Soil organic matter accounting in the carbon footprint analysis of the wine chain

  • Simona Bosco
  • Claudia Di Bene
  • Mariassunta Galli
  • Damiano Remorini
  • Rossano Massai
  • Enrico Bonari
LCA FOR AGRICULTURE

Abstract

Purpose

Concerns about global warming led to the calculation of the carbon footprint (CF) left by human activities. The agricultural sector is a significant source of greenhouse gas (GHG) emissions, though cropland soils can also act as sinks. So far, most LCA studies on agricultural products have not considered changes in soil organic matter (SOM). This paper aimed to: (1) integrate the Hénin–Dupuis SOM model into the CF study and (2) outline the impacts of different vineyard soil management scenarios on the overall CF.

Methods

A representative wine chain in the Maremma Rural District, Tuscany (Italy), made up of a cooperative winery and nine of its associated farms, was selected to investigate the production of a non-aged, high-quality red wine. The system boundary was established from vineyard planting to waste management after use. The functional unit (FU) chosen for this study was a 0.75-L bottle of wine, and all data refer to the year 2009. The SOM balance, based on Hénin–Dupuis’ equation, was integrated and run using GaBi4 software. A sensitivity analysis was performed, and four scenarios were developed to assess the impact of vineyard soil management types with decreasing levels of organic matter inputs.

Results and discussion

SOM accounting reduced the overall CF of one wine bottle from 0.663 to 0.531 kg CO2-eq/FU. The vineyard planting sub-phase produced a loss of SOM while, in the pre-production and production sub-phases, the loss/accumulation of SOM was related to the soil management practices. On average, soil management in the production sub-phase led to a net accumulation of SOM, and the overall vineyard phase was a sink of CO2. Residue incorporation and grassing were identified as the main factors affecting changes in SOM in vineyard soils.

Conclusions

Our results showed that incorporating SOM accounting into the wine chain’s CF analysis changed the vineyard phase from a GHG source to a modest net GHG sink. These results highlighted the need to include soil C dynamics in the CF of the agricultural product. Here, the SOM balance method proposed was sensitive to changes in management practices and was site specific. Moreover, we were also able to define a minimum data set for SOM accounting.

The EU recognises soil carbon sequestration as one of the major European strategies for mitigation. However, specific measures have yet to be included in the CAP 2020. It would be desirable to include soil in the new ISO 14067—Carbon Footprint of Products.

Keywords

Agriculture mitigation potential Food LCA Greenhouse gas emissions Soil organic matter model Vineyard soil management Wine 

References

  1. Andren O, Katterer T, Karlsson T (2004) ICBM regional model for estimations of dynamics of agricultural soil carbon pools. Nutr Cycl Agroecosys 70:231–239CrossRefGoogle Scholar
  2. Andriulo A, Mary B, Guerif J (1999) Modelling soil carbon dynamics with various cropping sequences on the rolling pampas. Agronomie 19:365–377CrossRefGoogle Scholar
  3. Aranda A, Scarpellini S, Zabalza I (2005) Economic and environmental analysis of the wine bottle production in Spain by means of life cycle assessment. Int J Agr Resour Govern Ecol 4:178–191Google Scholar
  4. Ardente F, Beccali G, Cellura M, Marvuglia A (2006) POEMS: a case study of an Italian wine-producing firm. Environ Manage 38:350–364CrossRefGoogle Scholar
  5. Avraamides M, Fatta D (2008) Resource consumption and emissions from olive oil production: a life cycle inventory case study in Cyprus. J Clean Prod 16:809–821CrossRefGoogle Scholar
  6. Bala A, Raugei M, Benveniste G, Gazulla C, Fullana-i-Palmer P (2010) Simplified tools for global warming potential evaluation: when ‘good enough’ is best. Int J Life Cycle Assess 15:489–498CrossRefGoogle Scholar
  7. Bayer C, Lovato T, Dieckow J, Zanatta J, Mielniczuk J (2006) A method for estimating coefficients of soil organic matter dynamics based on long-term experiments. Soil Till Res 91:217–226CrossRefGoogle Scholar
  8. Bechini L, Castoldi N (2009) On-farm monitoring of economic and environmental performances of cropping systems: results of a 2-year study at the field scale in northern Italy. Ecol Indic 9:1096–1113CrossRefGoogle Scholar
  9. Bechini L, Castoldi N, Stein A (2011) Sensitivity to information upscaling of agro-ecological assessments: application to soil organic carbon management. Agr Syst 104:480–490CrossRefGoogle Scholar
  10. Bertora C, Zavattaro L, Sacco D, Monaco S, Grignani C (2009) Soil organic matter dynamics and losses in manured maize-based forage systems. Eur J Agron 30:177–186CrossRefGoogle Scholar
  11. Bockstaller C, Girardin P (2003) Mode de Calcul des Indicateurs Agrienvironmentaux de la Methode INDIGO. Version 1.61 du Logiciel. Unpublished INRA Internal Technical Report, Colmar, FranceGoogle Scholar
  12. Bockstaller C, Guichard L, Makowski D, Aveline A, Girardin P, Plantureux S (2008) Agri-environmental indicators to assess cropping and farming systems. A review. Agron Sustain Dev 28:139–149CrossRefGoogle Scholar
  13. Boiffin J, Keli Zagbahi J, Sebillotte M (1986) Systèmes de culture et statut organique des sols dans le Noyonnais: application du modèle de Hénin–Dupuis. Agronomie 6:437–446CrossRefGoogle Scholar
  14. Bosco S, Di Bene C, Galli M, Remorini D, Massai R, Bonari E (2011) Greenhouse gas emissions in the agricultural phase of wine production in the Maremma rural district in Tuscany, Italy. Ita J Agron 6:93–100Google Scholar
  15. Brandão M, Milà I, Canals L, Clift R (2011) Soil organic carbon changes in the cultivation of energy crops: implications for GHG balances and soil quality for use in LCA. Biomass Bioenerg 35:2323–2336CrossRefGoogle Scholar
  16. Brentrup F, Kusters J, Kuhlmann H, Lammel J (2004) Environmental impact assessment of agricultural production systems using the life cycle assessment methodology: I. Theoretical concept of a LCA method tailored to crop production. Eur J Agron 20:265–279CrossRefGoogle Scholar
  17. BSI (2008) PAS 2050:2008—specification for the assessment of the life cycle greenhouse gas emissions of goods and services. BSI British Standards, LondonGoogle Scholar
  18. BSI (2011) PAS 2050:2011—specification for the assessment of the life cycle greenhouse gas emissions of goods and services. BSI British Standards, LondonGoogle Scholar
  19. Carlisle E, Smart D, Williams LE, Summers M (2010) California vineyard greenhouse gas emissions: assessment of the available literature and determination of research needs. California Sustainable Winegrowing Alliance. California, p 51, www.sustainablewinegrowing.org
  20. Coll P, Le Cadre E, Blanchart E, Hinsinger P, Villenave C (2011) Organic viticulture and soil quality: a long-term study in Southern France. Appl Soil Ecol 50:37–44Google Scholar
  21. Colman T, Päster P (2009) Red, white, and ‘green’: the cost of greenhouse gas emissions in the global wine trade. Journal of Wine Research 20:15–26CrossRefGoogle Scholar
  22. Cowell SJ, Clift R (1997) Impact assessment for LCAs involving agricultural production. Int J Life Cycle Ass 2:99–103CrossRefGoogle Scholar
  23. Cowell SJ, Clift R (2000) A methodology for assessing soil quantity and quality in life cycle assessment. J Clean Prod 8:321–331CrossRefGoogle Scholar
  24. Culley JLB (1993) Density and compressibility. In: Carter MR (ed) Soil sampling and methods of analysis. Louis, Boca Raton, pp 529–539Google Scholar
  25. Di Bene C, Tavarini S, Mazzoncini M, Angelini LG (2011) Changes in soil chemical parameters and organic matter balance after 13 years of ramie [Boehmeria nivea (L.) Gaud.] cultivation in the Mediterranean region. Eur J Agron 35:154–163CrossRefGoogle Scholar
  26. Drinkwater LE, Wagoner P, Sarrantonio M (1998) Legume-based cropping systems have reduced carbon and nitrogen losses. Nature 396:262–265CrossRefGoogle Scholar
  27. EC (2009) Climate change: Commission dishes the dirt on the importance of soil. EC Communication IP/09/353 Brussels, 5 March 2009, http://europa.eu/rapid/pressReleasesAction.do?reference=IP/09/353
  28. EcoInvent Centre (2007) EcoInvent data v2.0. Swiss Centre for Life Cycle Inventories, Dübendorf, SwitzerlandGoogle Scholar
  29. Feller C, Bernoux M (2008) Historical advances in the study of global terrestrial soil organic carbon sequestration. Waste Manage 28:734–740CrossRefGoogle Scholar
  30. Finkbeiner M (2009) Carbon footprinting-opportunities and threats. Int J Life Cycle Assess 14:91–94CrossRefGoogle Scholar
  31. Forsyth K, Oemcke D (2008) International Wine Carbon Calculator Protocol Version 1.2. Provisor Pty Ltd and Yalumba Wines, Hartley Grove, Urrbrae, SA, 5064, Australia p. 152. www.wfa.org.au/PDF/International_Wine_Carbon_Calculator_ProtocolV1.2.pdf
  32. Fregoni M (1989) La viticoltura biologica: basi scientifiche e prospettive. Vignevinin 12:7–12Google Scholar
  33. GaBi4 (2007a). GaBi 4 software. http://gabi-software.com
  34. GaBi4 (2007b) GaBi professional database. http://documentation.gabi-software.com
  35. Gazulla C, Raugei M, Fullana-i-Palmer P (2010) Taking a life cycle look at crianza wine production in Spain: where are the bottlenecks? Int J Life Cycle Assess 15:330–337CrossRefGoogle Scholar
  36. Guinée JB, Gorree M, Heijungs R, Huppes G, Kleijn R, Udo de Haes HA, Van der Voet E, Wrisberg MN (2002) Life cycle assessment. An operational Guide to ISO Standards, vol 1–3. Centre of Environmental Science Leiden University Ed, The NetherlandsGoogle Scholar
  37. Hass G, Wetterich F, Geier U (2000) Life cycle assessment framework in agriculture on farm level. Int J Life Cycle Assess 5:345–348CrossRefGoogle Scholar
  38. Hayes P, Battaglene T (2006) Regulatory Response to climate change. Le Bulletin de L’OIV. Organisation Internationale de La Vigne et du Vigne 79:697–708Google Scholar
  39. Hénin S, Dupuis M (1945) Essai de bilan de la matière organique du sol. Ann Agron 15:17–19Google Scholar
  40. Hillier J, Hawes C, Squire G, Hilton A, Wale S, Smith P (2009a) The carbon footprints of food crop production. Int J Agric Sustain 7:107–118CrossRefGoogle Scholar
  41. Hillier J, Whittaker C, Dailey G, Aylott M, Casella E, Gm R, Riche A, Murphy R, Taylor G, Smith P (2009b) Greenhouse gas emissions from four bioenergy crops in England and Wales: integrating spatial estimates of yield and soil carbon balance in life cycle analyses. GCB Bioenergy 1:267–281CrossRefGoogle Scholar
  42. IPCC (2006) Prepared by the National Greenhouse Gas Inventories Programme. In: Eggleston HS, Buendia L, Miwa K, Ngara T, Tanabe K (eds) IPCC guidelines for national greenhouse gas inventories. IGES, JapanGoogle Scholar
  43. Janssens IA, Freibauer A, Ciais P, Smith P, Nabuurs GJ, Folberth G, Schlamadinger B, Hutjes RWA, Ceulemans R, Schulze ED, Valentini R, Dolman AJ (2003) Europe’s terrestrial biosphere absorbs 7 to 12 % of European anthropogenic CO2 emissions. Science 300:1538–1542CrossRefGoogle Scholar
  44. Jenkinson DS (1990) The turnover of organic-carbon and nitrogen in soil. Philos T Roy Soc B 329:361–368CrossRefGoogle Scholar
  45. Jenkinson DS, Rayner JH (1977) The turnover of soil organic matter in some of the Rothamsted classical experiments. Soil Sci 123:298–305Google Scholar
  46. Keightley KE (2011) Applying new methods for estimating in vivo vineyard carbon storage. Am J Enol Viticult 62:2Google Scholar
  47. Kemanian AR, Manoranjan VS, Huggins DR, Stöckle CO (2005) Assessing the usefulness of simple mathematical models to describe soil carbon dynamics. Third USDA Symposium on Greenhouse Gases and Carbon Sequestration in Agriculture and Forestry, BaltimoreGoogle Scholar
  48. Koerber GR, Edwards-Jones G, Hill PW, Milà I, Canals L, Nyeko P, York EH, Jones DL (2009) Geographical variation in carbon dioxide fluxes from soils in agro-ecosystems and its implications for life-cycle assessment. J Appl Ecol 46:306–314CrossRefGoogle Scholar
  49. Kroodsma DA, Field CB (2006) Carbon sequestration in California agriculture, 1980–2000 Ecol Appl 16:1975–1985Google Scholar
  50. Lal R (2004) Soil carbon sequestration impacts on global climate change and food security. Science 304:1623–1627CrossRefGoogle Scholar
  51. Lal R (2008) Carbon sequestration. Philos T Roy Soc B 363:815–830CrossRefGoogle Scholar
  52. Li C, Frolking S, Frolking TA (1992a) A model of nitrous oxide evolution from soil driven by rainfall events: 1. Model structure and sensitivity. J Geophys Res 97:9759–9776CrossRefGoogle Scholar
  53. Li C, Frolking S, Frolking TA (1992b) A model of nitrous oxide evolution from soil driven by rainfall events: 2. Model applications. J Geophys Res 97:9777–9783CrossRefGoogle Scholar
  54. Loveland P, Webb J (2003) Is there a critical level of organic matter in the agricultural soils of temperate regions: a review. Soil Till Res 70:1–18CrossRefGoogle Scholar
  55. Manlay RJ, Feller C, Swift MJ (2007) Historical evolution of soil organic matter concepts and their relationships with the fertility and sustainability of cropping systems. Agr Ecosyst Environ 119:217–233CrossRefGoogle Scholar
  56. Mary B, Guérif J (1994) Intérêts et limites des modèles de prevision de l’évolution des matières organiques et de l’azote dans le sol. Cah Agric 3:247–257Google Scholar
  57. Mathews A (2011) Post-2013 EU Common Agricultural Policy, Trade and Development: A Review of LegislativeProposals”; ICTSD Programme on Agricultural Trade and Sustainable Development; Issue Paper No.39; International Centre for Trade and Sustainable Development, Geneva, Switzerland, www.ictsd.org
  58. Meisterling K, Samaras C, Schweizer V (2009) Decisions to reduce greenhouse gases from agriculture and product transport: LCA case study of organic and conventional wheat. J Clean Prod 17:222–230CrossRefGoogle Scholar
  59. Milà I, Canals L, Burnip GM, Cowell SJ (2006) Evaluation of the environmental impacts of apple production using life cycle assessment (LCA): case study in New Zealand. Agr Ecosyst Environ 114:226–238CrossRefGoogle Scholar
  60. Milà I, Canals L, Romanya J, Cowell S (2007) Method for assessing impacts on life support functions (LSF) related to the use of “fertile land” in life cycle assessment (LCA). J Clean Prod 15:1426–1440CrossRefGoogle Scholar
  61. Morlat R, Chaussod R (2008) Long-term additions of organic amendments in a Loire Valley Vineyard. Effects on properties of a calcareous sandy soil. Am J Enol Viticult 59:353–363Google Scholar
  62. Mourad AL, Coltro L, Oliveira PAPLV, Kletecke RM, Baddini JPO (2007) A simple methodology for elaborating the life cycle inventory of agricultural products. Int J Life Cycle Assess 12:408–413Google Scholar
  63. Müller-Wenk R, Brandão M (2010) Climatic impact of land use in LCA—carbon transfers between vegetation/soil and air. Int J Life Cycle Assess 15:172–182CrossRefGoogle Scholar
  64. Nelson DW, Sommers LE (1982) Total carbon, organic carbon and organic matter. In: Page AL, Miller RH, Keeney DR (eds) Methods of soil analysis, Part 2, Chemical and microbiological properties, Secondth edn. Agronomy Monograph 9, American Society of Agronomy, Madison, WI, pp 539–579Google Scholar
  65. Nemecek T, Erzinger S (2005) Modelling representative life cycle inventories for Swiss arable crops. Int J Life Cycle Assess 10:1–9CrossRefGoogle Scholar
  66. Nemecek T, Dubois D, Huguenin-Elie O, Gaillard G (2011) Life cycle assessment of Swiss farming systems: I. Integrated and organic farming. Agr Syst 104:217–232CrossRefGoogle Scholar
  67. Notarnicola B, Tassielli G, Nicoletti M (2003) LCA of wine production. In: Mattsonn B, Sonesson U (eds) Environmentally-friendly food processing. Woodhead, Cambridge, pp 306–326CrossRefGoogle Scholar
  68. Parat C, Chaussod R, Leveque J, Dousset S, Andreux F (2002) The relationship between copper accumulation in vineyard calcareous soils and soil organic matter and iron. Eur J Soil Sci 53:663–669CrossRefGoogle Scholar
  69. Parton WJ, Schimel DS, Cole CV, Ojima DS (1987) Analysis of factors controlling soil organic matter levels in Great Plains grasslands. Soil Sci Soc Am J 51:1173–1179CrossRefGoogle Scholar
  70. Petti L, Ardente F, Bosco S, De Camillis C, Masotti P, Pattara P, Raggi A, Tassielli G (2010) State of the art of Life Cycle Assessment (LCA) in the wine industry. 7th International Conference on Life Cycle Assessment in the agri-food sector”, Bari, Italy, September 22–24 2010, pp 493–498Google Scholar
  71. Pittock B, Arthington A, Booth T, Cowell P, Hennesy K, Howden M, Hughes L, Jones R, Lake S, Lyne V, McMichael T, Mullet T, Nicholls N, Torok S, Woodruf R (2003) Climate change: an Australian guide to the science and potential impacts. Australian Greenhouse Oice, Canberra, p 239Google Scholar
  72. Pizzigallo CI, Granai C, Borsa S (2008) The joint use of LCA and energy evaluation for the analysis of two Italian wine farms. J Environ Manage 86:396–406CrossRefGoogle Scholar
  73. Point EV (2008) Life cycle environmental impacts of wine production and consumption in Nova Scotia. MSc Thesis, Dalhousie University Halifax, Nova Scotia, CanadaGoogle Scholar
  74. Ponsioen TC, Blonk TJ (2011) Calculating land use change in carbon footprints of agricultural products as an impact of current land use. J Clean Prod Available online 21 October 2011Google Scholar
  75. Reap J, Roman F, Duncan S, Bras B (2008) A survey of unresolved problems in life cycle assessment. Int J Life Cycle Assess 13:374–388CrossRefGoogle Scholar
  76. Robertson GP, Paul EA, Harwood RR (2000) Greenhouse gases in intensive agriculture: contributions of individual gases to the radiative forcing of the atmosphere. Science 289:1922–1925CrossRefGoogle Scholar
  77. Röös E, Sundberg C, Hansson PA (2000) Uncertainties in the carbon footprint of food products: a case study on table potatoes. Int J Life Cycle Assess 15:478–488CrossRefGoogle Scholar
  78. Roy P, Nei D, Orikasa T, Xu Q, Okadome H, Nakamura N, Shiina T (2009) A review of life cycle assessment (LCA) on some food products. J Food Eng 90:1–10CrossRefGoogle Scholar
  79. Sinden G (2009) The contribution of PAS 2050 to the evolution of international greenhouse gas emission standards. Int J Life Cycle Assess 14:195–203CrossRefGoogle Scholar
  80. Smith P, Martino D, Cai Z, Gwary D, Janzen H, Kumar P, McCarl B, Ogle S, O'Mara F, Rice C, Scholes B, Sirotenko O, Howden M, McAllister T, Pan G, Romanenkov V, Schneider U, Towprayoon S, Wattenbach M, Smith J (2008) Greenhouse gas mitigation in agriculture. Philos T Roy Soc B 363:789–813CrossRefGoogle Scholar
  81. Sofo A, Nuzzo V, Palese AM, Xiloyannis C, Celano G, Zukowskyj P, Dichio B (2005) Net CO2 storage in Mediterranean olive and peach orchards. Sci Hortic 107:17–24CrossRefGoogle Scholar
  82. Soil Survey Staff (1975) Soil taxonomy: a basic system of soil classification for making and interpreting soil surveys. USDA-SCS Agric. Handb. 436. U.S. Gov. Print. Office, Washington, DCGoogle Scholar
  83. Soja G, Zehetner F, Rampazzo–Todorovic G, Schildberger B, Hackl K, Hofmann R, Burger E, Omann I (2010) Wine production under climate change conditions: mitigation and adaptation options from the vineyard to the sales booth. 9th European IFSA Symposium, 4–7 July 2010, Vienna (Austria) Proceeding pp 1368–1378. Proceedings Edited by: Ika Darnhofer and Michaela Grötzer Vienna, July 2010 University of Natural Resources and Applied Life Sciences, Vienna ISBN 9783200019089Google Scholar
  84. Steenwerth K, Belina KM (2008) Cover crops enhance soil organic matter, carbon dynamics and microbiological function in a vineyard agroecosystem. Appl Soil Ecol 40:359–369CrossRefGoogle Scholar
  85. Webb LB, Whetton PH, Barlow EWR (2007) Impact on Australian Viticulture from Greenhouse Induced Temperature Change. In: Zerger A, Argent RM (eds) MODSIM 2005 International Congress on Modelling and Simulation. Modelling and Simulation Society of Australia and New Zealand, pp 1504–1510Google Scholar
  86. Weidema BP, Thrane M, Christensen P, Schmidt J, Løkke S (2008) Carbon footprint: a catalyst for life cycle assessment? J Ind Ecol 12:3–6CrossRefGoogle Scholar
  87. Wiedmann T (2009) Editorial: carbon footprint and input–output analysis—an introduction. Econ Syst Res 21:175–186CrossRefGoogle Scholar
  88. Wright LA, Kemp S, Williams I (2011) ‘Carbon footprinting’: towards a universally accepted definition. Carbon Management 2:61–72CrossRefGoogle Scholar

Copyright information

© Springer-Verlag Berlin Heidelberg 2013

Authors and Affiliations

  • Simona Bosco
    • 1
  • Claudia Di Bene
    • 1
  • Mariassunta Galli
    • 1
  • Damiano Remorini
    • 2
  • Rossano Massai
    • 2
  • Enrico Bonari
    • 1
  1. 1.Institute of Life SciencesScuola Superiore Sant’AnnaPisaItaly
  2. 2.Department of Agriculture, Food and Environment (DAFE)University of PisaPisaItaly

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