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Real estate growth and carbon emissions control. An analysis of challenges to reach 2050 . CRREM PROJECT Paloma Taltavull de La Paz Francisco Jurez Raul Prez Snchez Universidad deAlicante Pacific Rim Real Estate Conference PRRES 2019


  1. Real estate growth and carbon emissions control. An analysis of challenges to reach 2050 . CRREM PROJECT Paloma Taltavull de La Paz Francisco Juárez Raul Pérez Sánchez Universidad deAlicante Pacific Rim Real Estate Conference PRRES 2019 Melbourne,Australia This project has received funding from the European 1 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  2. Agenda • Introduction to CRREM. • Tool to estimate how much energy should be saved to fulfill energy efficiency goals 2050 • What this paper does and aim • Model estrategy and steps • Results • Conclusions This project has received funding from the European 2 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  3. What is CRREM • Carbon Risk Real Estate Monitor – Project 785058 of H2020 EU program, Energy topic • Main goal: to estimate the required investment in the existing comercial building in order to improve their energy efficiency and reduce carbon emissions – Speed of energy renovation the building stock should follow – Identify the stranded assets ….Stranding risk • Build a tool to allow estimating to particular carbon efforts: – Real estate assets – Portfolios – Aggregate This project has received funding from the European 3 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  4. The idea This project has received funding from the European 4 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  5. The idea • Not so simple: – At national level in EU (28!!) – At portfolio level – At building/asset type level • And.. – Climate becomes + hot This project has received funding from the European 5 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  6. What is CRREM • Consortium: 5 partners – Coordinator: IIÖ (research centre), Austria – GRESB, The Netherlands – University of Tilburg – University of Ulster – University of Alicante • Strong links with companies (investor and energy oriented firms) – EIC organization • http://crrem.eu This project has received funding from the European 6 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  7. What is CRREM • Calculation methodology follows several steps: – Data base construction – Estimate the carbon impact of retrofitting in emissions and monetary investment – Fit how emissions evolve with the carbon target – Calculate the future increase on emissions • Forecast the future building trend – All affect the emissions stream: horizon 2050 – All follow process of VERIFICATION of data and results This project has received funding from the European 7 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  8. Step covered by this paper: Forecast building activity • Public forecasting are incompleted for our needs Source: EUREF16, in wp2 report, This project has received funding from the European 8 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  9. Aim of this presentation • Show the forecasting strategy: 2018-2050! – Time series arena: VAR environment methodology – Long term series are needed – Yearly data – Forecasting construction (m2) is needed… • Supply side model – Estochastic modelling • We cannot advance any innovation nor structural change – We can estimate the growth trend in the future done the past knowledge. This project has received funding from the European 9 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  10. Conceptual model • Di Pasquale & Wheaton (1996) shows that new supply space reacts to changes on market prices and construction costs.  2 C t  3 I t  4 S t-1  5  Qre ts = f(P re,t , Cc t ,S t-1 , G tk ) = e  1 P re,t [G tk ]  6  t – where: – P re,t corresponds to real estate prices in real terms (market prices not developer prices) – Cc t corresponds to the costs associated with construction materials and labor – i t reflects the real interest rates paid by developers for building credits – S t-1 is the existing stock at the previous moment – G tk is a matrix of the regional market characteristics, including physical features as well as other aspects like land and market size ฀  t is a random term  1..6 are the estimatedparameters. ฀ This project has received funding from the European 10 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  11. Problems? • Long term data is not available enough. – Time series comes from 1990 (quarterly) but prices from 2005! • Yearly base forecasting is better (less estimated points than quarterly and with no seasonal effects) but requires long term evidence. • Proxies? • Forecasting method. – Ideal: stochastic – Deterministic This project has received funding from the European 11 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  12. Econometric Strategy The analytical process follows the conventional sequential steps: • 1.- stationary analysis, • 2.- VAR definition and lag structure analysis, • 3.- Cointegration tests identification, • 4.- VECM definition, diagnosis and final model estimation, • 5.- Forecasting. • Separate country to country This project has received funding from the European 12 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  13. Econometric Strategy • Different methods for forecasting • 1 st . Looking for a proxies: housing prices? – Prices prediction other prices?. Evidence – Exogenous prove, using GDP • 2 nd . Forecasting with proxies – Supply model for commercial building permits • Offices • Commercial real estate (no-offices sector) This project has received funding from the European 13 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  14. Econometric Strategy Two steps for forecast: 1 st .- In-sample period [T-q+1,T], with q<T, in order to choose the model which minimize theprediction errors to fit available data. Estimated with fixed estimated regressors (following Pesaran and Timmermann,2005). • • These models have been using for prediction in real estate and construction by Jiang and Liu (2011), Kouwenberg and Zwinkels (2014) or Bork and Moller(2015). 2 nd Out-of-sample data until2050 • ‘ the expanding window strategy’ (Pesaran and Timmermann, 2007) through which a [T+m] future periods are estimated (with m>T) using a dynamic-stochastic simulation (Broyden 1969 solver) to calculate the future values in m-Tphases. – Every model is repeated 1000 times allowing to a 5000 maximum iterations. When the idiosyncratic features in the estimation process requires using more than one method of forecasting, utilizing the so-called as ‘the predictors technique ’ (Clements and Hendry, 1995) • i.e. by including a variable as a predictor which can be demonstrated to have strong propertiesto approach the variable of interest. A combination forecast would be also applied to obtain consistent out of-sample predictions (Timmermann, 2006, Aiolfi et al, 2010 among othercontributions). This project has received funding from the European 14 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  15. 1 st stage: housing prices model This project has received funding from the European 15 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  16. 1 st . Housing price model • Dynamics seems to follow similar (lagged) cycle • Supporting the idea of co-movements and the availability to be used as proxy (with the correct lag) Figure 5.1.5-Prices: housing and offices Figure 5.1.6. Starts of housing and offices(m2) 2,400 3 Linearscaling Normaliseddata 2,000 2 1,600 1 1,200 0 800 -1 400 Sources: M F O M andA N C E R T 0 -2 1975 1980 1985 1990 1995 2000 2005 2010 2015 2020 1975 1980 1985 1990 1995 2000 2005 2010 2015 P _ H pof_m2 OFIC_M2 S T A R T S This project has received funding from the European 16 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

  17. 1 st . Housing price model Meen(2001): P hdt = f(X, Z) t =     2 (Pop) t +  3 (y) t +  4 (K) t –  5 (Dh) t –  6 (Cu) t +  t • Table 1. Variables in Model 1 of Housing Prices Available Variable Concept period Source MFOM, Dallas Fed and Taltav Phdt Housing prices by m2 - Ph 1971-2018 and Juárez 2015 population older than 20 years. Taken in differences Pop Pob>20 1971-2018 INE Y GDP real terms -RGDP 1971-2018 INE Finance flow to buy houses (number of mortgages to K buy a house)- FF 1971-2018 INE, mortgage statistics Changes in the stock measured by the flow of starts  h STARTS 1971-2018 MFOM User costs, measured by interest rates (real) and Cu inflation, RIRM, INF 1971-2018 Bank of Spain, INE This project has received funding from the European 17 Union’s Horizon 2020 research andinnovation programme under grant agreement no. 785058 .

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