Effect on the Energy Market of the Potential Switching to Heat Pumps for Space Heating

Effect on the Energy Market of the Potential Switching to Heat Pumps for Space Heating

Sara A. Alla Vincenzo Bianco  Luca A. Tagliafico Federico Scarpa 

University of Genoa, DIME-TEC / UNIGE, via All’Opera Pia 15/A, Genoa 16154, Italy

Corresponding Author Email: 
sara.abd.alla@edu.unige.it
Page: 
140-145
|
DOI: 
https://doi.org/10.18280/mmc_c.790312
Received: 
2 May 2018
| |
Accepted: 
10 June 2018
| | Citation

OPEN ACCESS

Abstract: 

The main subject of this work is to understand what could happen in the Italian electricity market if a given share of building heating demand had switched from gas to electricity heating devices. The objective is to define the optimal share to switch in terms of minimization of environmental (CO2) emissions. The effects of such switching on the national energy system are analyzed from the financial point of view, depending also on the heating habits of final users.

An hourly simulation of the electricity market has been performed by means of a bid stack model (BIDSM) developed at University of Genoa, calculating market prices, power plant generation typology, fuel consumption and global CO2 emissions.

All the data are averaged on a national basis and results are reported for two different time schedule of heating requirements of the final users. In each case, the total energy consumption is fixed, and local “degree days” and location energy needs are considered. It seems that the use of heat pumps for building heating is a real option and that the user habits has a little impact on optimal share of switching from gas to heat pumps, at least concerning CO2 emission minimization.

Keywords: 

power market, fuel switching, heat pump heating, residential buildings

1. Introduction
2. Model Implementation
3. Results and Discussion
4. Conclusions
Acknowledgment

The present work was supported by University of Genoa with the fund “FRA - FONDI PER LA RICERCA DI ATENEO 2015. COD. 100025-2015-VB-FRA_001” and the PRIN 2015 MIUR project “Clean Heating and Cooling Technologies for An Energy Efficient Smart Grid” (UNIGE subproject 100025-2016-LT-PRIN2015_001).

  References

[1] Bertrand A, Aggoune R, Maréchal F. (2017). In building waste water heat recovery: An urban-scale method for the characterization of water streams and the assessment of energy savings and costs. Appl. Energy 192: 110-125. 

[2] Matsumoto K, Doumpos M, Andriosopoulos K. (2018). Historical energy security performance in EU countries. Renew. Sustain. Energy Rev. 82: 1737-1748.

[3] Chalvatzis KJ, Ioannidis A. (2017). Energy supply security in the EU: Benchmarking diversity and dependence of primary energy. Appl. Energy 207: 465-476.

[4] Dieckhöner C, Lochner S, Lindenberger D. (2013). European natural gas infrastructure: the impact of market developments on gas flows and physical market integration. Appl. Energy 102: 994-1003.

[5] Nagy K, Körmendi K. (2012). Use of renewable energy sources in light of the ‘‘New Energy Strategy for Europe 2011–2020’’. Appl. Energy 96: 393-399. 

[6] Eurostat. http://ec.europa.eu/eurostat, accessed on 31/03/2018.

[7] Bianco V, Scarpa F, Tagliafico LA. (2015). Long term outlook of primary energy consumption of the Italian thermoelectric sector: impact of fuel and carbon prices. Energy 87: 153-164. 

[8] BPIE, Buildings Performance Institute Europe. Europe’s buildings under the microscope, 2011. 

[9] Asare-Bediako B, Klinga WL, Ribeiro PF. (2014). Future residential load profiles: Scenario-based analysis of high penetration of heavy loads and distributed generation. Energy Build 74: 228-238. 

[10] Yang L, Yan H, Lam JC. (2014). Thermal comfort and building energy consumption implications – a review. Appl. Energy 115: 164-173. 

[11] Scarpa F, Bianco V. (2017). Assessing the quality of natural gas consumption forecasting: An application to the Italian residential sector. Energies 10(11): 1879.

[12] Bianco V, Scarpa F, Tagliafico LA. (2014). Analysis and future outlook of natural gas consumption in the Italian residential sector. Energy Convers. Manage 87: 754-764. 

[13] Shi Y, Segerberg H. (2014). Integration of 100% micro-distributed energy resources in the low voltage distribution network: A Danish case study. Appl. Therm. Eng. 71: 797-808.

[14] Skema GR, Marcinauskas K, Korsakiene I. (2016). A review on heat pumps implementation in Lithuania in compliance with the national energy strategy and EU policy. Renew. Sustain. Energy Rev. 53: 841-858.

[15] Gupta R, Irving R. (2014). Possible effects of future domestic heat pump installations on the UK energy supply. Energy Build. 84: 94-110.

[16] Seck GS, Guerassimoff G, Maïzi N. (2015). Heat recovery using heat pumps in non energy intensive industry: Are energy saving certificates a solution for the food and drink industry in France? Appl Energy 156: 374-389.

[17] Caldera M, Ungaro P, Cammarata G, Puglisi G. (2018). Survey-based analysis of the electrical energy demand in Italian households. Mathematical Modelling of Engineering Problems 5(3): 217-224. https://doi.org/10.18280/mmep.050313 

[18] Bianco V, Scarpa F. (2018). Impact of the phase out of French nuclear reactors on the Italian power sector. Energy 150: 722-734.

[19] ENEA AAVV. (2017). Analisi trimestrale del Sistema energetico Italiano  - I trimestre 2017. p. 22.

[20] SNAM. Snam Rete Gas. http://www.snam.it/it/chi-siamo/struttura-societaria/snam-rete-gas/, accessed on 31/03/2018.

[21] Eurometeo.http://www.eurometeo.com/italian/home, accessed on 31/03/2018.

[22] AbdAlla S, Bianco V, Scarpa F, Tagliafico L. (2018). Impact of the utilization of heat pumps for buildings heating in the Italian power market. Conference EEM 2018.