30,886
Views
30
CrossRef citations to date
0
Altmetric
Original Articles

Heat Recovery from Composting: A Comprehensive Review of System Design, Recovery Rate, and Utilization

ORCID Icon, ORCID Icon & ORCID Icon

References

  • Adams, Z. 2005. Understanding biothermal energy. Master's thesis, University of Vermont, Burlington.
  • Allain, C. 2007. Energy recovery at biosolids composting facility. BioCycle 48:50–53.
  • Alwell, A. 2014. Innovative system uses composting process to heat high tunnel. Organic Broadcaster 22:5.
  • Anon. 1991. Compost preheats water. BioCycle 32:20.
  • Aquatias, P. 1913. Intensive cultivation of vegetables on the French system. London: Upcott Gill.
  • Beck, D., K. Soyez, M. Prause, and K. Fieback. 1992. A combined process for fast composting, biotechnological CO2 production, and utilization of heat loss for horticulture. Acta Horticulturae 302:257–77.
  • Brown, G. 2014. The compost-powered water heater. Woodstock: The Countryman Press.
  • Brown, G. 2015. Heat recovery, food production at Boston composting facility. BioCycle 56:39–40.
  • Chambers, D. P. 2009. The design and development of heat extraction technologies for the utilization of compost thermal energy. Master's thesis, Galway Mayo Institute of Technology, Galway.
  • Day, D. 2014. Reusing more, using less. Treatment Plant Operator October:42–44.
  • Di Maria, F., M. Benavoli, and M. Zoppitelli. 2008. Thermodynamic analysis of the energy recovery from the aerobic bioconversion of solid urban waste organic fraction. Waste Manage 28:805–12.
  • Fulford, B. 1983. Biothermal energy: Cogenerants of thermophylic composting and their integration within food producing and waste recycling systems. In Composting of solid wastes and slurries, ed. E. S. Leeds, 1–19. England: University of Leeds.
  • Fulford, B. 1986. The composting greenhouse at New Alchemy Institute: A report on two years of operation and monitoring. Research Report 3. Cape Code, MA: New Alchemy Institute.
  • Gilson, C. 2009. Designing a compost-heated greenhouse to foster sustainable food security. Undergraduate Thesis, The University of Waterloo, Waterloo.
  • Gnanaraj, R. A. 2012. Energy recovery from Sugarcane Press mud. Asian Journal of Scientific Research 5:185–95.
  • Greer, L., and S. Diver. 2000. Organic greenhouse vegetable production. Research Report IPO78. Butte, MT: NCAT.
  • Haug, R. T. 1993. The practical handbook of compost engineering. Boca Raton: CRC Press.
  • Hong, J. H., K. J. Park, and B. K. Sohn. 1997. Effect of composting heat from intermittent aerated static pile on the elevation of underground temperature. Applied Engineering in Agriculture 13:679–83.
  • Irvine, G., E. R. Lamont, and B. Antizar-Ladislao. 2010. Energy from waste: Reuse of compost heat as a source of renewable energy. International Journal of Chemical Engineering 2010:1–10.
  • Jaccard, L., P. Lehmann, M. Civilini, and M. de Bertoldi. 1993. Yard waste composting with heat recovery. Compost Science And Utilization 1:10–14.
  • Knapp, D. 1978. Composting in a solar greenhouse for CO2 and heat. In The solar greenhouse book, ed. J. C. McCullagh, 287–92. Emmarus: Rodale Press.
  • Kostov, O., Y. Tzvetkov, N. Kaloianova, and O. V. Cleemput. 1995. Cucumber cultivation on some wastes during their aerobic composting. Bioresource Technology 53:237–42.
  • Li, H., D. Yu, and Y. Yu. 2012. A preliminary study of an innovative biomass waste aerobic degradation system for hot water heating. In Material challenges in alternative and renewable energy II: Ceramic transactions, ed. G. Wicks, J. Simon, R. Zidan, R. Brigmon, G. S. Fischman, S. Arepalli, A. Norris, and M. McCluer, vol. 239, 69–77. Hoboken, NJ: John Wiley & Sons.
  • Loughton, A. 1977. Straw-bale culture of greenhouse crops. In Controlled environment agriculture, ed. M. H. Jensen, 208–15. Tuscon, AZ: University of Arizona.
  • Pain, I., and J. Pain. 1972. The methods of jean pain: Another kind of garden. Draguignan: Ancienne Imprimerie NEGRO.
  • Quinn, S., S. Quinn, and B. Jerose. 2014. Sunset view farm composting and thermal energy system. NYSERDA Project # 10819 Final Report. New York: Agrilab Technologies.
  • Rada, E. C., M. Ragazzi, S. Villotti, and V. Torretta. 2014. Sewage sludge drying by energy recovery from OFMSW composting: preliminary feasibility evaluation. Waste Manage 34:859–66.
  • Schonbeck, M. 1989. Composting greenhouse update. New Alchemy Quarterly 36:16–17.
  • Schuchardt, F. 1984. Heat loss during composting of sawtimber. Landbauforschung Völkenrode 34:189–95.
  • Seki, H. 1989. An investigation of practical process design and control of a soil warming system with heat generated in compost. Journal Agricultural Meteorology 44:259–67.
  • Seki, H., S. Kiyose, and S. Sakida. 2014. An experimental system for the recovery, accumulation, and utilization of heat generated by bamboo chip biodegradation using a small scale apparatus. Journal Agricultural Meteorology 70:1–11.
  • Seki, H., and T. Komori. 1992. Packed-column-type heating tower for recovery of heat generated in compost. Journal Agricultural Meteorology 48:237–46.
  • Seki, H., and T. Komori. 1995. Experiment of heat recovery from compost by a trial heat exchanger. Acta Hort 399:167–74.
  • Smith, M. M. 2016. Creating an economically viable, closed-system, energy-independent dairy farm through the on-farm production of animal bedding and heat capture from an aerated static pile heat recovery composting operation. PhD diss, University of New Hampshire, Durham.
  • Smith, M. M., and J. D. Aber. 2014. Heat recovery from compost. BioCycle 55:27–29.
  • Thostrup, P. 1985. Heat recovery from composting solid manure. In Composting of agricultural and other wastes, ed. J. R. K. Gasser, 167–80. London: Elsevier Applied Science Publishers.
  • Tucker, M. F. 2006. Extracting thermal energy from composting. BioCycle 47:38.
  • Vemmelund, N., and L. Berthelsen. 1979. A note on heat recovery from mechanically aerated farm-yard manure. Agric. Waste 1:157–60.
  • Verougstraete, A., E. J. Nyns, and H. P. Naveau. 1985. Heat recovery from composting and comparison with energy from anaerobic digestion. In Composting of agricultural and other wastes, ed. J. R. K. Gasser, 135–46. London: Elsevier Applied Science Publishers.
  • Viel, M., D. Sayag, A. Peyre, and L. Andre. 1987. Optimization of in-vessel co-composting through heat recovery. Biol Waste 20:167–85.
  • White, J. W. 1982. Letters to the editor. BioThermal Update Report 1. Portland, ME: BioThermal Energy Center.
  • Winship, E. A. N., D. Holmes, and D. Notion. 2008. Combined heat and composting. In Moving organic waste recycling toward resource management and biobased economy; Orbit 6th International Conference, ed. L. Rodic-Wiersma, J. Barth, I. Habil. W. Bidlingmaier, M. de Bertoldi, and L. F. Diaz, 1451–63. Wageningen, Netherlands: Orbit.