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Europe has a large public housing sector, about 15-20 percent of the housing stock, where very little is known about the financial outcomes of energy-efficiency investments in the building sector. In this slidedeck, Andrea Chegut and Rogier Holtermans present the financial outcomes of energy-efficiency investments in the public housing sector. The European Commission has big goals to reduce total energy consumption. To achieve that goal, regulatory nudges and financial investments are striving towards increasing the energy-efficiency of the housing sector. As part of that goal, the Building Energy Efficiency for Massive Market Uptake (BEEM-Up) Program, an EU 7thFramework Program project, delivers some first results on the engineering feasibility and financial performance of existing building retrofits that reduce primary energy demand in buildings by 75 percent. Academically this is also very interesting as to date, studies using measurement tools like Energy Performance Certificates document a positive impact from high energy-efficiency in buildings on their transaction or rental value in residential and commercial real estate markets. However, most of these studies focus on the private housing or commercial real estate markets. This webinar, shares the financial performance and feasibility of energy-efficiency for the public housing sector.
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The Value of Energy-Efficiency in the Housing SectorTransforming Uncertainty around ‘Green’ intoMeasurable Value, Costs and Risk in the Marketplace
Andrea Chegut and Rogier HoltermansMay 15, 2014European Center for Corporate Engagement – Webinar Series
Carbon, Energy and Resource Costs within EuropeChallenges and opportunities
Buildings are a large source of carbon emissions• Europe’s buildings emit 36 percent of CO2 (ECF, 2014)
• Housing emits 630 billion kg of CO2 in 2010 (Eurostat, 2013; Bertoldi et
al., 2012)
Energy is costly• 27 percent of energy use in the EU-27 stems from the residential
sector• 2010 energy bill of €225 billion (Eurostat, 2013; Bertoldi et al., 2012;
Carbon Trust, 2013)
• Electricty prices increase by 3.9 percent and gas prices by 7.4 percent per year (Eurostat, 2014)
• Energy 10 percent of total housing costs
Real estate consumes resources (EPA, 2009)
• 30 percent of raw materials use• 30 percent of waste output• 12 percent of potable water consumption
Financial gains from existing buildings80 percent of buildings we need in 2050 are already built
Source: McKinsey, 2009
Uncertainty around “green” and its valueFailed coordination efforts
Lack of measuring and pricing…slows diffusion• Transparency requirements… energy labels• Pricing energy-efficiency in buildings…• Transforming R&D into real companies and commercially
diffused solutions…takes time
Disaggregate outcomes of energy-efficiency• The intensive calculations and design ideas that go into a
green buildings are lost…engineers keep them• Energy performance models and their role in operational
risks are missing…• Lacking the bigger picture, disaggregated outcomes of
property owners
Financial performance is missing• Investors will not move until they understand financial
performance• Green buildings are complex developments and
redevelopments…there is a learning curve• Long term performance experience is lacking
Regulatory nudges and R&D investment in the EUDiffusion of energy-efficiency measures for buildings
Framework• Energy Performance of Buildings Directive 2003, 2010,
2012– Minimum energy-efficiency requirements for new and existing
buildings– Certification of energy performance…EPC labels
• Energy Efficiency Plan 2011
Proving the concept…diffusing innovation• EU 7th Framework Programs for energy-efficiency
– Targeted at the existing building stock to generate new technology for retrofits
– At least 20 programs to execute R&D, investment in pilot projects and financing for the housing sector
• Horizon 2020…€80 billion stimulus package– 20% reduction in GHG emissions– 20% of energy from renewable resources– 20% increase in energy-efficiency
Building Energy-Efficiency for Massive Market Uptake (BEEM-Up)Energy-efficiency retrofits for social, public and cooperative housing
Product innovation• Large scale
retrofit of building units
• Insulation innovation
• Passivhaus standards in Sweden
Three pilot sites (339 units)• France: 87 dwellings• Sweden: 144
dwellings• The Netherlands: 80
apartments, 28 terrace houses
Financial performance• Lifecycle cost analysis• Market transaction
values for energy-efficiency
• Building scale modeling
• Financial challenges and opportunities for energy-efficiency retrofits in Europe
The Project
• 27 stakeholders in engineering, construction and finance join forces
• Three SPC building owners• Aim of energy-efficiency retrofits
with a 75 percent reduction in primary energy demand
Demonstration sites in the Netherlands, France and Sweden75 percent reduction in primary energy demand
Source: BEEM-Up
SwedenFrancethe Netherlands
Building sites
Financial challenges and opportunities – BEEM – Up PilotsLiving laboratory to achieve 75 % reduction in energy use
Today’s contribution: first results from the project:• Scale of the problem: size of the SPC stock is large (Wallbaum et al., 2014)
– Scaling the 75 percent reduction is viable in some housing cohorts…identifying these is critical
• Energy efficient dwellings transact for more (Chegut, Eichholtz, Hotlermans, van Marwijk, 2014)– Academic evidence around the globe suggests a premium for energy-
efficient properties– For Dutch social housing the same is also true – We estimate that the most efficient homes trade for 12 percent more
per square meter than a matched sample of energy-inefficient homes
• Learning about the financial performance of energy-efficient social, public and cooperative housing (Chegut, Eichholtz, Holtermans, Kok and Tausendschön, 2014)– Life cycle cost analysis discloses each demonstration sites sensitivity to
institutional risks within the SPC housing sector– Projected NPVs are zero or positive, but some scenarios expose the
project to higher downside risks
• Financing opportunities (Bastiaanssen and Zietara, 2014)– Financing gap for 75 percent reduction in primary energy demand for
the SPC housing sector is about €181 billion– Financial and economic challenges to overcome for massive market
uptake
Scaling the building stock to a 75 percent reductionAssessing the energy efficiency of the building stock
Social, public and cooperative housing in EuropeMarket share of the residential sector
Heterogeneous building stock
Typology and representative energy model
Extrapolation to country
level
-75% primary energy demand
Residential real estate marketEuropean building typology
Current situation (EIU, 2013)• 40 percent of the building stock constructed before 1960
and is in need of renovation • New construction represents only about 1 percent of the
building stock• Refurbishment rates are low at approximately 1 percent of
the building stock
Scaling up…building typology based on• Construction period• Building type: single-family housing, multi-family housing,
apartment blocks, terraced houses
European building stockPotential for massive market uptake
Applying the Swedish retrofit to Austria:• Total building stock of more than 400 million m2
• 16 percent of which is multi-family housing with more than 63 million m2
• Retrofit would reduce primary energy demand by 61 percent
The Residential Green StockEnhancing the economic efficiency of buildings
Statistical Evidence in Europe, Asia and the USCertified housing transacts and rents for more…
The Value of Energy Efficiency in Dutch Social Housing (Chegut, Eichholtz, Holtermans, van Marwijk, 2014)
Transaction prices for Dutch social housing (2003 - 2013)
Measuring “green” in social housingEnergy Performance Certificates for Dutch Social Housing Owners
Dutch Kadaster and National Brokerage Data (NVM)
Geocoded
Transaction characteristics
• Total trades: +44,000
• Labeled properties: +15,000
• Non-labeled properties:+29,000
Controlling for:
• Building characteristics
• Location, neighborhood
• Energy characteristics
Samples:
• Labeled vs. non-labeled
• Between labels
Distribution of dwellings with high energy-efficiencyTransactions of A and B labeled homes by region
Distribution across energy-efficiency metricsA and B properties are of higher quality
Evidence of Green Value within labelsDistinguishing between energy-efficiency and housing and neighborhood quality• Standard real estate valuation framework relating building
characteristics to the transaction value (Rosen, 1974)
• Where:– logPi = The natural logarithm of the transaction price per
square meter;– Xi = Building characteristics such as size, age, thermal quality,
etc.; – Gi = EPC variable indicating the energy-efficiency of the home;
– α, β, and δ are estimated coefficients;– ε is an error term.
Evidence of Green Value within labelsFinancial performance of A labeled properties is higher
Financing a 75 percent reduction in primary energy demandProjecting the financial performance of energy-efficient retrofits in the demonstration sites
Where does energy-efficiency show up?Breaking down the cash flow components
In the cash flows• Increased rents – stemming from increased demand from
tenants• Increased transaction prices – stemming from increased
demand in the capital markets• Decreased vacancy rates – higher occupancy rates in green
buildings• Increased cash subsidies – from governments and agencies
seeking carbon reduction
In the operational expenditures• The operating performance – decreased cost of energy• However, also in potentially other dimensions – water and
waste• Capital improvement expenditures – changing the extent of
maintenance
In the Interest, Taxes, Depreciation (new areas where research is moving)• Financing the building investment– the risk as the building
owner and the risk from the bank• Taxes – added tax shields from governments to support
green buildings• Depreciation rates – relative depreciation of buildings built
with more sustainable materials or with a different lifecycle in mind (real vs. projected)
Split incentives between tenants and landlordsShowing the risk and returns of energy-efficiency
BEEM-Up EU 7th framework program(Chegut, Eichholtz, Holtermans, Kok and Tausendshön, 2014)The returns to “green” in France, Sweden and the Netherlands
Measuring green returns through 300 plus building retrofits
75 percent improvement in energy-efficiency
Projected values of the pilot sitesAcross 37dimensions and simulated across 165,000
plus scenarios
3 pilot sites
• Projecting Future Cash Flows• Future Energy Risks• Future Changes in Subsidies• Future Cash Flow Losses and
Gains• Within each country’s
institutional context
DCF procedure across many scenariosProjecting the future value of “green” when the data is unknown
Geltner, Miller, Clayton, Eichholtz, (2013) application to real estate
• Mathematically, the DCF procedure can be written as follows where V = value of the investment today.
• Where: – CFt = Net cash flow generated by the property in period “t”;
– V = Property value at the end of period “t”;– E0[r] = Expected average multi-period return (per period) as
of time “zero” (the present), also known as “going-in IRR”;– T = The terminal period in the expected investment holding
period, such that CFT would include the re-sale value of the property at that time, in addition to normal operating cash flow.
Source: Luwoge
Net investment costs across 3 pilot sites75 percent reduction in primary energy demand
the Netherlands
France
Sweden
Cash flow projections across investment risks75 percent reduction in primary energy demand
Projecting the future value of “green”Exploring the upside and downside risks in the cash flows
Opportunities from energy-efficiency• Resale energy-efficiency unit
retrofits• Upside sharing in energy savings• Property taxes are deferred for the
property for about 5 years• Maximum decreases in energy,
waste and water inefficiencies in operating expenditures
• NPVs are 0/positive • Less potential for downside risks to
occur
Challenges from energy-efficiency• No rent increase because of
institutions• Energy cost could stay constant• No subsidies from governments
despite higher retrofit costs• Capital market demand is not higher
for energy-efficiency • NPVs are 0/positive, but these risks
expose you to higher downside losses
How do we get the BEEM-Up concept diffused across EuropeFinancing the gap in Europe
Energy refurbishment for sustainable housing in Europe (Bastiaanssen and Zietara, 2014)Results of a survey among national housing associations
• Questionnaire and interviews of national SPC housing associations– Investigating the supply of capital for energy-
efficiency retrofits– Actual and projected annual refurbishment rates by
housing associations • Covering 60% of EU-27• Supported by data from the BEEM-UP project
The survey reflects the best estimates by experts at the time of the interview, it does not reflect the formal position of participating experts, nor the organization they represent
€ 84 bil-lion
€ 181 bil-lion
Investment required to reach EU 2020 targets for energy demand
reductions
Expected investment from SPC housing sectorFinancial gap
Large gap in financing energy-efficiencyInvesting in European housing retrofits
Investing in energy efficiencyLarge gap in financing European housing retrofits
Social, public and cooperative housing institutions forecast• 1,4% refurbishment rate per
annum • Average reduction in
primary energy demand of 40%
• Investments up to €13,6 billion per year
Policy ambition: 20% energy reduction target by 2020• 2% refurbishment rate per
annum• Average reduction in
primary energy demand of 65%
• Requires an estimated investment of €37,8 billion per year
The economics dof “green” in EuropeFinance and real economy challenges and opportunities
Appraisals of ´green investments´ • Green investments not properly valued; asset-backed
investments limitedTraining for housing professionals • Financial engineering and retrofitting project managementApplied research • Low-costs technologies for the improvement of energy
efficiency and renewable energies in housing, focus on prefabricated modules
European Housing Fund• Facilitate low-cost, long-term financing of housing retrofitsReduce threshold to access financing• Many SPC entities invest in €10-25M rangeContinue ELENA grants for technical support• Current technical capacity limited in SPC companies
– ELENA successful in mobilizing major and more ambitious renovations
Making a dent in “green” uncertaintyTransforming uncertainty into value
Europe aims to prove the concept of energy-efficiency• Is investing another €80 billion in R&D
BEEM-Up project aims to combine stakeholders to achieve a 75 percent reduction in primary energy demand• Challenges and opportunities are present
Today, we addressed some outcomes of the project from a finance perspective• There is a large building stock that can undertake these retrofits• The performance of these retrofitted homes to at least a 75 percent
reduction transact for 12 percent more in the market place• Using this and other assumptions leads to on average zero or positive
NPV projects
Where do we go from here…• Address the financing gap in the EU of at least €181 billion• Reduce thresholds to access financing • Explore some non-traditional modes of financing…engineering
Thank you
Andrea [email protected]
Rogier [email protected]
The European Center for Corporate Engagement - ECCEMaastricht University, the Netherlands
This research is sponsored by the EU 7th Framework Program, within the Building Energy Efficiency for Massive Market Uptake (BEEM-Up) protocol for more information on project progress or
to visit the building sites:…
http://www.beem-up.eu