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D. Röser, Blas Mola‐Yudego, L. Sikanen, R. Prinz, D. Gritten, B. Emer, K. Väätäinen, A. Erkkilä (2011)
Natural drying treatments during seasonal storage of wood for bioenergy in different European locationsBiomass & Bioenergy, 35
Jörgen Rudolphi, L. Gustafsson (2005)
Effects of forest-fuel harvesting on the amount of deadwood on clear-cutsScandinavian Journal of Forest Research, 20
K. McCormick, T. Kåberger (2007)
Key barriers for bioenergy in Europe: Economic conditions, know-how and institutional capacity, and supply chain co-ordinationBiomass & Bioenergy, 31
Julia Briedis, Jeremy Wilson, J. Benjamin, R. Wagner (2011)
Biomass retention following whole-tree, energy wood harvests in central Maine: Adherence to five state guidelinesBiomass & Bioenergy, 35
P. Hazlett, D. Morris, R. Fleming (2014)
Effects of biomass removals on site carbon and nutrients and Jack pine growth in boreal forests.Soil Science Society of America Journal, 78
Sini Eräjää, P. Halme, J. Kotiaho, Anna-Laura Markkanen, Tero Toivanen (2010)
The volume and composition of dead wood on traditional and forest fuel harvested clear-cutsSilva Fennica, 44
É. Thiffault, J. Barrette, D. Paré, B. Titus, Kevin Keys, D. Morris, G. Hope (2014)
Developing and validating indicators of site suitability for forest harvesting residue removalEcological Indicators, 43
R. Spinelli, N. Magagnotti (2009)
Logging residue bundling at the roadside in mountain operationsScandinavian Journal of Forest Research, 24
T. Gullberg, J. Johansson (2006)
A method for integrated extraction of logging residues and soil scarification on a small scaleBiomass & Bioenergy, 30
M. Junginger, A. Faaij, R. Björheden, W. Turkenburg (2005)
Technological learning and cost reductions in wood fuel supply chains in SwedenBiomass & Bioenergy, 29
Dalia Abbas, D. Current, M. Phillips, Richard Rossman, H. Hoganson, K. Brooks (2011)
Guidelines for harvesting forest biomass for energy: a synthesis of environmental considerations.Biomass & Bioenergy, 35
H. Ovaskainen, J. Uusitalo, K. Väätäinen (2004)
Characteristics and Significance of a Harvester Operators’ Working Technique in ThinningsInternational Journal of Forest Engineering, 15
J. Roach, S. Berch (2014)
A compilation of forest biomass harvesting and related policy in Canada.
G. Egnell, R. Björheden (2013)
Options for increasing biomass output from long‐rotation forestryWiley Interdisciplinary Reviews: Energy and Environment, 2
J. Benjamin, R. Seymour, Emily Meacham, Jeremy Wilson (2013)
Impact of Whole-Tree and Cut-to-Length Harvesting on Postharvest Condition and Logging Costs for Early Commercial Thinning in MaineNorthern Journal of Applied Forestry, 30
J. Windisch, D. Röser, Blas Mola‐Yudego, L. Sikanen, A. Asikainen (2013)
Business process mapping and discrete-event simulation of two forest biomass supply chainsBiomass & Bioenergy, 56
A. Evans, Robert Perschel, Brian Kittler (2013)
Overview of Forest Biomass Harvesting GuidelinesJournal of Sustainable Forestry, 32
Egnell Egnell, Björheden Björheden (2013)
Options for increasing biomass output from long?rotation forestryWIREs Energy Environ, 2
J. Nurmi (2007)
Recovery of logging residues for energy from spruce (Pices abies) dominated standsBiomass & Bioenergy, 31
M. Pettersson, T. Nordfjell (2007)
Fuel quality changes during seasonal storage of compacted logging residues and young treesBiomass & Bioenergy, 31
E. Cuchet, P. Roux, R. Spinelli (2004)
Performance of a logging residue bundler in the temperate forests of FranceBiomass & Bioenergy, 27
I. Stupak, A. Asikainen, M. Jonsell, E. Karltun, A. Lunnan, D. Mizaraitė, K. Pasanen, H. Pärn, K. Raulund‐Rasmussen, D. Röser (2007)
Sustainable utilisation of forest biomass for energy - possibilities and problems: policy, legislation, certification, and recommendations and guidelines in the Nordic, Baltic, and other European countries.Biomass & Bioenergy, 31
J. Nurmi (1999)
The storage of logging residue for fuelBiomass & Bioenergy, 17
E. Schulze, C. Körner, B. Law, H. Haberl, S. Luyssaert (2012)
Large‐scale bioenergy from additional harvest of forest biomass is neither sustainable nor greenhouse gas neutralGCB Bioenergy, 4
(2006)
Initial observations of the John Deere 1490D energy wood harvester
H. Haberl, D. Sprinz, M. Bonazountas, P. Cocco, Y. Desaubies, M. Henze, O. Hertel, Richard Johnson, Ulrike Kastrup, P. Laconte, Eckart Lange, P. Novak, J. Paavola, A. Reenberg, S. Hove, T. Vermeire, P. Wadhams, T. Searchinger (2012)
Correcting a fundamental error in greenhouse gas accounting related to bioenergyEnergy Policy, 45-222
(2014)
protecting Maine’s water quality; 2004
Routa Routa, Asikainen Asikainen, Björdehen Björdehen, Laitila Laitila, Röser Röser (2013)
Forest energy procurement: state of the art in Finland and SwedenWIREs Energy Environ, 2
D. Röser, A. Asikainen, I. Stupak, K. Pasanen (2008)
Forest Energy Resources And Potentials
Schulze Schulze, Körner Körner, Law Law, Haberl Haberl, Luyssaert Luyssaert (2012)
Large?scale bioenergy from additional harvest of forest biomass is neither sustainable nor greenhouse gas neutralGlob Change Biol Bioenergy, 4
D. Thrän, C. Hennig, É. Thiffault, J. Heinimö, Onofre Andrade (2014)
Development of Bioenergy Trade in Four Different Settings – The Role of Potential and Policies
T. Rittenhouse, D. Macfarland, K. Martin, T. Deelen (2012)
Downed wood associated with roundwood harvest, whole-tree harvest, and unharvested stands of aspen in WisconsinForest Ecology and Management, 266
P. Ralevic, M. Ryans, D. Cormier (2010)
Assessing forest biomass for bioenergy: Operational challenges and cost considerationsForestry Chronicle, 86
(2013)
Renewable Policy Network for the 21st Century; 2012
K. Kärhä, T. Vartiamäki (2006)
Productivity and costs of slash bundling in Nordic conditions.Biomass & Bioenergy, 30
Dymond Dymond, Titus Titus, Stinson Stinson, Kurz Kurz (2010)
Future quantities and spatial distribution of harvesting residue and dead wood from natural disturbances in CanadaFor Ecol Manage, 260
(2012)
Biomass availability related to operational constraints (In French). In: Presentation at the Démo International Conference, Quebec City, Canada, September
E. Smeets, A. Faaij (2007)
Bioenergy potentials from forestry in 2050Climatic Change, 81
G. Andersson, A. Asikainen, R. Björheden, P. Hall, J. Hudson, R. Jirjis, D. Mead, J. Nurmi, G. Weetman (2002)
Production of forest energy
E. Smeets, A. Faaij (2006)
Bioenergy potentials from forestry in 2050 An assessment of the drivers that determine the potentials
P. Lamers, É. Thiffault, D. Paré, M. Junginger (2013)
Feedstock specific environmental risk levels related to biomass extraction for energy from boreal and temperate forestsBiomass & Bioenergy, 55
J. Routa, A. Asikainen, R. Björheden, J. Laitila, D. Röser (2013)
Forest energy procurement: state of the art in Finland and SwedenWiley Interdisciplinary Reviews: Energy and Environment, 2
M. Ghaffariyan, M. Acuna, Mark Brown (2013)
Analysing the effect of five operational factors on forest residue supply chain costs: A case study in Western AustraliaBiomass & Bioenergy, 59
R. Team (2014)
R: A language and environment for statistical computing.MSOR connections, 1
Christian Levers, P. Verkerk, D. Müller, P. Verburg, V. Butsic, P. Leitão, M. Lindner, T. Kuemmerle (2014)
Drivers of forest harvesting intensity patterns in EuropeForest Ecology and Management, 315
S. Peltola, H. Kilpeläinen, A. Asikainen (2011)
Recovery rates of logging residue harvesting in Norway spruce (Picea abies (L.) Karsten) dominated standsBiomass & Bioenergy, 35
(2010)
Integration of biomass forwarding in harvesting operations (in French)
C. Dymond, B. Titus, G. Stinson, W. Kurz (2010)
Future quantities and spatial distribution of harvesting residue and dead wood from natural disturbances in CanadaForest Ecology and Management, 260
R. Perlack, L. Wright, A. Turhollow, R. Graham, B. Stokes, D. Erbach (2005)
Biomass as Feedstock for A Bioenergy and Bioproducts Industry: The Technical Feasibility of a Billion-Ton Annual Supply
Best management practices for forestry: protecting Maine's water quality
Harvest residues are an attractive woody biomass feedstock for bioenergy production. A portion of the total harvest residues are generally left in the cutblock due to technical and profitability constraints. A better understanding of the factors influencing the variability of residue operational recovery rate is important to inform accurately policy development on sustainable forest biomass procurement practices. We compiled the results of field trials from boreal and temperate forests to quantify the range of variation of residue recovery rates and to identify the main factors explaining this variability. The average recovery rate was 52.2%, with minimum and maximum values of 4.0 and 89.1%, and a near‐normal distribution around the average. The main factor contributing to this variation was country of operations, which encompasses aspects of bioenergy policy and markets, technological learning, and forestry context. A shift in bioenergy policy, a growth in (and a change in access to) bioenergy markets, and upward movements along the technological learning curve could increase residue recovery rates approaching the highest values observed in this study, such as those in Nordic countries (72% residue recovery), or even higher if economic and technological conditions keep improving. However, local stand conditions, especially in North America where natural variability is high among forest stands, may continue to constrain operational recovery of harvest residues. Our results suggest the need for the development of policies that define practices and thresholds based on the ecological suitability of ecosystems, with clear definitions and explicit standards for harvest residue inventory, quantification, and retention. WIREs Energy Environ 2015, 4:429–451. doi: 10.1002/wene.157 For further resources related to this article, please visit the WIREs website. Conflict of interest: The authors have declared no conflicts of interest for this article.
Wiley Interdisciplinary Reviews: Energy and Environment – Wiley
Published: Sep 1, 2015
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