A 3-field earth-heat-exchange system for a school building in Imola, Italy: Monitoring results

Renewable Energy

Volumn 62, Issue , 2014, Pages 563-570

  Chiesa, Giacomo ^a   Simonetti, Marco ^a   Grosso, Mario ^a  

^a POLITECNICO DI TORINO   (Italy)

Author keywords

Earth to air horizontal heat exchangers; Ground cooling; Monitoring results; School building

Indexed keywords

AIR TEMPERATURE; BURIED PIPES; DESIGN CONDITION; ENERGY PERFORMANCE; HORIZONTAL HEAT EXCHANGER; MONITORING RESULTS; PSYCHROMETRIC CHARTS; SENSIBLE HEAT;

ATMOSPHERIC TEMPERATURE; HEAT EXCHANGERS;

SCHOOL BUILDINGS;

AIR TEMPERATURE; BUILDING; COOLING; HEAT TRANSFER; MONITORING; RELATIVE HUMIDITY;

BOLOGNA [EMILIA-ROMAGNA]; EMILIA-ROMAGNA; IMOLA; ITALY;

EID: 84883828668     PISSN: 09601481     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.renene.2013.08.020     Document Type: Article

References (16)

1. Givoni B. Passive and low energy cooling of buildings 1994, Van Nostrand Reinhold, New York.
2. Santamouris M. Preface: why passive cooling?. Advances in passive cooling 2007, Earthscan, London, pp. xix-xxxii. M. Santamouris (Ed.).
3. CityFutures: architecture design technology for the future of the cities 2010, Hoepli, Milano. L. Matteoli, R. Pagani (Eds.).
4. Grosso M., Raimondo L. Horizontal air-to-earth heat exchangers in Northern Italy: testing, design, and monitoring. International Journal of Ventilation June 2008, 7(1):1-10. Veetech Ltd.
5. Pfafferott J. Evaluation of earth-to-air heat exchangers with a standardized method to calculate energy efficiency. Energy and Buildings 2003, 35:971-983. Elsevier, London.
6. Hollmuller P., Lachal B. Buried pipe systems with sensible and latent heat exchange: validation of numerical simulation against analytical solutions and long-term monitoring. Proceeding of the 9th Conference of International Building Performance Simulation Association 2005, 411-418. Ecole Polytechnique de Montréal, Montréal.
7. Musskopf D., Sattler M. Natural ventilation through buried pipes in a small school in Viamão (Brazil). Proceeding of the 23rd Conference on Passive and Low Energy Architecture, PLEA, Geneva, Switzerland 2006.
8. Grosso M. Il Raffrescamento Passivo degli Edifici in Zone a Clima Temperato 2011, Maggioli, Rimini. 3rd ed.
9. Pfafferott J., Walker-Hertkorn S., Sanner B. Ground cooling: recent progress. Advances in passive cooling 2007, 190-227. Earthscan, London. M. Santamouris (Ed.).
10. Kopecký P. Hygro-thermal performance of earth-to-air heat exchangers: numerical model, analytical and experimental validation, measurements in-situ, design 2008, PhD Thesis, Ćeské Vysoké Učení Technické v Praze, Praha.
11. Benkert S., Heidt F.D., Schöler D. Calculation tool for earth heat exchangers GAEA 2011, Department of Physics, University of Siegen, Germany.
12. Benkert St, Heid F.D. Chapter 380 - designing earth heat exchangers - validation of the software GAEA. The Energy for the 21st Century, World Renewable Energy Congress VI 2000, 1818-1821. Elsevier, Brighton, UK.
13. Grosso M., Voerzio M. Il Raffrescamento Passivo degli Edifici Scolastici. Il Progetto Sostenibile 2008, 6(17-18):52-61. Edicom Edizioni, Monfalcone (GO).
14. Çengel Y.A. Introduction to thermodynamics and heat transfer 1997, McGraw-Hill, New York.
15. CETIAT Tablesde l'Air Humide 1976, CETIAT, Villeurbanne.
16. Nicol F., Roaf S. Progress on passive cooling: adaptive thermal comfort and passive architecture. Advances in Passive Cooling 2007, 1-29. Earthscan, London. M. Santamouris (Ed.).