Solar Assisted Ground Source Heat Pump Performance in Nearly Zero Energy Building in Baltic Countries

Januševičius, Karolis; Streckienė, Giedrė

Solar Assisted Ground Source Heat Pump Performance in Nearly Zero Energy Building in Baltic Countries

Environmental and Climate Technologies

Volume 11 (2013): Issue 2013 (October 2013)

By: Karolis Januševičius and Giedrė Streckienė

Open Access

|Oct 2013

References

1. Directive 2010/31/EU of the European Parliament and of the Council of 19 May 2010
Search in Google Scholar
2. LST EN 15450:2007 “Heating systems in buildings - design of heat pump heating systems” Lithuanian department of standardization. 2007
Search in Google Scholar
3. Sparber W. Vajen K. Herkel S. et. al. Overview on solar thermal plus heat pump systems and review of monitoring results. International Energy Agency SHC program. 2011. P. 1-12.10.18086/swc.2011.26.17
Search in Google Scholar
4. Kjellsson, E., Hellstrom, G., Perrers, B. Optimization of systems with the combination of ground-source heat pump and solar collectors in dwellings. Energy 2009, Vol. 35, No. 6, p. 2667-2673.10.1016/j.energy.2009.04.011
Search in Google Scholar
5. Mierlo B.P. Coupled thermal solar collector and heat pump simulation for improved system performance.. Master Thesis. Eindhoven University of technology. 2011 p. 16.
Search in Google Scholar
6. Xi, C., Lim, L., Hongxing, Y. Long Term of a Solar Assisted Ground Coupled Heat Pump System for Space Heating and Domestic Hot Water. Energy and Buildings 2011, Volume. 43, No. 8, p. 1835-1844.10.1016/j.enbuild.2011.03.033
Search in Google Scholar
7. Helpin V. Kumert M. Cauret O. Experimental and simulation study of hybrid ground-source heat pump systems with unglazed solar collectors for French office buildings 12th conference of IBPSA proceedings. Sidney. Australia. 2011. p. 2957-2964.
Search in Google Scholar
8. Bertran E. Glebin J. Sheuren J. et. al. Unglazed solar collectors in heat pump systems: Measurement, Simulation and dimensioning. Eurosun 2008. 2008. p. 1-7.
Search in Google Scholar
9. Biaou L.A. Bernier. M.A. Achieving total domestic hot water production with renewable energy. Building and Environment 43, 2008, p. 651-660.10.1016/j.buildenv.2006.06.032
Search in Google Scholar
10. Kapsalaki M., Leal V., Santamouris M. A methodology for economic efficient design of Net Zero Energy Buildings Energy and Buildings.Volume 55. 2012. p. 765-778.10.1016/j.enbuild.2012.10.022
Search in Google Scholar
11. Rad M.F. Fung A.S., Leong W.H.. Feasibility of combined solar thermal and ground source heat pump systems in cold climate, Canada. Energy and Buildings, Volume 61. 2013. p. 224-232.10.1016/j.enbuild.2013.02.036
Search in Google Scholar
12. Kjellsson E. Solar collectors combined with ground-source heat pumps in dwellings. PhD thesis 2009. Lund University.152 p.
Search in Google Scholar
13. STR 2.01.09:2012. “Energy performance of buildings. Energy performance certification” (Pastatų energinis naudingumas. Energinio naudingumo sertifikavimas) Vilnius. Environment Ministry of Lithuanian Republic. 2012 (in Lithuanian)
Search in Google Scholar
14. Bertran, E., Parisch, P., Tepe, R. Impact of solar heat pump system concepts on seasonal performance - Simulation studies. IEA SHC Task 44 /HPP Annex 38 “Solar and heat pumps system”. International Energy Agency 2011 p.1-8
Search in Google Scholar
15. Feist W. Pfluger R. Kaufman B. et.al. Passive House Planning Package 2007. Requirements for quality-approved Passive houses. The Passive house institute. Darmstadt. Germany 206 p.
Search in Google Scholar
16. Salmeron J.M. Alvarez S. Molina J.L. et. al. Tightening the energy consumption of buildings depending on their typology and on Climate Severity Indexes. Energy and Buildings, Volume 58, 2013. p. 372-377.10.1016/j.enbuild.2012.09.039
Search in Google Scholar
17. Meteotest: Remund J., Kunz S. Meteonorm Data (Worldwide), METEOTEST, Bern, Switzerland. 2011.
Search in Google Scholar
18. Heating and cooling degree days [online] [viewed January 2013] www.degreedays.net
Search in Google Scholar
19. Shogenova A. Sliaupa S. Vaher R. et.al. The Baltic Basin: structure, properties of reservoir rocks, and capacity for geological storage of CO2 Estonian Journal of Earth Sciences. 2009. Volume 58, No. 4, p. 259-26710.3176/earth.2009.4.04
Search in Google Scholar
20. Jordan, U., Vajen, K. Influence of the DHW Load Profile on the Fractional Energy Savings: a Case Study of a Solar Combi - System with TRNSYS Simulations. Solar Energy 2000, Volume 69, No. 6, p.197-208.10.1016/S0038-092X(00)00154-7
Search in Google Scholar
21. Januševičius, K; Jaraminienė, E; Misevičiūtė, V. Heating load determination for passive buildings in Lithuanian climate conditions. „Inżynieria Środowiska - młodym okiem” Białystok : Politechnika Białostocka, 2012. p. 185-189.
Search in Google Scholar
22. Januševičius, K., Jaraminienė, E. Saulės Kolektorių ir Gruntinio Šilumos Siurblio Sistema Mažaenergiam Pastatui. "Pastatų inžinerinės sistemos" 2013.
Search in Google Scholar
23. Duffie, J. A., Beckman W. A. Solar Engineering of thermal processes. 2006. Willey.
Search in Google Scholar
24. LST EN 15316 “Heating systems in buildings - Method for calculation of system energy requirements and system efficiencies - Part 4-3: Heat generation systems, thermal solar systems” Lithuanian department of standardization. 2007
Search in Google Scholar
25. Klein, A., Beckman, A., Mitchell, W. et al. TRNSYS 17 - a transient system simulation program. Madison, Solar Energy Laboratory, University of Wisconsin; USA 2011
Search in Google Scholar
26. Hellstrom G. Duct ground storage model, TRNSYS documentation, 1996
Search in Google Scholar
27. LST EN ISO 7730:2006 “Ergonomics of the thermal environment - Analytical determination and interpretation of thermal comfort using calculation of the PMV and PPD indices and local thermal comfort criteria”. Lithuanian department of standardization. 2006
Search in Google Scholar