Environmental and economic assessment of a greenhouse waste heat exchange

Journal of Cleaner Production

Volumn 19, Issue 13, 2011, Pages 1446-1454

  Andrews, R ^a   Pearce, J M ^a  

^a QUEEN S UNIVERSITY   (Canada)

Author keywords

By product exchange; Exchange; Greenhouse; Industrial ecology; Industrial symbiosis; Waste heat

Indexed keywords

BY-PRODUCT EXCHANGE; ECONOMIC ASSESSMENTS; ECONOMIC COSTS; ECONOMIC METHODOLOGY; ECONOMIC VIABILITY; FLAT GLASS; HEAT EXCHANGE; HEAT SYSTEMS; INDUSTRIAL ECOLOGY; INDUSTRIAL PROCESSS; INDUSTRIAL SYMBIOSIS; NATURAL GAS SYSTEMS; NEGATIVE EXTERNALITIES;

AIR POLLUTION CONTROL; ENERGY CONVERSION; FOSSIL FUELS; GREENHOUSES; INDUSTRY; WASTE HEAT;

WASTE INCINERATION;

LYCOPERSICON ESCULENTUM;

EID: 79959750274     PISSN: 09596526     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jclepro.2011.04.016     Document Type: Article

References (60)

1. Agriculture Canada Canada's Tomato Industry Report 2008 Canada
2. T. Arican, and Ö Hortasu Energy conservation in glass manufacture Energy 17 6 1992 617 624
3. ASABE Heating, Ventilating and Cooling Greenhouses 2008 ANSI/ASAE EP406.4 (R2008)
4. D. Beers, and W.K. Biswas A regional synergy approach to energy recovery: the case of the Kwinana industrial area, western Australia Energy Conversion and Management 49 11 2008 3051 3062
5. Bruce County Bruce Tropical Produce 2009 Bruce Energy Centre http://www.brucecounty.on.ca/bruceenergy.php
6. 2 enrichment in a greenhouse European Journal of Operational Research 59 1992 308 312 (Pubitemid 23565189)
7. Z.S. Chalabi, A. Biro, B.J. Bailey, D.P. Aikman, and K.E. Cockshull SE - structures and environment: optimal control strategies for carbon dioxide enrichment in greenhouse tomato crops, part 1: using pure carbon dioxide Biosystems Engineering 81 4 2002 421 431 (Pubitemid 34800922)
8. Z.S. Chalabi, A. Biro, B.J. Bailey, D.P. Aikman, and K.E. Cockshull SE - structures and environment: optimal control strategies for carbon dioxide enrichment in greenhouse tomato crops, part II: using the exhaust gases of natural gas fired boilers Biosystems Engineering 81 3 2002 323 332 (Pubitemid 34623351)
9. J. Chau, T. Sowlati, S. Sokhansanj, F. Preto, S. Melin, and X. Bi Techno-economic analysis of wood biomass boilers for the greenhouse industry Applied Energy 86 3 2009 364 371
10. M.R. Chertow Industrial symbiosis: literature and taxonomy Annual Review of Energy and the Environment 25 2000 313 337 (Pubitemid 32087772)
11. P. Desrochers Industrial symbiosis: the case for market coordination Journal of Cleaner Production 12 8 2004 1099 1110
12. W. Doyle, and J.M. Pearce Utilization of virtual globes for open source industrial symbiosis Open Environmental Sciences 3 2009 88 96
13. Energy Information Association Annual Energy Outlook 2010 2009 EIA
14. K. Garzoli, and J. Blackwell An analysis of the nocturnal heat loss from a double skin plastic greenhouse Journal of Agricultural Engineering Research 36 2 1987 75 86
15. Government of Alberta: Energy. Alberta gas reference price History. Accessed at: http://www.energy.alberta.ca/NaturalGas/1322.asp, (17.05.10).
16. R. Heeres, W. Vermeulen, and F. de Walle Eco-industrial park initiatives in the USA and the Netherlands: first lessons Journal of Cleaner Production 12 2004 985 995
17. D. Helgeson, T. Petry, and G. Erlandson An economic analysis of operating a simulated two-acre greenhouse utilizing waste-water heat North Central Journal of Agricultural Economics 8 1 1986 123 134
18. J.G. Hnat, and W.F. Coles A feasibility assessment of cogeneration from a regenerative glass furnace, industry applications IEEE Transactions on Industry Applications IA-21 1985 1064 1069
19. IAC Industrial Assessment Centers Database 2007 IAC Accessed at: http://www1.eere.energy.gov/industry/bestpractices/iacs.html (10.05.10)
20. Incorporated Energetics Energy Loss Reduction and Recovery in Industrial Energy Systems 2004 U.S. DOE
21. Intergovernmental Panel on Climate Change (IPCC) IPCC Fourth Assessment Report: Climate Change 2007: Working group III: Mitigation of Climate Change 2007
22. Intergovernmental Panel on Climate Change (IPCC) Climate Change 2007: Synthesis Report 2008 Cambridge University Press Cambridge, United Kingdom
23. N. Jacobsen Industrial symbiosis in Kalundborg, Denmark: a quantitative assessment of economic and environmental aspects Journal of Industrial Ecology 10 1-2 2006 239 255 (Pubitemid 44689547)
24. J. Jones Tomato Plant Culture 1999 CRC Press Florida
25. R. Kenny, C. Law, and J.M. Pearce Towards real energy economics: energy policy driven by life-cycle carbon emission Energy Policy 38 2010 1969 1978
26. M.Ya. Khinkis, S.V. Levitin, L.G. Gol'denberg, V.Ya. Polyak, and L.I. Zingman Using waste gas heat from a glass furnace in a waste heat boiler Glass and Ceramics 25 1 1968 21 25
27. 2 reduction from glass melting furnaces by oxy-fuel firing combined with batch/cullet preheating. In: XX A.T.I.V. Conference Parma, Italy, September 14-16.
28. F. Kreith, and D.Y. Goswami Handbook of Energy Efficiency and Renewable Energy 2007 CRC Press
29. A. Lovins Negawatts: twelve transitions, eight improvements, and one distraction Energy Policy 24 4 1996 331 344
30. O. Maare Economical heat supply of greenhouses experiences from Denmark Acta Horticulturae (ISHS) 312 1992 37 44
31. T.O. Manning, and D.R. Mears Computer-aided design of a greenhouse waste heat utilization system Energy in Agriculture 1 1981 5 20
32. M. Mirata Experiences from early stages of a national industrial symbiosis programme in the UK: determinants and coordination challenges Journal of Cleaner Production 12 8 2004 967 983
33. E. Nederhoff, and B. Houter Greenhouse growers worldwide face despairingly high energy costs Grower 63 8 2008 1 3
34. 2 enrichment on photosynthesis, growth and yield of tomato Scientia Horticulturae 20 1 1983 1 14
35. Nosrat, A.H.; Jeswiet, J.; Pearce, J.M. 2009. Cleaner production via industrial symbiosis in glass and large-scale solar photovoltaic manufacturing, Science and technology for Humanity (TIC-STH). In: 2009 IEEE Toronto International Conference, pp. 967-970.
36. Nycz, J.A.; Sturgill, D.T.; 1980. A waste heat recovery boiler on a glass-melting furnace. In: Proceedings of the 40th Conference on Glass Problems. vol. 1(1/2) Chapter 3, pp. 25-36.
37. OCE The State of Energy Efficiency in Canada. Office of Energy Efficiency Report 2006
38. OIT Best Practices Case Study: Anchor Glass Container Cooperation Plant-Wide Energy Assessment Saves Electricity and Expenditures 2002 U.S. D.O.E
39. Olszewski, M. 1978. Use of Waste Heat from Nuclear Power Plants. In: DOE Environmental Control Symposium Washington, DC, November 14-16.
40. M. Olszewski, S.J. Hilenbrand, and S.A. Reed Waste Heat vs Conventional Systems for Greenhouse Environmental Control: An Economic Assessment 1976
41. J. Pearce Industrial symbiosis for very large scale photovoltaic manufacturing Renewable Energy 33 2008 1101 1108
42. J.M. Pearce, S.J. Johnson, B. Gabriel, and G.B. Grant 3D-Mapping optimization of embodied energy of transportation, resources Conservation and Recycling 51 2007 435 453 (Pubitemid 46734660)
43. J. Pellegrino, L. Sousa, and E. Levine Energy and Environtmental Profile of the U.S Glass Industry. Office of Industrial Technologies, Final Report 2002
44. Queen's University Live Building Data: Solar Irradiance 2009 Queen's Live Building Accessed at: http://livebuilding.queensu.ca/ (10.12.09)
45. D.A. Reay Industrial Energy Conservation: A Handbook for Engineers and Managers second ed. 1979 Pergamon Canada
46. Richards, B.E. 1980. Chapter 6. Waste-heat boilers for flat glass furnaces. In: Proceedings of the 40th conference on Glass Problems: Ceramic Engineering and Science Proceedings, vol. 1(1/2), pp. 50-58.
47. SaskPower, 2010 Shand Greenhouse. Accesed at: http://www.saskpower.com/ shandgreenhouse/, (02.01.10).
48. R.E.H. Sims Renewable energy: a response to climate change Solar Energy 76 2004 9 17 (Pubitemid 38047609)
49. Soave Enterprises Other Holdings - Diversified HoldingsSoave Enterprises Published at 2009 http://www.soave.com/core/diversified-great.php
50. Statistics Canada Greenhouse, Sod and Nursery Industries 2008 Statistics Canada Catalogue no. 22-202-XWE
51. N.H. Stern, and G.B. Treasury The Economics of Climate Change 2007 Cambridge University Press Cambridge, UK
52. A. Thumann Plant Engineers and Managers Guide to Energy Conservation 1977 Van Nostrand Reinhold Company New York
53. G. Tiwari Greenhouse Technology for Controlled Environment 2003 Alpha Science Int'l Ltd Pangbourne, UK
54. US EPA Compilation of air pollutant emission factors Stationary Point and Area Sources vol. 1 1995 AP42, Fifth ed.; Section 1.4
55. USDoE Building Technologies Program: Energy Plus Simulation Software Database 2009
56. S. Weseen The Economics of Waste Heat Utilization in Greenhouses 2001 CSALE Occasional Paper #12
57. World Bank Group Glass Manufacturing. Pollution Prevention and Abatement Handbook 1998
58. E. Worrell, C. Galitsky, E. Masanet, and W. Graus Energy Efficiency Improvement and Cost Saving Opportunities for the Glass Industry 2008 Berkeley National Laboratory
59. D.R. Wulfinghoff Energy Efficiency Manual 1999 Energy Institute Press Wheaton, Maryland
60. Y. Zhang, Y. Mahrer, and M. Margolin Predicting the microclimate inside a greenhouse: an application of a one-dimensional numerical model in an unheated greenhouse Agricultural and Forest Meteorology 86 3-4 1997 291 297 (Pubitemid 27456481)