Three-dimensional numerical model of heat losses from district heating network pre-insulated pipes buried in the ground

Energy

Volumn 108, Issue , 2016, Pages 172-184

  Danielewicz, J ^a   Sniechowska B ^a   Sayegh, M A ^a   Fidorow N ^a   Jouhara, H ^b  

^a WROCLAW UNIVERSITY OF TECHNOLOGY   (Poland)

^b BRUNEL UNIVERSITY   (United Kingdom)

Author keywords

3D modelling; District heating networks; Pre insulated pipes

Indexed keywords

DISTRICT HEATING; ENERGY DISSIPATION; HEAT LOSSES; HEATING; HEATING EQUIPMENT; NUMERICAL METHODS; ORTHOGONAL FUNCTIONS; PIPELINES; THERMAL CONDUCTIVITY;

3D MODELLING; DISTRICT HEATING NETWORKS; GROUND TEMPERATURE; INSULATED PIPES; STEADY-STATE CONDITION; THREE-DIMENSIONAL ANALYSIS; THREE-DIMENSIONAL NUMERICAL MODELING; UNDERGROUND HEATING;

NUMERICAL MODELS;

ENERGY BUDGET; HEAT BUDGET; HEAT FLOW; IN SITU MEASUREMENT; NETWORK ANALYSIS; NUMERICAL MODEL; PIPE; PIPELINE; STEADY-STATE EQUILIBRIUM; TEMPERATURE EFFECT; THERMAL CONDUCTIVITY; THREE-DIMENSIONAL MODELING;

CALLUNA VULGARIS;

EID: 84937459874     PISSN: 03605442     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.energy.2015.07.012     Document Type: Article

References (39)

1. [1] Bogusławski, P., Selected aspects of the heat transmission and distribution the view of the law. Energy Regul Office Bull, 4, 2010.
2. [2] Danielewicz, J., Gołecki, K., Guide for boiler room designer. 2004, Wroclaw University of Technology Press, Wroclaw University of Technology.
3. [3] Piekarska, K., Mutagenicity of airborne particulates assessed by Salmonella assay and the SOS chromotest in Wrocław, Poland. J Air Waste Manag Assoc 60:8 (2010), 993–1001.
4. [4] Piekarska, K., Karpińska-Smulikowska, J., Mutagenic activity of environmental air samples from the area of Wrocław, Poland. Pol J Environ Stud 16:5 (2007), 745–752.
5. [5] Piekarska, K., Zaciera, M., Czarny, A., Zaczyńska, E., Mutagenic and cytotoxic properties of extracts of suspended particulate matter collected in Wrocław City area. Environ Prot Eng 35:1 (2009), 37–48.
6. [6] Lawlor, V., Klein, K., Hochenauer, C., Griesser, S., Kuehn, S., Olabi, A., et al. Experimental and numerical study of various MT-SOFC flow manifold techniques: single MT-SOFC analysis. J Fuel Cell Sci Technol, 10(1), 2013, 011003.
7. [7] Tedesco, S., Benyounis, K.Y., Olabi, A.G., Mechanical pretreatment effects on macroalgae-derived biogas production in co-digestion with sludge in Ireland. Energy 61:0 (2013), 27–33.
8. [8] Carton, J.G., Lawlor, V., Olabi, A.G., Hochenauer, C., Zauner, G., Water droplet accumulation and motion in PEM (proton exchange membrane) fuel cell mini-channels. Energy 39:1 (2012), 63–73.
9. [9] Carton, J.G., Olabi, A.G., Design of experiment study of the parameters that affect performance of three flow plate configurations of a proton exchange membrane fuel cell. Energy 35:7 (2010), 2796–2806.
10. [10] Dalla Rosa, A., Li, H., Svendsen, S., Method for optimal design of pipes for low-energy district heating, with focus on heat losses. Energy 36:5 (2011), 2407–2418.
11. [11] Lund, H., Werner, S., Wiltshire, R., Svendsen, S., Thorsen, J.E., Hvelplund, F., et al. 4th generation district heating (4GDH): integrating smart thermal grids into future sustainable energy systems. Energy 68:0 (2014), 1–11.
12. [12] Pirouti, M., Bagdanavicius, A., Ekanayake, J., Wu, J., Jenkins, N., Energy consumption and economic analyses of a district heating network. Energy 57:0 (2013), 149–159.
13. [13] Olabi, A.G., 100% sustainable energy. Energy 77:0 (2014), 1–5.
14. [14] Olabi, A.G., State of the art on renewable and sustainable energy. Energy 61:0 (2013), 2–5.
15. [15] Olabi, A.G., Developments in sustainable energy and environmental protection. Energy 39:1 (2012), 2–5.
16. [16] Olabi, A.G., Developments in sustainable energy and environmental protection. Simul Model Pract Theory 19:4 (2011), 1139–1142.
17. [17] Olabi, A.G., The 3rd international conference on sustainable energy and environmental protection SEEP 2009 – Guest Editor's Introduction. Energy 35:12 (2010), 4508–4509.
18. [18] Kamler, W., District heating. Part II-district heating networks. 1974, The Polish Scientific Publishers, Warsaw Issue IV.
19. [19] Szuman, W., CHP plants and district heating, PWN, Lodz-Warsaw (2). 1963.
20. [20] Chorzelski, M., Wojdyga, K., The tightness of heating systems. Causes and effects of the lack of tightness. Mod Dist Heat, 12(207), 2009.
21. [21] Śniechowska, B., Numerical modeling of heat losses in pre-insulated district heating network pipes buried in the ground, Wroclaw. 2014.
22. ® Academic Research, Release 14.5, Help system, Coupled field analysis Guide, ANSYS, Inc.
23. [23] Anisimov, S., Pandelidis, D., Danielewicz, J., Numerical analysis of selected evaporative exchangers with the Maisotsenko cycle. Energy Convers Manag 88:0 (2014), 426–441.
24. [24] Biernacka, B., The study of temperature distribution in the soil at the different depths, district heating. Ventilation, 9, 2012.
25. [25] Oleśkowicz Popiel, C., Wojtkowiak, J., Biernacka, B., Measurements of temperature distribution in ground. Exp Therm fluid Sci, 25, 2001.
26. [26] Danielewicz, J., Fidorów, N., Jadwiszczak, P., Szulgowska-Zgrzywa, M., The exploitation costs for various heating systems according to the energetic certification law in Poland. Energy Sources Part B: Econ Plan Policy 9:3 (2014), 301–306.
27. [27] Information materials of Logstor companies, 2012 (01/02) http://www.logstor.com/.
28. [28] Jaworski, Z., Computational fluid dynamics in chemical and process engineering. 2005, Academic Publishing House EXIT, Warsaw.
29. [29] Rusiński, E., Czmochowski, J., Smolnicki, T., Advanced finite element method in load-bearing structures. 2000, University of Technology Press, Wroclaw.
30. [30] Bøhm, B., Determination of heat loss from district heating pipes. Department of energy engineering, 1996, Technical University of Denmark.
31. [31] Iwko, I., The heat loss in the district heating networks reduction in terms of the use of pre-insulated pipes. Constr Eng, 1, 2011.
32. [32] Kędziora, A., Basics of agrometeorology, state agricultural and forestry publishing house. 2008.
33. [33] Raznjevic, K., Thermal tablets and charts. 1966, Technical and Scientific Publishers, Warsaw.
34. [34] Wojdyga, K., Niemyjski, O., Hydraulic analysis for a district heating system supplied from two CHP plants. Energy Build 54:0 (2012), 81–87.
35. [35] Biernacka, B., Semi-empirical equation for the natural ground temperature field in the region of Bialystok. Civ Environ Eng, 1, 2010.
36. [36] Sayegh, M.A., Hammad, M., Faraa, Z., Comparison of two methods of improving dehumidification in air conditioning systems: hybrid system (refrigeration cycle –rotary desiccant) and heat exchanger cycle. Energy Procedia 6:0 (2011), 759–768.
37. [37] Kvisgaard, B., Hadvig, S., Heat loss from pipelines in district heating systems. 1980 Copenhagen.
38. [38] Danielewicz, J., Sayegh, M.A., Śniechowska, B., Szulgowska-Zgrzywa, M., Jouhara, H., Experimental and analytical performance investigation of air to air two phase closed thermosyphon based heat exchangers. Energy 77:0 (2014), 82–87.
39. [39] Joshi, J.B., Nere, N.K., Rane, C.V., Murthy, B.N., Mathpati, C.S., Patwardhan, A.W., et al. CFD simulation of stirred tanks: comparison of turbulence models. Part I: radial flow impellers. Can J Chem Eng 89 (2011), 23–82.