (SIBs) help in overcoming investors’ aversion against new energy assets

  • SIBs found to crowd-in

private finance rather than crowd-out Main messages

  • Multilateral development

banks (MDBs) have “greened” their power generation portfolios to very different extents

  • MDBs’ public sector

branches are typically less “green” than their private sector branches Main messages

  • Renewable energy

assets heavily rely on non-recourse project finance (vs. corporate finance for conventional plants)

  • Key driver is debt
  • verhang of fast-

growing new entrants

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| | EPG | Energy Politics Group

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MDB: Multilateral dev. banks are major investors in power plants

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Power generation pathway of developing countries crucial for climate change Could multilateral development banks (MDB) take the role of SIB in dev. countries?

  • Long track record in power generation financing, and toolbox with de-risking and invest instruments
  • Ambitious goals for climate finance – yet also competing policy areas and interest
  • The role of MDB in financing high- and low-carbon assets is poorly understood

AsDB AfDB WB/IFC/MIGA IsDB IADB EIB EBRD CAF

Global Regional «South-South» We conduct bottom-up analysis of 857 projects and programs 2005–15 + complementary interviews with 12 experts form 6 MDBs

Source: Steffen, B.; Schmidt, T.S. (2018). A quantitative analysis of 10 multilateral development banks’ investment in conventional and renewable power-generation technologies from 2006 to 2015. Nature Energy.

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|

Energy Politics Group | ETH Zurich

New RE investment rose from ~10% to ~50% of all MDB power generation invest

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6 13 1 5 2 4 3 7 8 9 10 11 12 14 15 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015

Geothermal Hydro Solar (PV + CSP) Multiple/other renewables Wind Unspecified Gas Heavy fuel oil Coal (hard coal & lignite) Multiple/other non-renewable Total financial commitments (excluding guarantees) (USD2015 billion)

Share (%) Renewables Renewables

  • excl. hydro

First five-year period Second five-year period

38% 36% 46% 76% 73% 62% 74% 56% 11% 20% 29% 44% 32% 45% 56% 42% 55% 51% 13% 9%

Source: Steffen, B.; Schmidt, T.S. (2018). A quantitative analysis of 10 multilateral development banks’ investment in conventional and renewable power-generation technologies from 2006 to 2015. Nature Energy.

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|

Energy Politics Group | ETH Zurich

Different patterns – often RE invest “on top” of conventionals

29 Total commitment for power generation projects by MDB USD2015 billion, based on bottom-up analysis of project data

10 3 1 5 2 4 7 6 8 9 11 2006-10 2006-10 6.7 2011-15 2011-15 2011-15 2006-10 2011-15 2006-10 4.3 2.9 6.2 8.7 2.4 2.6 6.2 non-renewable unspecif ied hy dro renewable excl. hy dro EBRD EIB IA DB IFC Pattern 1: Renewables

  • n top

2 9 3 6 4 10 5 11 1 7 8 4.5 2006-10 11.0 2006-10 3.7 2011-15 2011-15 6.4 2006-10 2011-15 2006-10 2011-15 2011-15 2.7 9.7 2.4 6.7 2.1 3.6 2006-10 A fDB WB A sDB IsDB CA F Pattern 2: Substitution of fossil fuels by renewables Pattern 3: Substitution

  • f hydro by
  • ther renew.

Pattern 4: Growth m ainly

  • f fossil fuels

Source: Steffen, B.; Schmidt, T.S. (2018). A quantitative analysis of 10 multilateral development banks’ investment in conventional and renewable power-generation technologies from 2006 to 2015. Nature Energy.

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Energy Politics Group | ETH Zurich

Stark differences between public and private sector branches

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Financial commitments to power-generation technologies by branches of regional MDBs Commitment per bank (USD2015 billion)

10 years 2006–15

100% 50% 10% 0% 20% 40% 30% 80% 90% 60% 70% priv . 8.6 38% 35% 6.1 priv . 13% 6% publ. 54% 3.5 57% 61% 11% publ. 5.8 26% 27% 1.5 priv . 75% 68% 22% priv . 1.1 5.3 5% publ. 7% priv . 5.2 44% 17% 0.7 publ. 44% 35% 86% 9.0 3.0 priv . 34% 49% 43% publ. 4% 62% 7% 4.2 priv . publ. 1.5 publ. 4.1 33% unspecif ied non-renewable hy dro renewable excl. hy dro

AfDB AsDB EBRD EIB IADB CAF IsDB

Source: Steffen, B.; Schmidt, T.S. (2018). A quantitative analysis of 10 multilateral development banks’ investment in conventional and renewable power-generation technologies from 2006 to 2015. Nature Energy.

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Wrap-up: Key implications for modelers and policymakers

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Key implications for policymakers

  • Renewables rely on project finance, hence banks are important actors in financing decisions, and cost
  • f capital (interest payments & dividends) are project-specific
  • Reductions in cost of capital have been a key driver for the lower LCOE of renewables that are
  • bserved globally, driven both by financing experience and the general interest rate level
  • Public banks (such as SIB and MDBs) can be a powerful policy instrument to enhance financing

conditions and lower cost of capital for new technologies Key implications for modelers

  • For comparably new, capital-intense technologies such as renewables, technology- and time-specific

cost of capital need to be considered (times of a uniform discount rate should be over)

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Further details – and underlying data – are freely available

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Egli F, Steffen B, Schmidt TS (2018), A dynamic analysis of financing conditions for renewable energy technologies, Nature Energy Free read-only access Geddes, A., Schmidt, T.S., Steffen, B. (2018), The multiple roles of state investment banks in low- carbon energy finance: An analysis of Australia, the UK and Germany, Energy Policy 115, 158–170. (free open access) Source: Steffen, B.; Schmidt, T.S. (2018). A quantitative analysis of 10 multilateral development banks’ investment in conventional and renewable power- generation technologies from 2006 to 2015. Nature Energy. Free read-only access Project level data available Steffen, B. (2018), The importance of project finance for renewable energy projects, Energy Economics (69), 280–294. Free pre-print version Project level data available

This project has received funding from the European Union's Horizon 2020 research and innovation programme under grant agreement No 730403, as well as from the European Research Council under grant number 313553. It has also received funding by the Swiss State Secretariat for Education, Research and Innovation (SERI) [contract number 16.0222]. The opinions expressed & arguments employed herein do not necessarily reflect the official views of the Swiss Government. The project was supported by a seed grant from ETH Zurich foundation.

@ETH_EPG www.epg.ethz.ch www.innopaths.eu

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To participate in the Q&A Session, please use the “Questions” menu provided by the Go-to- Webinar system

Q&A session

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Forthcoming Webinar

Climate services in the finance sector: insights for users and providers of climate data and information December 12, 2018 – h. 11.00 am CET

Speaker: Robin Hamaker-Taylor – Policy and risk analyst, Acclimatise Discussant: Adriaan Perrels – Finnish Meteorological Institute Moderator: Jaroslav Mysiak – CMCC, RAAS Division

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Thank you for attending this CMCC webinar. This webinar was recorded and will be uploaded on CMCC Youtube Channel: https://www.youtube.com/CMCCvideo and to the CMCC website: www.cmcc.it If you have any further question about the webinar, please email: webinar@cmcc.it