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Article

Does Sustainability Affect Real Estate Market Values? Empirical Evidence from the Office Buildings Market in Milan (Italy)

by
Alessia Mangialardo
1,*,
Ezio Micelli
1 and
Federica Saccani
2
1
Department of Architecture and Arts, IUAV University of Venice, 2206I-30123 Dorsoduro, Italy
2
Building Consultancy & Sustainability, CBRE, Piazza degli Affari 2, 20123 Milan, Italy
*
Author to whom correspondence should be addressed.
Sustainability 2019, 11(1), 12; https://doi.org/10.3390/su11010012
Submission received: 30 October 2018 / Revised: 11 December 2018 / Accepted: 14 December 2018 / Published: 20 December 2018
(This article belongs to the Special Issue Real Estate Economics, Management and Investments)
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Abstract

:
The construction industry is the world’s largest consumer of energy and producer of greenhouse gases. For this reason, there is a broad debate on how to make the built environment more sustainable. Although the positive externalities of energy-efficient retrofitting and new construction are known, the economic effects that green building has on the real estate sector in Italy are less evident. The aim of this paper is to analyze the Italian real estate market to investigate if, and to what extent, demand appreciates the supply of green real estate assets. The research focused on the analysis of 55 development projects of office buildings (with and without environmental certification) located in Milan, at present the most dynamic and flourishing real estate market in Italy. Through these case studies the authors investigated the premium price that is generated in certified real estate development projects. The results highlight a premium price, especially for high levels of sustainability. Similarly, the rate of absorption of certified assets reflects a preference for green properties, which are absorbed by the real estate market in less than half of the time foreseen for real estate without an environmental certification.

1. Introduction

The construction sector is the world’s largest consumer of energy and a producer of greenhouse gases [1,2,3]. Recently, the Intergovernmental Panel on Climate Change—IPCC—has issued an alarm in its special report, pointing out the urgent need to step up actions to combat global warming. In this report, the IPCC calls on the most energy-intensive sectors including industry, transport, and construction to reduce global carbon dioxide emissions by 45% by 2030 compared to 2010 levels, and the zeroing of net emissions by 2050 [1].
According to the Triple Bottom Line (TBL) theory, to guarantee sustainable development of the built environment it is necessary to consider three elements: economy, environment, and society. Sustainability is at the heart of a process that evaluates not only the natural environment, but also the economic and social aspects [4]. Renewal or new construction operations must therefore include interventions that aim to achieve maximum environmental sustainability while ensuring the highest economic value and greater well-being of individuals [5,6,7,8].
The aim of this paper is to analyze the real estate market to verify if, and to what extent, demand appreciates supply of green real estate assets and to assess the eventual premium price that is generated in sustainable real estate development projects. We focused our research in Milan, at present the most dynamic and flourishing Italian real estate market. To investigate the level of appreciation of green buildings in Italy, it was decided to analyze the specific real estate segment of office buildings. The hypothesis is the following: this segment has always been a forerunner of future trends in the real estate industry because national and international players interact putting into evidence innovation trends in the industry.
How is it possible to define a building as “green”? The environmental certification protocols were created for this purpose, with the aim of defining criteria and methodology that evaluate their level of sustainability. Such certifications offer to consumers and investors a basis for comparison between alternatives investments or rents [9,10]. A score is assigned based on the achievement of certain objectives of excellence in comparison with standard performance. Unfortunately, at present, there is not a global rating system able to measure the level of sustainability in buildings, but each country uses its own protocol of certification with the consequence that comparing buildings rated through different certification may determine different levels of sustainability [11]. Generally, environmental certifications aim to reduce the level of information asymmetry between the construction sector and buildings owners and users [12].
The paper is divided into five sections. In the first we present the main general issues concerning sustainability and market values. In the second, using data from CBRE [13] and Green Business Certification Italy (GBCI) [14], we focused on the analysis of 55 recent real estate development projects. A large fraction of these green buildings has been awarded with the LEED certification while some of them were not. The third part analyzes the data of the sample by means of multivariate statistics. The fourth part interprets the results, while in the fifth part we present the conclusions.

2. The Development of Green Buildings in Italy and in the World

A long-term approach to preserve the environment can be pursued by making buildings more sustainable. European Union, through the Energy Performance of Buildings Directive 2002/91/EC, requires the energy consumption of each building to be specified through different levels of energy sustainability, although there is no obligation to make more “green” existing buildings. On the contrary, the European Directive 2018/844/UE regulates that buildings constructed from the end of 2020 must have high standards of reduction of energy consumption and must be primarily powered by renewable sources.
Environmental certification protocols have been developed to overcome information asymmetries to provide reliable and internationally valid label concerning buildings sustainability. Simple and affordable information is then provided to investors and tenants with all its sustainability characteristics [10,11].
There are various environmental certifications of buildings around the world. In the USA, the most widespread type of certification is Leadership in Energy and Environmental Design (LEED): it was adopted by firms to homogeneously assess their real estate portfolio and it has become the most used certification protocol worldwide. Australia adopted the Green Star System and Japan the Comprehensive Assessment System for Building Environmental Efficiency (CASBEE). In Canada there is the Green Globe System. In Europe, several certification protocols compete: in UK and in Netherlands Building Research Establishment Environmental Assessment Method (BREEAM) was widely adopted, Deutsche Gesellschaft Nachhaltiges Bauen (DGNB) is dominant in Germany, France implemented Haute Qualité Environmentale (HQE) and in Switzerland Minergie is a important standard.
In Italy, in addition to LEED and BREEAM certifications, adopted in particular for office and commercial buildings, other protocols are employed for residential buildings. CasaClima and SBTool protocols are widely used for residential developments while for social housing projects the Protocollo per la Trasparenza l’Aggiornamento e la Certificazione degli Appalti (ITACA) is the most common standard. Moreover, for properties for sale, it is mandatory to present an energy certificate attesting the average energy consumption associated with a synthetic level of quality performance [11].
For the purpose of this research, we decided to investigate LEED-certified buildings, which represent the most widespread type of green certified buildings in Italy. LEED building’s energy and environmental certification system was developed by the U.S. Green Building Council (USGBC) in the 1990s. It is a tool for measuring the level of sustainability of buildings, neighborhoods, and cities in the design, construction, and management phases. LEED is a voluntary, market-oriented tool based on the consensus of the USGBC community. LEED certification proposes a measurement system (rating) applicable to buildings with different uses, both for existing and new assets. This is based on principles commonly recognized and accepted by the national scientific community [10,15,16].
The LEED certification system is now adopted in 164 countries around the world with a significant presence in Italy, which can now count 544 buildings among the LEED certificates or those waiting to complete the procedure for more than 13.9 million square meters. In Italy, the level of sustainability achieved by the certification is high: the most used is the Gold, which records more than half of the existing buildings (56%). This is followed by Platinum (19%), while the lowest levels of certification reach low percentages (Certified 13% of buildings and Silver 12%). The types of real estate projects are concentrated on new constructions: 72% of certified buildings belong to the category “building design and construction”, 11% concern retrofit operations on existing buildings while 17% certify “interior design and construction” interventions.
Based on the expectations that real estate markets and direct users have of a sustainable building, there is a great deal of empirical research that aims to verify how, and to what extent, environmental certification affects real estate values [15,16,17,18].
In particular, from an economic point of view, in the literature, the theme of sustainability in the built environment can be summarized in four macro-themes [17,18,19,20,21]. The first concerns the nature of investments in sustainable real estate development operations. For years, scientific research has aimed to assess whether, and to what extent, investments are repaid with the costs of potential energy savings [22,23,24].
Secondly, short- and medium-term benefits are investigated from the point of view of property occupants, such as savings on energy bill costs or possible tax breaks by governments [25,26,27,28,29]. Thirdly, from the point of view of developers and investors, possible benefits are investigated in relation to the increase in real estate value and the increase in rents, verifying whether these benefits can balance the higher costs of the interventions [28,29,30,31].
The fourth and last point, finally, aims to investigate the issue of the psycho-physical well-being of the occupants of sustainable buildings to verify the increase in well-being and productivity of workers [32,33,34,35].
Regarding the evaluation of the premium price of green buildings, which is one of the objectives of this research, Table 1 summarizes the results of various scientific studies that emerged from interviews (revealing the perception of relevant stakeholder) or empirical studies—in many countries that have led to different results. In Italy, despite that the sustainable construction is constantly increasing, an empirical research about the premium price of green buildings has not yet been carried out.

3. The Market Investigated: Real Estate for Management Use in Milan

In contrast to scientific research found in literature that analyzes a large dataset and provides a premium price nationwide, in Italy it is very difficult to have access to data on real estate transactions. Therefore, we have chosen to analyze a city that could be significant at the national level and could provide general real estate market trend.
The research was carried out in the city of Milan, the largest economic center in Italy and the most attractive location for international investors. According to CBRE, the stock of office buildings in Milan is made up of 12,000,000 square meters. Of these, in the last 12 months, the real estate market has absorbed 351,939 square meters while about 10% (1.39 million square meters) is still waiting to be occupied. Most of these investments were concentrated in some specific areas. Focusing on the attractive locations for national and international investors, green new construction and renovation projects were examined in Porta Nuova and in the Central Business District (CBD).
Regarding the districts we examined, despite the crisis that hit the real estate sector from 2008, office properties showed signs of a countertrend. Market values of new (or in an excellent state of preservation) offices increased by 36% for the CBD area and by 110% for the Porta Nuova district, as shown in Table 2.
The greatest contribution of Milan real estate developments has been concentrated in the two districts we examined. In particular, they host 458,323 square meters or 33% of the total amount of square meters developed in the city. Real estate developments can be divided in new buildings (132,672 square meters, 29% of the total) and in renovation projects, (325,651 square meters, 71% of the two districts).
Descriptive statistics of the 55 transactions of the sample are provided. Almost two thirds (64%) of the transactions took place in the CBD area (35 cases) while 36% of the other transactions took place in the district of Porta Nuova (20 cases). Real estate developments reflect a general trend we found in Milan: 74% of the transactions concern refurbishments while 26% are new constructions. The size of the leased properties varies within the sample. Roughly a third (35%) of the assets (18 cases) have a surface area between 2000 and 5000 square meters while the upper size classes (between 5000 and 9999 square meters and between 10,000 and 24,999 square meters) are just over half of the sample. Finally, 10% of the sample refers to surfaces of more than 25,000 square meters, as shown in Figure 1.
Properties of the sample hit the market over a period of time from 2009 to the present day. A fraction of the sample (7 properties) is still under development and is expected to be put on the market by 2020. The mode and the median of this sample coincide and are located at the center of the time period under examination (2014), as shown in Figure 2.
The rental values are expressed in Euro/sqm/year and range from a minimum of 240 Euro/sqm/year to 560 Euro/sqm/year. The average sample amounts to 448 Euro/sqm/year while the median and fashion are equal to 450 Euro/sqm/year, as shown in the Figure below (Figure 3).
A fraction of the sample was awarded a LEED certificate, while the other properties were refurbished or constructed without any type of third-party formal acknowledgment. In particular, 55% of the assets surveyed have LEED certification (30 cases) while 45% are not certified (25 cases). The largest fraction of the sample gathers LEED Gold (36%) buildings, while the LEED Silver and Platinum certificates concern a more limited amount of transactions (6% and 13% respectively), (see Figure 4).

4. Hedonic Prices and Absorption Rates in Green Properties

The analysis of the present sample concerns two aspects of the market. The first one is related to the possible appreciation by the market for green assets compared to buildings that are not. In other words, we wanted to test if there is a premium price for LEED-certified assets compared to a comparable supply without any certification. The second aspect is linked to the time necessary to rent the assets. The hypothesis underlying the research is that green buildings not only obtain a premium price, but they are absorbed with faster timing. The first part of the investigation concerned the analysis of the hedonic prices of the characteristics recognized by the market. The second part of the research is the result of an in-depth analysis of a fraction of the dataset of which absorption time was known. Regarding the first step, multiple regression analysis was carried out. Real estate market values can be considered as a function of the prices of their characteristics. Regression models represent the instrument to break down the market prices into the hedonic prices of the relevant characteristics.
Functional forms can be different. Linear and non-linear regression models have been used in the study with analogous performance. Although the R2 is not particularly relevant, p-value of the hedonic prices of the characteristics proved to be significant (Table 3).
The two hedonic prices—relating to the location of buildings and the type of LEED certification—define the market value of these two variables. LEED certification rewards properties according to their performance: the premium price for the position in the traditional CBD amounts to 44 Euro/sqm/year, while the hedonic price related to the type of certification amounts to 15 Euro/sqm/year (see Table 4 and Figure 5). The model shows that the increase in the hedonic price related to the building’s environmental quality amounts to 3.69% for each step of the LEED certification. The Silver level does not prove to be statistically significant because of the limited amount of transactions. With a Gold certification, the market value increase amounts to 7.38%, while the Platinum level determines an increase of 11.08%.
The regression analysis shows a statistically significant premium price for the location of the assets and for the type of certification. In particular, location in the CBD area implies a premium price estimated in 11% compared to the average. With respect to LEED certification, the market considers the Gold certification—with a premium of 7.4%—and the Platinum one with a further positive variation of more than 11%, as shown in the following table.
The second part of the survey refers to a subsample of the transactions whose absorption times are known. Twenty-five transactions were examined. The descriptive statistics of this subset are consistent with those of to the complete dataset. In particular, 56% of the case studies are in the CBD area while the remainder are located near Porta Nuova. The 84% of the cases are renovation projects while 16% are new constructions. The average surface area is 8232 sqm, with a total analyzed surface area of 205,804 square meters, dived as follows: 134,438 sqm of LEED buildings and 71,366 sqm of non-certified buildings. The projects’ year of completion starts in 2009. The average and the median coincide in 2014. 15 transactions refer to LEED-certified buildings (nine Gold and six Platinum).
Data concerning this subsample allowed to investigate the absorption times of each building. The rentals recorded on a quarterly basis up to 30 months were examined and the actual leased surface area was measured. The analysis of relative and absolute frequencies revealed a clear preference for certified buildings. As shown in Figure 6 and Figure 7, the 51%, of the surface area of certified buildings is already pre-let. Within six months of the completion of the intervention, the leased areas amount about to 80% of the available supply. After two and a half years from the placing on the market, the vacancy rate amounts to a percentage of about 7%.
Regarding non-certified buildings, pre-let leases amount to only 13%. After six months, leased areas amount to 21% of the total supply. After two years and a half, the vacancy rate amounts to more than 14% (see Figure 8 and Figure 9).

5. Sustainability Turns into Value: Survey Results

The investigations carried out in the two previous figures have revealed three significant elements. Developers and building owners aim to achieve a high level of certification to increase the buildings market attractiveness [35]. Recent research has shown that developers are interested in the most qualifying level of certification. Developers seem to be interested in presenting to the market a supply with a clear market distinction and therefore seem to prefer the most qualified levels of certification [25,26,35].
As GBCI pointed out, with a higher construction cost of about 3–4% for the first two levels of LEED certification and about 5–7% for the Gold and Platinum levels, better certifications show higher returns on investment and lower operating costs over the life of the property. No coincidence that more than 20 buildings of the sample have Gold certification compared to only three buildings certified Silver.
Second, there is a significant premium price for properties certified at the highest levels (Gold and Platinum) with price differentials of 7% and 11% respectively. These percentages are in line with studies emerging from other research, as shown in Table 1. The variation of the results emerged depends on the use of a different sample, located in different places with various characteristics and on the use of different methods of analysis. The common result is that green buildings benefit of a significant increase in market value and provide benefits to the community and to the environment [10,11,38].
Third, a more in-depth investigation of certified asset absorption rates reflects market preferences for certified properties. Absorption rates are four times higher for the pre-let segment. Within six months the percentage leased is 80% for certified properties and 21% for non-certified properties.
Both elements contribute to guarantee higher financial performance of certified green investments due to the increase in revenue values and their more economically favorable timing. Faster absorption times and a higher premium price compared to non-certified buildings can positively influence the internal rate of return of the development investments. In recent years, green buildings have become a dominant part of the tertiary supply. Real estate values and rents reflect this trend, showing that the particular appreciation of the market for LEED-certified buildings is a structural aspect of this specific segment of the market. This has significant implications for investors, developers, and government policies [36,37,38,39,40,41,42,43,44].
Non-certified office buildings are likely to suffer a market downturn. Research results have shown that developers attribute lower premium risk to more sustainable buildings. Increased market awareness of climate change and rising energy costs can only increase the market attractiveness of green buildings. The research also highlights the potential of policies that provide incentives for green buildings as they increase the value of buildings and at the same can influence buildings energy efficiency and their environmental impact [11].

6. Conclusions

In the broad area of research concerning a more sustainable built environment, it seems of the utmost importance that demand considers green buildings as a valuable solution, so transforming a potential constraint into a business opportunity. For this reason, we decided to test whether, and to what extent, green buildings could achieve a higher price and an overall superior economic performance than traditional real estate supply. The dataset concerned the real estate market of Milan, the leading market of the industry in Italy and the location in which the interaction between national and international investors provides the best evidence concerning future trends.
The investigation carried out confirms the results of empirical research in other countries, suggesting that sustainability will become a significant value driver in the future. The premium price of the LEED certified buildings is statistically significant and appears to be higher as the level of certification increases. Similarly, the rate of absorption of certified assets reflects a significant preference for green properties. Both aspects investigated contribute to define higher financial performance of green investments due to the combined effect of the increase in revenue values and their more favorable temporal articulation.
Future researches may concern more precisely the variation of the IRR related to sustainable and green real estate developments, putting into evidence to what extent additional financial value can be obtained by a green strategy. Furthermore, it seems very relevant to verify if the importance of sustainability in the real estate market remains the prerogative of a limited fraction of the market itself or expands into other geographical areas and other market segments. Finally, it appears to be important to understand if traditional supply, in specific segments or in the overall market, is going to be downgraded by the market accelerating the transition of the real estate industry into a new phase in which sustainability is a common and widespread driver of value.

Author Contributions

Conceptualization, E.M.; Data curation, A.M. and F.S.; Formal analysis, A.M. and E.M.; Methodology, E.M.; Supervision, E.M.; Writing–original draft, A.M., writing—review and editing, A.M. and E.M.

Funding

This research was funded by Ministero dell’Istruzione, dell’Università e della Ricerca, grant number PRIN 2015 protocol 2015STFWFJ_004.

Acknowledgments

We are grateful to CBRE for the dataset provided.

Conflicts of Interest

The authors declare no conflict of interest.

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Figure 1. The size of the sample examined.
Figure 1. The size of the sample examined.
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Figure 2. Year of placing on the market of the buildings examined.
Figure 2. Year of placing on the market of the buildings examined.
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Figure 3. Rental fees expressed in Euro/sqm/year.
Figure 3. Rental fees expressed in Euro/sqm/year.
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Figure 4. LEED’s certification level.
Figure 4. LEED’s certification level.
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Figure 5. Implied marginal prices based on positional quality and certification level.
Figure 5. Implied marginal prices based on positional quality and certification level.
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Figure 6. Analysis of the absolute frequencies of absorption times in LEED-certified buildings.
Figure 6. Analysis of the absolute frequencies of absorption times in LEED-certified buildings.
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Figure 7. Analysis of the relative frequencies of absorption times in LEED-certified buildings.
Figure 7. Analysis of the relative frequencies of absorption times in LEED-certified buildings.
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Figure 8. Analysis of the absolute frequencies of absorption times no certified buildings.
Figure 8. Analysis of the absolute frequencies of absorption times no certified buildings.
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Figure 9. Analysis of the relative frequencies of absorption times no certified buildings.
Figure 9. Analysis of the relative frequencies of absorption times no certified buildings.
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Table
Table 1. Summary of investigations in the international literature about the premium price—for rent and market value—in green buildings.
Table 1. Summary of investigations in the international literature about the premium price—for rent and market value—in green buildings.
Increased Market Value (%)Rental Premium (%)Type of CertificateData OriginReferencesCountry
Average: 10.90Average: 6.10LEEDPerception[5]USA
Average: 6.80Average: 1.00LEEDPerception[28]USA
LEED: 9.94; Energy Star: 5.76Average: 8.93Energy StarEmpirical data[29]USA
LEED: 16LEED: 3; Energy Star: 5Energy StarEmpirical data[29]USA
LEED: 35; Energy Star: 31LEED: 6; Energy Star: 5LEED-Energy StarEmpirical data[29]USA
LEED: 17.30; Energy Star: 8.62Energy StarEmpirical data[23]USA
LEED: 9; Energy Star: 9 LEED-Energy StarEmpirical data[36]USA
Minimum: 4.71; maximum: 13.60-Empirical data[37]Germany
Minimum: 3.97; maximum: 15.17-Empirical data[37]Germany
Minimum: 6.60; maximum: 15.90Minimum: 0.41; maximum: 5.87-Empirical data[37]Switzerland
Relative to D-labelled houses: A/B: 5; C: 1.7; E: −0.7; F: −0.9; G: −6.8 -Empirical data[38]UK
Average: 28 BREEAMEmpirical data[39]UK
Average: 10Average: 6BREEAMEmpirical data[7]UK
Relative to D-labelled houses: A: 9.3; B: 5.2; C: 1.7; E: 0; F/G: −10 Empirical data[40]Ireland
Relative to D-labelled houses: A: 10.2; B: 5.5; C: 2.1; E: −0.5; F: −2.3; G: −4.8 Empirical data[41]Netherlands
Relative to D-labelled houses: A/B: 6.4; C: 6; E: −0.7; F: −12.3; G: −19.4 Empirical data[42]Denmark
Average: 10% Perception[11]Italy
Table
Table 2. The real estate market of properties for use in the tertiary sector in the CBD and Porta Nuova areas in Milan.
Table 2. The real estate market of properties for use in the tertiary sector in the CBD and Porta Nuova areas in Milan.
NeighborhoodYearMinimum Real Estate Market ValueMaximum Real Estate Market ValueAverage Market ValuePercentage of Increase Compared to the Average Value
CBD20186.7009.2007.950+36%
20084.9006.8005.850
Porta Nuova20186.5008.0007.250+110%
20082.8004.1003.450
Source: Agenzia delle Entrate.
Table
Table 3. Results of the regression analysis.
Table 3. Results of the regression analysis.
Summary
R-squared0.183168
Adjusted R2 0.151751
Standard deviation59.30195
Observations55
Variance analysis
DFSum of squaresMean squareF ratio
Model341,035.9020,503.55.8303
Error52182,859.533515.7Prob > F
C.total54223,878.44 0.0552
Parameters evaluation
EvaluationST. ErrorT ratio
Intercept412.9518212.959631.94<0.0001
Submarket44.02039318.523372.850.0107
Type of certification15.2850297.0121452.180.0338
Table
Table 4. Implied marginal prices based on positional quality and certification level.
Table 4. Implied marginal prices based on positional quality and certification level.
Market RentNeighborhoodPrice (+44 Euro)Type of CertificatePrice +15 Euro
414CBD +11%458None 0%458
Gold +7.38%488
Platinum +11.08%503
Porta Nuova +0%414None 0%414
Gold +7.38%444
Platinum +11.08%459

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Mangialardo, A.; Micelli, E.; Saccani, F. Does Sustainability Affect Real Estate Market Values? Empirical Evidence from the Office Buildings Market in Milan (Italy). Sustainability 2019, 11, 12. https://doi.org/10.3390/su11010012

AMA Style

Mangialardo A, Micelli E, Saccani F. Does Sustainability Affect Real Estate Market Values? Empirical Evidence from the Office Buildings Market in Milan (Italy). Sustainability. 2019; 11(1):12. https://doi.org/10.3390/su11010012

Chicago/Turabian Style

Mangialardo, Alessia, Ezio Micelli, and Federica Saccani. 2019. "Does Sustainability Affect Real Estate Market Values? Empirical Evidence from the Office Buildings Market in Milan (Italy)" Sustainability 11, no. 1: 12. https://doi.org/10.3390/su11010012

APA Style

Mangialardo, A., Micelli, E., & Saccani, F. (2019). Does Sustainability Affect Real Estate Market Values? Empirical Evidence from the Office Buildings Market in Milan (Italy). Sustainability, 11(1), 12. https://doi.org/10.3390/su11010012

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