Accounting for biodiversity in life cycle impact assessments of forestry and agricultural systems-the BioImpact metric

被引:15
作者
Turner, Perpetua A. M. [1 ,2 ]
Ximenes, Fabiano A. [3 ]
Penman, Trent D. [4 ]
Law, Bradley S. [3 ]
Waters, Cathleen M. [5 ]
Grant, Timothy [6 ]
Mo, Matthew [7 ]
Brock, Philippa M. [8 ]
机构
[1] Univ Tasmania, Hobart, Tas, Australia
[2] Forest Practices Author, Hobart, Tas, Australia
[3] New South Wales Dept Primary Ind, Parramatta, NSW, Australia
[4] Univ Melbourne, Creswick, Vic, Australia
[5] New South Wales Dept Primary Ind, Orange, NSW, Australia
[6] Life Cycle Strategies, Melbourne, Vic, Australia
[7] Off Environm & Heritage, Haymarket, NSW, Australia
[8] New South Wales Dept Primary Ind, Taylors Beach, NSW, Australia
关键词
Biodiversity; BioImpact; Cropping and rangeland grazing; Ecosystem diversity; Native forestry; Plantation softwood timber production; LAND-USE IMPACTS; AUSTRALIAN SOFTWOOD PLANTATIONS; TO-GATE INVENTORY; BIOLOGICAL DIVERSITY; ECOSYSTEM SERVICES; SPECIES RICHNESS; GLOBAL PATTERNS; WOOD PRODUCTION; PLANT; CONSERVATION;
D O I
10.1007/s11367-019-01627-5
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Purpose Life cycle assessment (LCA) is a useful method for assessing environmental impacts at large scales. Biodiversity and ecosystem diversity are site-specific, often complex, and difficult to generalise within an LCA framework. There is currently no globally acceptable means of assessing biodiversity within the LCA framework. We introduce, test and revise BioImpact, a method for incorporating biodiversity into an LCA framework, on four production systems (native forestry, plantation softwood timber production, cropping and rangeland grazing) in Australia. Methods Our proposed method, a metric we call BioImpact, incorporates biodiversity and ecological impacts through a series of semi-quantitative questions, published data and expert opinion which aim to encapsulate the main issues relating to biodiversity within a disturbance impact framework appropriate to LCA. Results are scaled to a single biodiversity measure that can be incorporated into LCA. We test and revise BioImpact scores on four production systems (native forestry, plantation softwood timber production, cropping and rangeland grazing) in comparison to species richness and net primary productivity (NPP) for these production systems. We demonstrate how the scores can be incorporated into LCA using SimaPro as a platform. Results and discussion For pine plantation, cropping/pastures and rangeland grazing, BioImpact demonstrated greater impact, which represents biodiversity loss for multiple species groups. Native forestry scored significantly lower impact than that of other land uses. As a comparison, all production processes scored highly for species richness of main multiple species groups (vascular plants, invertebrates, birds) and were not different in terms of NPP. Integration of BioImpact into LCA found that the softwood system, despite having a higher biodiversity impact per ha year, had a marginally lower BioImpact score per cubic metre compared to native forestry. This was possibly due to cumulative effects and consideration of the reference benchmark, e.g., low levels of pre-harvest biodiversity when not established on native forests; fewer threatened species (and lesser impact) compared to native forestry; questions not weighted sufficiently; and the difference between establishment on either agricultural cleared land or native forest area. Improvement in scaling and/or weighting within the BioImpact scores within each question is discussed. Conclusions BioImpact encapsulates different components of biodiversity, is transparent, easily applied (subject to literature/ecological experts) and can be incorporated into LCA. Application of BioImpact for LCA requires co-ordination to identify key regions and production systems; develop the relevant scores with the assistance of ecologists; and make the results available in public LCA databases.
引用
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页码:1985 / 2007
页数:23
相关论文
共 113 条
  • [91] A proposal for accounting for biodiversity in life cycle assessment
    Penman, Trent D.
    Law, Brad S.
    Ximenes, Fabiano
    [J]. BIODIVERSITY AND CONSERVATION, 2010, 19 (11) : 3245 - 3254
  • [92] BEYOND OPPORTUNISM - KEY PRINCIPLES FOR SYSTEMATIC RESERVE SELECTION
    PRESSEY, RL
    HUMPHRIES, CJ
    MARGULES, CR
    VANEWRIGHT, RI
    WILLIAMS, PH
    [J]. TRENDS IN ECOLOGY & EVOLUTION, 1993, 8 (04) : 124 - 128
  • [93] Prober SM, 2017, RANGELAND J, V39, P477, DOI [10.1071/RJ17069, 10.1071/rj17069]
  • [94] Usefulness of the umbrella species concept as a conservation tool
    Roberge, JM
    Angelstam, P
    [J]. CONSERVATION BIOLOGY, 2004, 18 (01) : 76 - 85
  • [95] Capturing the potential biodiversity effects of forestry practices in life cycle assessment
    Rossi, Vincent
    Lehesvirta, Timo
    Schenker, Urs
    Lundquist, Lars
    Koski, Oona
    Gueye, Sokhna
    Taylor, Robert
    Humbert, Sebastien
    [J]. INTERNATIONAL JOURNAL OF LIFE CYCLE ASSESSMENT, 2018, 23 (06) : 1192 - 1200
  • [96] Long-term community change: bryophytes are more responsive than vascular plants to nitrogen deposition and warming
    Scarpitta, Antoine Becker
    Bardat, Jacques
    Lalanne, Arnault
    Vellend, Mark
    [J]. JOURNAL OF VEGETATION SCIENCE, 2017, 28 (06) : 1220 - 1229
  • [97] Schneider DC, 2001, BIOSCIENCE, V51, P545, DOI 10.1641/0006-3568(2001)051[0545:TROTCO]2.0.CO
  • [98] 2
  • [99] Schwenke GD, 2018, SOIL RES, V56, P724, DOI [10.1071/SR18108, 10.1071/sr18108]
  • [100] Spatial landscape model to characterize biological diversity using R statistical computing environment
    Singh, Hariom
    Garg, R. D.
    Karnatak, Harish C.
    Roy, Arijit
    [J]. JOURNAL OF ENVIRONMENTAL MANAGEMENT, 2018, 206 : 1211 - 1223