Thermal energy storage (TES) for industrial waste heat (IWH) recovery: A review

Applied Energy

Volumn 179, Issue , 2016, Pages 284-301

  Miró, Laia ^a   Gasia, Jaume ^a   Cabeza, Luisa F ^a  

^a UNIVERSITY OF LLEIDA   (Spain)

Author keywords

Excess heat; Industrial waste heat; Industry; Manufacture; Phase change material; Thermal energy storage

Indexed keywords

CARBON DIOXIDE; ELECTRIC ENERGY STORAGE; ENERGY CONSERVATION; ENERGY STORAGE; HEAT STORAGE; INDUSTRIAL WASTES; INDUSTRY; MANUFACTURE; PHASE CHANGE MATERIALS; RECOVERY; STORAGE (MATERIALS); THERMAL ENERGY; WASTE HEAT; WASTE HEAT UTILIZATION;

ELECTRICITY GENERATION; EXCESS HEATS; INDUSTRIAL ACTIVITIES; INDUSTRIAL SECTOR; INDUSTRY CASE STUDIES; RECOVERY METHODS; RECOVERY SYSTEMS; RECURRENT APPLICATIONS;

INDUSTRIAL ECONOMICS;

CARBON DIOXIDE; ELECTRICITY INDUSTRY; EMISSION CONTROL; ENERGY CONSERVATION; HEAT SOURCE; INDUSTRIAL WASTE; MANUFACTURING; RECOVERY; STORAGE; TECHNOLOGICAL DEVELOPMENT; THERMAL POWER; ZEOLITE;

EID: 84978173377     PISSN: 03062619     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.apenergy.2016.06.147     Document Type: Review

References (83)

1. 2 emissions and economic growth in Europe. Energy 35 (2010), 5412–5420.
2. [2] European Environment Agency (EEA). < http://www.eea.europa.eu/> [accessed 13.05.16].
3. [3] European Commission. Eurostat. < http://ec.europa.eu/eurostat> [accessed 13.05.16].
4. [4] International Energy Agency. < http://www.iea.org/> [accessed 13.05.16].
5. [5] Brueckner, S., Miro, L., Cabeza, L.F., Pehnt, M., Laevemann, E., Methods to estimate the industrial waste heat potential of regions – a categorization and literature review. Renew Sustain Energy Rev 38 (2014), 164–171.
6. [6] US Department of Energy. Waste heat recovery: technology and opportunities in US Industry; 2008.
7. [7] Miro, L., Brueckner, S., Cabeza, L.F., Mapping and discussing Industrial Waste Heat (IWH) potentials for different countries. Renew Sustain Energy Rev 51 (2015), 847–855.
8. [8] Pehnt M, Boedekery J, Arens M, Jochem E, Idrissora F. Die Nutzungindustrieller Abwärme-technisch-wirtschaftliche Potenziale und energiepolitische Umsetzung Wissenschaftliche Begleitforschung zu uebergreifendentechnischen, oekologischen, oekonomischen und strategischen Aspekten des nationalen Teils der Klimaschutzinitiative FKZ03KSW016AundB; 2010.
9. [9] Brueckner, S., Liu, S., Miro, L., Radspieler, M., Cabeza, L.F., Laevemann, E., Indsutrial waste heat recovery technologies: an economic analysis of heat transformation technologies. Appl Energy 151 (2015), 157–167.
10. [10] Tamme R. IEA ECES Annex 19: Optimised industrial process heat and power generation with thermal energy storage; 2010.
11. [11] BINE Informationsdienst. Latent heat storage provides process steam. < http://www.bine.info> [accessed 10.03.16].
12. [12] Sanner, B., Knoblich, K., New IEA-Activity ECES Annex 12: high temperature underground thermal energy storage. Proceedings of the second Stockton international geothermal conference, 1998.
13. [13] IEA-ETSAP, Irena. Thermal energy storage: technology brief; 2013.
14. [14] Andersson, O., Rydell, L., Algotsson, T., Efficient usage of waste heat by applying a seasonal energy storage (BTES) at ITT Water & Wastewater AB, Emmaboda, Sweden. Effstock conference, 2009.
15. [15] Energie Speicher Forschungsinitiative der Bundesregierung. Foundry using waste heat of the furnace; 2014. < http://forschung-energiespeicher.info/en/storing-heat/project-list/project-details/108/Giesserei_nutzt_Abwaerme_des_Schmelzofens/> [accessed 13.05.16].
16. [16] Selvaraj, J., Thenarasu, M., Aravind, S., Ashok, P., Waste heat recovery from castings and scrap preheating by recovered heat using an intermediate heat transfer medium. Appl Mech Mater 813–814 (2015), 776–781.
17. [17] Duscha, R.A., Masica, W.J., The role of thermal energy storage in industrial energy conservation. Proceedings from the first industrial energy technology conference, 1979.
18. [18] Katter LB, Peterson DJ. Application of thermal energy storage to process and waste heat recovery in the iron and steel industry; 1978.
19. [19] Akiyama T, Shimada T, Kasai E, Yagi J. Feasibility of waste heat recovery from molten slag. In: China-Japan international academic symposium environmental problem in Chinese iron-steelmaking industries and effective technology transfer; 2000.
20. [20] Maruoka, N., Sato, K., Yagi, J., Akiyama, T., Development of PCM for recovering high temperature waste heat and utilization for producing hydrogen by reforming reaction of methane. ISIJ Int 42 (2002), 215–219.
21. [21] Maruoka, N., Akiyama, T., Exergy recovery from steelmaking off-gas by latent heat storage for methanol production. Energy 31 (2006), 1632–1642.
22. [22] Zhang, L., Akiyama, T., How to recuperate industrial waste heat beyond time and space. Int J Exergy 6 (2009), 214–227.
23. [23] Steinparzer, T., Haider, M., Fleischanderl, A., Hampel, A., Enickl, G., Zauner, F., Heat exchangers and thermal energy storage concepts for the off-gas heat of steelmaking devices. J Phys Conf Ser, 395, 2012, 012158.
24. [24] Siemens Press. Industry Sector Metals Technologies; 2012.
25. [25] Raine R, Sharifi V, Swithenbank J, Hinchcliffe V, Segrott A. Sustainable steel city: heat storage and industrial heat recovery for a district heating network. In: The 14th international symposium on district heating and cooling; 2014.
26. [26] Barati, M., Esfahani, S., Utigard, T.A., Energy recovery from high temperature slags. Energy 36 (2011), 5440–5449.
27. 2 emissions in the European non-metallic mineral industry. Energy; 2016 [submitted for publication].
28. [28] European Commission. Best available techniques Reference document (BREFs). < http://eippcb.jrc.ec.europa.eu/reference/> [accessed 13.05.16].
29. [29] Beshore, D.G., Jaeger, F.A., Gartner, E.M., Thermal energy storage/waste heat recovery applications in the cement industry. Proceedings from the first industrial energy technology conference, 1979.
30. [30] EnergieSpeicher. Waste heat used for production of precast concrete. < http://forschung-energiespeicher.info> [accessed 10.03.16].
31. [31] De Boer R, Smeding SF, Bach PW. Heat storage systems for use in an industrial batch process. In: The tenth international conference on thermal energy storage, Ecostock; 2006.
32. [32] Anastasovski, A., Raskovic, P., Guzovic, Z., Design and analysis of heat recovery system in bioprocess plant. Energy Convers Manage 104 (2015), 32–43.
33. [33] Carr JH, Hurley PJ, Martin PJ. Applications of thermal energy storage to process heat storage and recovery in the paper and pulp industry; 1978.
34. [34] Wojnar, F., Lundberg, W.L., Applications of thermal energy storage to waste heat recovery in the food processing industry. Proceedings from the fifth industrial energy conservation technology conference, 1983.
35. [35] Lundberg WL, Christenson JA, Wojnar F. Waste heat recovery in the food processing industry. < http://infohouse.p2ric.org/ref/13/12915.pdf> [accessed 13.05.16].
36. [36] Biglia, A., Fabrizio, E., Ferrara, M., Gay, P., Aimonino, D.R., Performance assessment of a multi-energy system for a food industry. Energy Proc 82 (2015), 540–545.
37. [37] Reindl, D.T., Jekel, T.B., Heat recovery in industrial refrigeration. ASHRAE J, 2007.
38. [38] Lohrenz E. District GeoExchange Systems and waste heat recovery. In: ASHRAE – cold climates conference; 2012.
39. [39] Pandiyarajan, V., Pandian, M.C., Malan, E., Velraj, R., Seeniraj, R.V., Experimental investigation on heat recovery from diesel engine exhaust using finned shell and tube heat exchanger and thermal storage system. Appl Energy 88 (2011), 77–87.
40. [40] Pandiyarajan, V., Chinnappandian, M., Raghavan, V., Velraj, R., Second law analysis of a diesel engine waste heat recovery with a combined sensible and latent heat storage system. Energy Policy 39 (2011), 6011–6020.
41. [41] Raja SP, Rajavel R, Navaneethakrishnan D. Experimental investigation of heat recovery from diesel engine exhaust using compact heat exchanger and thermal storage using phase change material. In: International conference on innovations in engineering and technology; 2014.
42. [42] Chinnapandian, M., Pandiyarajan, V., Prabhu, A., Velraj, R., Experimental investigation of a cascaded latent heat storage system for diesel engine waste heat recovery. Energy Sources, Part A: Recov Util Environ Effects 37 (2015), 1308–1317.
43. [43] Prabu, S.S., Asokan, M.A., A study of waste heat recovery from diesel engine exhaust using phase change material. Int J Chem Tech Res 8 (2015), 711–717.
44. [44] Gopal, K.N., Subbarao, R., Pandiyarajan, V., Velraj, R., Thermodynamic analysis of a diesel engine integrated with a PCM based energy storage system. Int J Thermodyn 13 (2010), 15–21.
45. [45] Kauranen, P., Elonen, T., Wikström, L., Heikkinen, J., Laurikko, J., Temperature optimisation of a diesel engine using exhaust gas heat recovery and thermal energy storage (diesel engine with thermal energy storage). Appl Therm Eng, 2010, 631–638.
46. [46] Shon, J., Kim, H., Lee, K., Improved heat storage rate for an automobile coolant waste heat recovery system using phase-change material in a fin–tube heat exchanger. Appl Energy 113 (2014), 680–689.
47. [47] Baldi, F., Gabrielli, C., Melino, F., Bianchi, M., A preliminary study on the application of thermal storage to merchant ships. Energ Proc 75 (2015), 2169–2174.
48. [48] Li, Y., Sciacovelli, A., Peng, X., Radcliffe, J., Ding, Y., Integrating compressed air energy storage with a diesel engine for electricity generation in isolated areas. Appl Energy 171 (2016), 26–36.
49. [49] Elminshawy, N.A.S., Siddiqui, F.R., Sultan, G.I., Development of a desalination system driven by solar energy and low grade waste heat. Energy Convers Manage 103 (2015), 28–35.
50. [50] US Environmental Protection Agency. < http://www3.epa.gov/> [accessed 13.05.16].
51. [51] Chan, C.W., Russel, N., Thermal energy storage technologies. 2011, The University of Sheffield.
52. [52] Nordell, B., Large-scale thermal energy storage. WinterCities’2000. Energy Environ, 2000.
53. [53] Energy Storage Association. < http://energystorage.org/compressed-air-energy-storage-caes> [accessed 13.05.16].
54. [54] Zhang, Y., Yang, K., Li, X., Xu, J., The thermodynamic effect of thermal energy storage on compressed air energy storage system. Renew Energy 50 (2013), 227–235.
55. [55] Safei, H., Keith, D.W., Compressed air energy storage with waste heat export: an Alberta case study. Energy Convers Manage 78 (2014), 114–124.
56. [56] Gude, V.G., Energy storage for desalination processes powered by renewable energy and waste heat sources. Appl Energy 137 (2015), 877–898.
57. [57] Guo, S., Li, H., Zhao, J., Li, X., Yan, J., Numerical simulation study on optimizing charging process of the direct contact mobilized thermal energy storage. Appl Energy 112 (2013), 1416–1423.
58. [58] Hauer, A., Gschwander, S., Kato, Y., Martin, V., Schossig, P., Setterwall, F., IEA ECES Annex 18 Final report: transportation of energy by utilization of thermal energy storage technology. , 2010 [accessed 13.05.16].
59. [59] Gadd H, Werner S. Thermal energy storage systems for district heating and cooling. In: Cabeza LF, editor. Advances in thermal energy storage systems: methods and applications. Woodhead Publishing. p. 467–478.
60. [60] Dominkovic, D.F., Cosic, B., Medic, Z.B., Duic, N., A hybrid optimization model of biomass trigeneration system combined with pit thermal energy storage. Energy Convers Manage 104 (2015), 90–99.
61. [61] Svensk Fjärrvärme. Transport av industriell överskottsvärme; 2009.
62. [62] Storch G, Hauer A. Cost-effectiveness of a heat energy distribution system based on mobile storage units: two case studies. In: Ecostock conference; 2006.
63. [63] Li, H., Wang, W., Yan, J., Dahlquist, E., Economic assessment of the mobilized thermal energy storage (M-TES) system for distributed heat supply. Appl Energy 104 (2013), 178–186.
64. [64] Deckert, M., Scholz, R., Binder, S., Hornung, A., Economic efficiency of mobile latent heat storages. Energy Proc 46 (2014), 171–177.
65. [65] Chiu, J.N.W., Martin, V., Industrial surplus heat storage in smart cities. Proceedings of the ASME 2015 9th international conference on energy sustainability, 2015, ASME.
66. [66] Yabuki Y, Nagumo T. Non-conduit heat distribution using waste heat from a sewage sludge incinerator. In: Proceedings of the water environment federation; 2007.
67. [67] Kaizawa, A., Kamano, H., Kawai, A., Jozuka, T., Senda, T., Maruoka, N., et al. Thermal and flow behaviors in heat transportation container using phase change material. Energy Convers Manage 49 (2008), 698–706.
68. [68] Kaizawa, A., Kamano, H., Kawai, A., Jozuka, T., Senda, T., Maruoka, N., et al. Technical feasibility study of waste heat transportation system using phase change material from industry to city. ISIJ Int 48 (2008), 540–548.
69. [69] Nomura, T., Oya, T., Okinaka, N., Akiyama, T., Feasibility of an advanced waste heat transportation system using high-temperature phase change material (PCM). ISIJ Int 50 (2010), 1326–1332.
70. [70] Nomura, T., Okinaka, N., Akiyama, T., Waste heat transportation system, using phase change material (PCM) from steelworks to chemical plant. Resour Conserv Recyc 54 (2010), 1000–1006.
71. [71] Chiu JN, Meany BH, Martin V. Industrial surplus heat utilization through mobile thermal energy storage with enhanced operating strategy. In: Greenstock the 13th international conference on energy storage; 2015.
72. [72] Wang, W., Mobilized thermal energy storage for heat recovery for distributed heating. 2010, Mälardalen University Press Dissertations No. 92.
73. [73] Wang, W., Guo, S., Li, H., Yan, J., Zhao, J., Li, X., et al. Experimental study on the direct/indirect contact energy storage container in mobilized thermal energy system (M-TES). Appl Energy 119 (2014), 181–189.
74. [74] Guo, S., Zhao, J., Wang, W., Jin, G., Wang, X., An, Q., et al. Experimental study on solving the blocking for the direct contact mobilized thermal energy storage container. Appl Therm Eng 78 (2015), 556–564.
75. [75] Fraunhofer Umsicht. Mobile latent heat storage unit, efficient use of waste heat. < http://www.umsicht-suro.fraunhofer.de/content/dam/umsicht-suro/en/documents/produktblaetter_englisch/mobile_latent_heat_storage_unit.pdf> [accessed 13.05.16].
76. [76] Kroenauer, A., Laevemann, E., Brueckner, S., Hauer, A., Mobile sorption heat storage in industrial waste heat recovery. Energy Proc 73 (2015), 272–280.
77. [77] Kroenauer A, Laevemann E, Hauer A. Mobile sorption heat storage in industrial waste heat recovery. In: Greenstock the 13th international conference on energy storage; 2015.
78. [78] EnergieSpeicher. New economical phase change material. < http://forschung-energiespeicher.info/en/projektschau/gesamtliste/projekt-einzelansicht//Wirtschaftlicher_dank_neuem_Phasenwechselmaterial/> [accessed 13.05.16].
79. [79] Hangzhou Phase Change Technology Co., Ltd. PCM based mobile heat storage truck. < http://www.feijiepcm.com/en/product/html/?28.html> [accessed 13.05.16].
80. [80] Energie Systeme der Zukunft. Heat in containers. < http://www.energiesystemederzukunft.at/results.html/id4312> [accessed 13.05.16].
81. [81] Wang, W., Hu, Y., Yan, J., Nystroem, J., Dahlquist, E., Combined heat and power plant integrated with mobilized thermal energy storage (M-TES) system. Front Energy Power Eng 4 (2010), 469–474.
82. [82] International Energy Agency, Technology Roadmap: energy storage. , 2014 [accessed 13.05.16].
83. [83] Miró, L., Brueckner, S., McKenna, R., Cabeza, L.F., Methodologies to estimate industrial waste heat potential by transferring key figures: a case study for Spain. Appl Energy 169 (2016), 866–873.