The effect of increasing lifespan and recycling rate on carbon storage in wood products from theoretical model to application for the European wood sector

The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature, we identified longevity and recycling rate as two determining factors that influence the carbon stock in wood products, but no studies have pr...

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Veröffentlicht in:Mitigation and adaptation strategies for global change Jg. 22; H. 8; S. 1193 - 1205
Hauptverfasser: Brunet-Navarro, Pau, Jochheim, Hubert, Muys, Bart
Format: Journal Article
Sprache:Englisch
Veröffentlicht: Dordrecht Springer Netherlands 01.12.2017
Springer Nature B.V
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ISSN:1381-2386, 1573-1596, 1573-1596
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Abstract The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature, we identified longevity and recycling rate as two determining factors that influence the carbon stock in wood products, but no studies have predicted the effect of improved wood use on carbon storage over time. In this study, we aimed at evaluating changes in the lifespan and the recycling rate as two options for enhancing carbon stock in wood products for different time horizons. We first explored the behaviour over time of both factors in a theoretical simulation, and then calculated their effect for the European wood sector of the future. The theoretical simulation shows that the carbon stock in wood products increases linearly when increasing the average lifespan of wood products and exponentially when improving the recycling rate. The emissions savings under the current use of wood products in Europe in 2030 were estimated at 57.65 Mt carbon dioxide (CO 2 ) per year. This amount could be increased 5 Mt CO 2 if average lifespan increased 19.54 % or if recycling rate increased 20.92 % in 2017. However, the combination of both strategies could increase the emissions saving almost 5 Mt CO 2 more by 2030. Incrementing recycling rate of paper and paperboard is the best short-term strategy (2030) to reduce emissions, but elongating average lifespan of wood-based panels is a better strategy for longer term periods (2046).
AbstractList The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature, we identified longevity and recycling rate as two determining factors that influence the carbon stock in wood products, but no studies have predicted the effect of improved wood use on carbon storage over time. In this study, we aimed at evaluating changes in the lifespan and the recycling rate as two options for enhancing carbon stock in wood products for different time horizons. We first explored the behaviour over time of both factors in a theoretical simulation, and then calculated their effect for the European wood sector of the future. The theoretical simulation shows that the carbon stock in wood products increases linearly when increasing the average lifespan of wood products and exponentially when improving the recycling rate. The emissions savings under the current use of wood products in Europe in 2030 were estimated at 57.65 Mt carbon dioxide (CO2) per year. This amount could be increased 5 Mt CO2 if average lifespan increased 19.54 % or if recycling rate increased 20.92 % in 2017. However, the combination of both strategies could increase the emissions saving almost 5 Mt CO2 more by 2030. Incrementing recycling rate of paper and paperboard is the best short-term strategy (2030) to reduce emissions, but elongating average lifespan of wood-based panels is a better strategy for longer term periods (2046).
The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature, we identified longevity and recycling rate as two determining factors that influence the carbon stock in wood products, but no studies have predicted the effect of improved wood use on carbon storage over time. In this study, we aimed at evaluating changes in the lifespan and the recycling rate as two options for enhancing carbon stock in wood products for different time horizons. We first explored the behaviour over time of both factors in a theoretical simulation, and then calculated their effect for the European wood sector of the future. The theoretical simulation shows that the carbon stock in wood products increases linearly when increasing the average lifespan of wood products and exponentially when improving the recycling rate. The emissions savings under the current use of wood products in Europe in 2030 were estimated at 57.65 Mt carbon dioxide (CO₂) per year. This amount could be increased 5 Mt CO₂ if average lifespan increased 19.54 % or if recycling rate increased 20.92 % in 2017. However, the combination of both strategies could increase the emissions saving almost 5 Mt CO₂ more by 2030. Incrementing recycling rate of paper and paperboard is the best short-term strategy (2030) to reduce emissions, but elongating average lifespan of wood-based panels is a better strategy for longer term periods (2046).
The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature, we identified longevity and recycling rate as two determining factors that influence the carbon stock in wood products, but no studies have predicted the effect of improved wood use on carbon storage over time. In this study, we aimed at evaluating changes in the lifespan and the recycling rate as two options for enhancing carbon stock in wood products for different time horizons. We first explored the behaviour over time of both factors in a theoretical simulation, and then calculated their effect for the European wood sector of the future. The theoretical simulation shows that the carbon stock in wood products increases linearly when increasing the average lifespan of wood products and exponentially when improving the recycling rate. The emissions savings under the current use of wood products in Europe in 2030 were estimated at 57.65 Mt carbon dioxide (CO ) per year. This amount could be increased 5 Mt CO if average lifespan increased 19.54 % or if recycling rate increased 20.92 % in 2017. However, the combination of both strategies could increase the emissions saving almost 5 Mt CO more by 2030. Incrementing recycling rate of paper and paperboard is the best short-term strategy (2030) to reduce emissions, but elongating average lifespan of wood-based panels is a better strategy for longer term periods (2046).
The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature, we identified longevity and recycling rate as two determining factors that influence the carbon stock in wood products, but no studies have predicted the effect of improved wood use on carbon storage over time. In this study, we aimed at evaluating changes in the lifespan and the recycling rate as two options for enhancing carbon stock in wood products for different time horizons. We first explored the behaviour over time of both factors in a theoretical simulation, and then calculated their effect for the European wood sector of the future. The theoretical simulation shows that the carbon stock in wood products increases linearly when increasing the average lifespan of wood products and exponentially when improving the recycling rate. The emissions savings under the current use of wood products in Europe in 2030 were estimated at 57.65 Mt carbon dioxide (CO 2 ) per year. This amount could be increased 5 Mt CO 2 if average lifespan increased 19.54 % or if recycling rate increased 20.92 % in 2017. However, the combination of both strategies could increase the emissions saving almost 5 Mt CO 2 more by 2030. Incrementing recycling rate of paper and paperboard is the best short-term strategy (2030) to reduce emissions, but elongating average lifespan of wood-based panels is a better strategy for longer term periods (2046).
The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature, we identified longevity and recycling rate as two determining factors that influence the carbon stock in wood products, but no studies have predicted the effect of improved wood use on carbon storage over time. In this study, we aimed at evaluating changes in the lifespan and the recycling rate as two options for enhancing carbon stock in wood products for different time horizons. We first explored the behaviour over time of both factors in a theoretical simulation, and then calculated their effect for the European wood sector of the future. The theoretical simulation shows that the carbon stock in wood products increases linearly when increasing the average lifespan of wood products and exponentially when improving the recycling rate. The emissions savings under the current use of wood products in Europe in 2030 were estimated at 57.65 Mt carbon dioxide (CO2) per year. This amount could be increased 5 Mt CO2 if average lifespan increased 19.54 % or if recycling rate increased 20.92 % in 2017. However, the combination of both strategies could increase the emissions saving almost 5 Mt CO2 more by 2030. Incrementing recycling rate of paper and paperboard is the best short-term strategy (2030) to reduce emissions, but elongating average lifespan of wood-based panels is a better strategy for longer term periods (2046).The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature, we identified longevity and recycling rate as two determining factors that influence the carbon stock in wood products, but no studies have predicted the effect of improved wood use on carbon storage over time. In this study, we aimed at evaluating changes in the lifespan and the recycling rate as two options for enhancing carbon stock in wood products for different time horizons. We first explored the behaviour over time of both factors in a theoretical simulation, and then calculated their effect for the European wood sector of the future. The theoretical simulation shows that the carbon stock in wood products increases linearly when increasing the average lifespan of wood products and exponentially when improving the recycling rate. The emissions savings under the current use of wood products in Europe in 2030 were estimated at 57.65 Mt carbon dioxide (CO2) per year. This amount could be increased 5 Mt CO2 if average lifespan increased 19.54 % or if recycling rate increased 20.92 % in 2017. However, the combination of both strategies could increase the emissions saving almost 5 Mt CO2 more by 2030. Incrementing recycling rate of paper and paperboard is the best short-term strategy (2030) to reduce emissions, but elongating average lifespan of wood-based panels is a better strategy for longer term periods (2046).
The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature, we identified longevity and recycling rate as two determining factors that influence the carbon stock in wood products, but no studies have predicted the effect of improved wood use on carbon storage over time. In this study, we aimed at evaluating changes in the lifespan and the recycling rate as two options for enhancing carbon stock in wood products for different time horizons. We first explored the behaviour over time of both factors in a theoretical simulation, and then calculated their effect for the European wood sector of the future. The theoretical simulation shows that the carbon stock in wood products increases linearly when increasing the average lifespan of wood products and exponentially when improving the recycling rate. The emissions savings under the current use of wood products in Europe in 2030 were estimated at 57.65 Mt carbon dioxide (CO2) per year. This amount could be increased 5 Mt CO2 if average lifespan increased 19.54 % or if recycling rate increased 20.92 % in 2017. However, the combination of both strategies could increase the emissions saving almost 5 Mt CO2 more by 2030. Incrementing recycling rate of paper and paperboard is the best short-term strategy (2030) to reduce emissions, but elongating average lifespan of wood-based panels is a better strategy for longer term periods (2046).
Author Jochheim, Hubert
Brunet-Navarro, Pau
Muys, Bart
Author_xml – sequence: 1
  givenname: Pau
  orcidid: 0000-0001-9615-4810
  surname: Brunet-Navarro
  fullname: Brunet-Navarro, Pau
  email: Pau.Brunet@zalf.de
  organization: Leibniz Centre for Agricultural Landscape Research (ZALF), Institute of Landscape Systems Analysis, Division Forest, Nature and Landscape, University of Leuven
– sequence: 2
  givenname: Hubert
  surname: Jochheim
  fullname: Jochheim, Hubert
  organization: Leibniz Centre for Agricultural Landscape Research (ZALF), Institute of Landscape Systems Analysis
– sequence: 3
  givenname: Bart
  surname: Muys
  fullname: Muys, Bart
  organization: Division Forest, Nature and Landscape, University of Leuven
BackLink https://www.ncbi.nlm.nih.gov/pubmed/30093824$$D View this record in MEDLINE/PubMed
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Copyright Springer Science+Business Media Dordrecht 2016
Mitigation and Adaptation Strategies for Global Change is a copyright of Springer, 2017.
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ISSN 1381-2386
1573-1596
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Issue 8
Keywords Time scale
Cascade use
Modelling
Climate change mitigation
Carbon sequestration
Language English
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PublicationDate 2017-12-01
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PublicationDecade 2010
PublicationPlace Dordrecht
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PublicationSubtitle An International Journal Devoted to Scientific, Engineering, Socio-Economic and Policy Responses to Environmental Change
PublicationTitle Mitigation and adaptation strategies for global change
PublicationTitleAbbrev Mitig Adapt Strateg Glob Change
PublicationTitleAlternate Mitig Adapt Strateg Glob Chang
PublicationYear 2017
Publisher Springer Netherlands
Springer Nature B.V
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References Food Agriculture Organization of the United Nations (2014) FAOSTAT. Rome, Italy. http://faostat.fao.org/default.aspx
KohlmaierGKohlmaierLFriesEApplication of the stock change and the production approach to harvested wood products in the EU-15 countries: a comparative analysisEur J For Res2007126220922310.1007/s10342-006-0130-x
Pingoud K, Soimakallio S, Perala AL et al (2003) Greenhouse gas impacts of harvested wood products. Evaluation and development of methods. p. 120 + xvi. Espoo, Finland.
WaterworthRMRichardsGPImplementing Australian forest management practices into a full carbon accounting modelFor Ecol Manag200825572434244310.1016/j.foreco.2008.01.004
DewarRCCannellMGRCarbon sequestration in the trees, products and soils of forest plantations: an analysis using UK examplesTree Physiol1992111497110.1093/treephys/11.1.49
Schelhaas MJ, van Esch PW, Groen TA et al (2004) CO2FIX V 3.1—a modelling framework for quantifying carbon sequestration in forest ecosystems. p. 122. Wageningen, Netherlands.
HarmonMEHarmonJMFerrellWKModeling carbon stores in Oregon and Washington forest products: 1900-1992Clim Chang199633452155010.1007/BF00141703
KarjalainenTKellomakiSPussinenARole of wood-based products in absorbing atmospheric carbonSilva Fenn1994282678010.14214/sf.a9163
SkogKESequestration of carbon in harvested wood products for the United StatesFor Prod J20085865672
Brunet-NavarroPJochheimHMuysBModelling carbon stocks and fluxes in the wood product sector: a comparative reviewGlob Chang Biol20162272555256910.1111/gcb.13235
Barredo JI, San Miguel J, Caudullo G et al (2012) A European map of living forest biomass and carbon stock. Ispra, Italy, p. 16.
MarlandESStellarKMarlandGHA distributed approach to accounting for carbon in wood productsMitig Adapt Strateg Glob Chang2010151719110.1007/s11027-009-9205-6
HöglmeierKWeber-BlaschkeGRichterKUtilization of recovered wood in cascades versus utilization of primary wood—a comparison with life cycle assessment using system expansionInt J Life Cycle Assessment201419101755176610.1007/s11367-014-0774-6
Kurz WA, Apps MJ, Webb TM et al (1992) The carbon budget of the Canadian forest sector: phase I. p. 93. For. Can. NR, North. For. Cent., Edmonton, Canada.
WiesmeierMSporleinPGeussUSoil organic carbon stocks in Southeast Germany (Bavaria) as affected by land use, soil type and sampling depthGlob Chang Biol20121872233224510.1111/j.1365-2486.2012.02699.x
IPCC (2014) 2013 Revised Supplementary Methods and Good Practice Guidance Arising from the Kyoto Protocol, Intergovernmental Panel on Climate Change, Hayama, Japan.
Mason EarlesJYehSSkogKETiming of carbon emissions from global forest clearanceNature Clim Change201229682685
Mantau U (2012) Wood flows in Europe (EU27). p. 24. Celle.
IPCC (2013) Summary for policymakers. In: Stocker TF, Qin D, Plattner G-K, Tignor M, Allen SK, Boschung J, Nauels A, Xia Y, Bex V, Midgley PM (eds) Climate change 2013: the physical science basis contribution of working group I to the fifth assessment report of the intergovernmental panel on climate change. Cambridge University Press, Cambridge and New York, pp. 1–29
KarjalainenTPussinenALiskiJScenario analysis of the impacts of forest management and climate change on the European forest sector carbon budgetFor Policy Econ20035214115510.1016/S1389-9341(03)00021-2
Pilli R, Fiorese G, Grassi G (2015) EU mitigation potential of harvested wood products. Carbon Balance Manag 10(6)
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Smith JE, Woodbury PB, Heath LS (2004) Forest carbon sequestration and products storage, and Appendix C-1. In: US Agriculture and Forestry Greenhouse Gas Inventory: 1900–2001 p 80–93, Washington, US.
WernerFTavernaRHoferPGreenhouse gas dynamics of an increased use of wood in buildings in SwitzerlandClim Chang2006741–331934710.1007/s10584-006-0427-2
GarciaMRianoDChuviecoEEstimating biomass carbon stocks for a Mediterranean forest in Central Spain using LiDAR height and intensity dataRemote Sens Environ2010114481683010.1016/j.rse.2009.11.021
FortinMNingreFRobertNQuantifying the impact of forest management on the carbon balance of the forest-wood product chain: a case study applied to even-aged oak stands in FranceFor Ecol Manag2012279017618810.1016/j.foreco.2012.05.031
WinjumJKBrownSSchlamadingerBForest harvests and wood products: sources and sinks of atmospheric carbon dioxideFor Sci1998442272284
Knauf M, Köhl M, Mues V et al (2015) Modeling the CO(2)-effects of forest management and wood usage on a regional basis. Carbon Balance Manag 10(13).
WernerFTavernaRHoferPNational and global greenhouse gas dynamics of different forest management and wood use scenarios: a model-based assessmentEnviron Sci Pol2010131728510.1016/j.envsci.2009.10.004
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Höglmeier K, Steubing B, Weber-Blaschke G et al (2015) LCA-based optimization of wood utilization under special consideration of a cascading use of wood. J Environ Manag 152(0):158-170.
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Mantau U, Saal U (2010) Material use. p. 19–34. Hamburg, Germany.
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26097501 - Carbon Balance Manag. 2015 Jun 12;10:13
26824792 - Glob Chang Biol. 2016 Jul;22(7):2555-69
25660355 - J Environ Manage. 2015 Apr 1;152:158-70
26457115 - Carbon Balance Manag. 2015 Feb 25;10(1):6
14969967 - Tree Physiol. 1992 Jul;11(1):49-71
References_xml – reference: GarciaMRianoDChuviecoEEstimating biomass carbon stocks for a Mediterranean forest in Central Spain using LiDAR height and intensity dataRemote Sens Environ2010114481683010.1016/j.rse.2009.11.021
– reference: IPCC (2014) 2013 Revised Supplementary Methods and Good Practice Guidance Arising from the Kyoto Protocol, Intergovernmental Panel on Climate Change, Hayama, Japan.
– reference: Eggers T (2002) The impacts of manufacturing and utilisation of wood products on the European carbon budget. E.F.I, Joensuu, p. 90
– reference: MarlandESStellarKMarlandGHA distributed approach to accounting for carbon in wood productsMitig Adapt Strateg Glob Chang2010151719110.1007/s11027-009-9205-6
– reference: WaterworthRMRichardsGPImplementing Australian forest management practices into a full carbon accounting modelFor Ecol Manag200825572434244310.1016/j.foreco.2008.01.004
– reference: DewarRCCannellMGRCarbon sequestration in the trees, products and soils of forest plantations: an analysis using UK examplesTree Physiol1992111497110.1093/treephys/11.1.49
– reference: WernerFTavernaRHoferPGreenhouse gas dynamics of an increased use of wood in buildings in SwitzerlandClim Chang2006741–331934710.1007/s10584-006-0427-2
– reference: Kurz WA, Apps MJ, Webb TM et al (1992) The carbon budget of the Canadian forest sector: phase I. p. 93. For. Can. NR, North. For. Cent., Edmonton, Canada.
– reference: HöglmeierKWeber-BlaschkeGRichterKUtilization of recovered wood in cascades versus utilization of primary wood—a comparison with life cycle assessment using system expansionInt J Life Cycle Assessment201419101755176610.1007/s11367-014-0774-6
– reference: WiesmeierMSporleinPGeussUSoil organic carbon stocks in Southeast Germany (Bavaria) as affected by land use, soil type and sampling depthGlob Chang Biol20121872233224510.1111/j.1365-2486.2012.02699.x
– reference: Höglmeier K, Steubing B, Weber-Blaschke G et al (2015) LCA-based optimization of wood utilization under special consideration of a cascading use of wood. J Environ Manag 152(0):158-170.
– reference: Mantau U, Saal U (2010) Material use. p. 19–34. Hamburg, Germany.
– reference: MarlandEMarlandGThe treatment of long-lived, carbon-containing products in inventories of carbon dioxide emissions to the atmosphereEnviron Sci Pol20036213915210.1016/S1462-9011(03)00003-0
– reference: ErikssonEGillespieARGustavssonLIntegrated carbon analysis of forest management practices and wood substitutionCan J For Res-Rev Can Rech For200737367168110.1139/X06-257
– reference: Pilli R, Fiorese G, Grassi G (2015) EU mitigation potential of harvested wood products. Carbon Balance Manag 10(6)
– reference: IPCC (2013) Summary for policymakers. In: Stocker TF, Qin D, Plattner G-K, Tignor M, Allen SK, Boschung J, Nauels A, Xia Y, Bex V, Midgley PM (eds) Climate change 2013: the physical science basis contribution of working group I to the fifth assessment report of the intergovernmental panel on climate change. Cambridge University Press, Cambridge and New York, pp. 1–29
– reference: Schelhaas MJ, van Esch PW, Groen TA et al (2004) CO2FIX V 3.1—a modelling framework for quantifying carbon sequestration in forest ecosystems. p. 122. Wageningen, Netherlands.
– reference: KohlmaierGKohlmaierLFriesEApplication of the stock change and the production approach to harvested wood products in the EU-15 countries: a comparative analysisEur J For Res2007126220922310.1007/s10342-006-0130-x
– reference: HarmonMEHarmonJMFerrellWKModeling carbon stores in Oregon and Washington forest products: 1900-1992Clim Chang199633452155010.1007/BF00141703
– reference: KleinDHöllerlSBlaschkeMThe contribution of managed and unmanaged forests to climate change mitigation—a model approach at stand level for the main tree species in BavariaForests201341436910.3390/f4010043
– reference: Brunet-NavarroPJochheimHMuysBModelling carbon stocks and fluxes in the wood product sector: a comparative reviewGlob Chang Biol20162272555256910.1111/gcb.13235
– reference: Pingoud K, Soimakallio S, Perala AL et al (2003) Greenhouse gas impacts of harvested wood products. Evaluation and development of methods. p. 120 + xvi. Espoo, Finland.
– reference: WernerFTavernaRHoferPNational and global greenhouse gas dynamics of different forest management and wood use scenarios: a model-based assessmentEnviron Sci Pol2010131728510.1016/j.envsci.2009.10.004
– reference: Food Agriculture Organization of the United Nations (2014) FAOSTAT. Rome, Italy. http://faostat.fao.org/default.aspx
– reference: FortinMNingreFRobertNQuantifying the impact of forest management on the carbon balance of the forest-wood product chain: a case study applied to even-aged oak stands in FranceFor Ecol Manag2012279017618810.1016/j.foreco.2012.05.031
– reference: Knauf M, Köhl M, Mues V et al (2015) Modeling the CO(2)-effects of forest management and wood usage on a regional basis. Carbon Balance Manag 10(13).
– reference: MullerDBBaderH-PBacciniPLong-term coordination of timber production and consumption using a dynamic material and energy flow analysisJ Ind Ecol200483658710.1162/1088198042442342
– reference: KarjalainenTKellomakiSPussinenARole of wood-based products in absorbing atmospheric carbonSilva Fenn1994282678010.14214/sf.a9163
– reference: Barredo JI, San Miguel J, Caudullo G et al (2012) A European map of living forest biomass and carbon stock. Ispra, Italy, p. 16.
– reference: SkogKESequestration of carbon in harvested wood products for the United StatesFor Prod J20085865672
– reference: KarjalainenTPussinenALiskiJScenario analysis of the impacts of forest management and climate change on the European forest sector carbon budgetFor Policy Econ20035214115510.1016/S1389-9341(03)00021-2
– reference: Mantau U (2012) Wood flows in Europe (EU27). p. 24. Celle.
– reference: WinjumJKBrownSSchlamadingerBForest harvests and wood products: sources and sinks of atmospheric carbon dioxideFor Sci1998442272284
– reference: Mason EarlesJYehSSkogKETiming of carbon emissions from global forest clearanceNature Clim Change201229682685
– reference: Smith JE, Woodbury PB, Heath LS (2004) Forest carbon sequestration and products storage, and Appendix C-1. In: US Agriculture and Forestry Greenhouse Gas Inventory: 1900–2001 p 80–93, Washington, US.
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Snippet The use of wood products is often promoted as a climate change mitigation option to reduce atmospheric carbon dioxide concentrations. In previous literature,...
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StartPage 1193
SubjectTerms Atmospheric Sciences
Carbon capture and storage
Carbon dioxide
Carbon sequestration
carbon sinks
Climate change
Climate Change Management and Policy
Climate change mitigation
Computer simulation
Earth and Environmental Science
Earth Sciences
Elongation
Emissions
Emissions control
Environmental Management
Europe
Life span
Longevity
Mitigation
Original
Original Article
Paper board
paperboard
Product life cycle
Products
Recycling
Simulation
Wood
Wood products
wood-based panels
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Title The effect of increasing lifespan and recycling rate on carbon storage in wood products from theoretical model to application for the European wood sector
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