School building energy performance and classroom air environment implemented with the heat recovery heat pump and displacement ventilation system

Applied Energy

Volumn 114, Issue , 2014, Pages 58-68

  Wang, Yang ^a,b   Zhao, Fu Yun ^c   Kuckelkorn, Jens ^a   Spliethoff, Hartmut ^b   Rank, Ernst ^b  

^a BAVARIAN CENTER FOR APPLIED ENERGY RESEARCH ZAE BAYERN   (Germany)

^b TECHNICAL UNIVERSITY OF MUNICH   (Germany)

^c WUHAN UNIVERSITY   (China)

Author keywords

Classroom displacement ventilation; Computational fluid dynamics; Heat recovery heat pump; Heating and ventilation energy conservation

Indexed keywords

AIR QUALITY; CARBON DIOXIDE; COMPUTATIONAL FLUID DYNAMICS; ENERGY EFFICIENCY; ENERGY UTILIZATION; FLOW RATE; HEAT PUMP SYSTEMS; INDOOR AIR POLLUTION; SCHOOL BUILDINGS; WASTE HEAT;

BUILDING ENERGY CONSERVATION; BUILDING ENERGY CONSUMPTION; BUILDING ENERGY PERFORMANCE; DISPLACEMENT VENTILATION; DISPLACEMENT VENTILATION SYSTEM; HEAT PUMPS; HEAT RECOVERY EFFICIENCY; TEMPERATURE DIFFERENCES;

VENTILATION;

AIR QUALITY; BUILDING; CORRELATION; ENERGY CONSERVATION; ENERGY PLANNING; ENERGY USE; FLOW PATTERN; VENTILATION;

EID: 84885766800     PISSN: 03062619     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.apenergy.2013.09.020     Document Type: Article

References (28)

1. Chwieduk D. Towards sustainable-energy buildings. Appl Energy 2003, 76:211-217.
2. Liu D., Zhao F.Y., Tang G.F. Active low-grade energy recovery potential for building energy conservation. Renew Sust Energy Rev 2010, 14:2736-2747.
3. Schimschar S., Blok K., Boermans T., Hermelink A. Germany's path towards nearly zero-energy buildings - enabling the greenhouse gas mitigation potential in the building stock. Energy Policy 2011, 39:3346-3360.
4. Feist W., Schnieders J., Dorer V., Haas A. Re-inventing air heating: convenient and comfortable within the frame of the passive house concept. Energy Build 2005, 37:1186-1203.
5. Chel A., Tiwari G.N. Thermal performance and embodied energy analysis of a passive house - case study of vault roof mud-house in India. Appl Energy 2009, 86:1956-1969.
6. Eicker U. Cooling strategies, summer comfort and energy performance of a rehabilitated passive standard office building. Appl Energy 2010, 87:2031-2039.
7. Johansson L., Westerlund L. Energy savings in indoor swimming-pools: comparison between different heat-recovery systems. Appl Energy 2001, 70:281-303.
8. Chowdhury A.A., Rasul M.G., Khan M.M.K. Thermal-comfort analysis and simulation for various low energy cooling technologies applied to an office building in a subtropical climate. Appl Energy 2008, 85:449-462.
9. Puteh M., Ibrahim M.H., Adnan M., Cheahmad C.N., Noh N.M. Thermal comfort in classroom: constraints and issues. Procedia - Social Behav Sci 2012, 46:1834-1838.
10. Karimipanah T., Awbi H.B., Sandberg M., Blomqvist C. Investigation of air quality, comfort parameters and effectiveness for two floor level air supply systems in classrooms. Build Environ 2007, 42:647-655.
11. Yuan X., Chen Q., Glicksman L.R. A critical review of displacement ventilation. ASHRAE Trans 1998, 104:78-90.
12. Yuan X., Chen Q., Glicksman L.R., Hu Y., Yang X. Measurement and computations of room airflow with displacement ventilation. ASHRAE Trans 1999, 105:340-352.
13. Bond M.A., Probert S.D. Energy thrift and thermal comfort in public houses. Appl Energy 1999, 62:1-65.
14. Shao L., Riffat S.B. Accuracy of CFD for predicting pressure losses in HVAC duct fittings. Appl Energy 1995, 51:233-248.
15. Chow W.K. Wind-induced indoor-air flow in a high-rise building adjacent to a vertical wall. Appl Energy 2004, 77:225-234.
16. Zhao F.Y., Liu D., Tang G.F. Multiple steady fluid flows in a slot-ventilated enclosure. Int J Heat Fluid Flow 2008, 29:1295-1308.
17. Chen Q. Ventilation performance prediction for buildings: a method overview and recent applications. Build Environ 2009, 44:848-858.
18. Wang H.Q., Huang C.H., Liu D., Zhao F.Y., et al. Fume transports in a high rise industrial welding hall with displacement ventilation system and individual ventilation units. Build Environ 2012, 52:119-128.
19. Liu D., Zhao F.Y., Wang H.Q., Rank E. Turbulent transport of airborne pollutants in a residential room with a novel air conditioning unit. Int J Refrig 2012, 35:1455-1472.
20. Jacob D., Göttel H., Kotlarski S., Lorenz P., Sieck K. Klimaauswirklungen und Anpassung in Deutschland 2008, Umwelt Bundes Amt Für Mensch und Umwelt, Hamburg.
21. Patankar S.V. Numerical heat transfer fluid flow 1980, Taylor & Francis, Washington, DC.
22. Launder B.E., Spalding D.B. The numerical calculation of turbulent flows. Comput Methods Appl Mech Eng 1974, 3:269-289.
23. Zhao F.Y., Rank E., Liu D., Wang H.Q., Ding Y.L. Dual steady transports of heat and moisture in a vent enclosure with all round states of ambient air. Int J Heat Mass Transfer 2012, 55:6979-6993.
24. Noh K.C., Jang J.S., Oh M.D. Thermal comfort and indoor air quality in the lecture room with 4-way cassette air-conditioner and mixing ventilation system. Build Environ 2007, 42:689-698.
25. Yu C.W.F., Kim J.T. Building environment assessment schemes for rating of IAQ in sustainable buildings. Indoor Built Environ 2011, 20:5-15.
26. Chua K.J., Chou S.K., Yang W.M., Yan J. Achieving better energy-efficient air conditioning - a review of technologies and strategies. Appl Energy 2013, 104:87-104.
27. Hughes B.R., Calautit J.K., Ghani S.A. The development of commercial wind towers for natural ventilation: a review. Appl Energy 2012, 92:606-627.
28. Ascione F., Bellia L., Capozzoli A. A coupled numerical approach on museum air conditioning: energy and fluid-dynamic analysis. Appl Energy 2013, 103:416-427.