WILLOW PRODUCTIVITY ON A COMMERCIAL PLANTATION IN TRIENNIAL HARVEST CYCLE
Keywords:
willow, new varieties and clones, yield, biometric features, calorific value of the yield, lignocellulosic biomassAbstract
Biomass is a renewable energy source which is easily available around the world. Lignocellulosic biomass is now increasingly often used in developed countries. It is also an important feedstock in the chemical industry. It is used to produce high quality industrial products: polymers, bioethanol from hemicellulose, activated carbon and vanillin etc. Willow (Salix spp.) can be successfully used as feedstock in an integrated multi-product biorefinery. The objective of this study was to determine the productivity of new varieties and clones of short rotation willow coppice on a commercial plantation, with its product intended for an integrated multi-product biorefinery. A willow plantation of the area of 10.5 ha was established on April 2010 at the Educational and Research Station in Łężany, belonging to the University of Warmia and Mazury in Olsztyn (north-eastern Poland). Among the studied cultivars, UWM 043 showed the highest survival rate (15 278 plants ha-1). Significantly, the lowest number of plants (7 833 plants ha-1) survived in the case of clone UWM 155. The highest plants were developed by clone UWM 006 and the lowest by Tur variety. The yield of dry matter ranged from 2.79 to 14.23 Mg ha-1 yr-1 d.m. for clones UWM 155 and UWM 006 respectively. The average calorific value of the willow yield was 369.86 GJ ha-1. Considering the highest biomass yield, the highest calorific value was achieved for the UWM 006 clone. It may be concluded that the clones UWM 006 and UWM 043 should be recommended for cultivation with a view to supplying large amounts of lignocellulosic biomass for integrated biorefinery.
References
Adegbidi, H. G., T. A. Volk, E. H. White, L. P. Abrahamson, R. D. Briggs and D. H. Bickelhaupt, 2001. Biomass and nutrient removal by willow clones in experimental bioenergy plantations in New York State. Biomass and Bioenergy, 20: 399-411.
Aresta, M., A. Dibenedetto and F. Dumeignil, 2012. Biorefinery: from biomass to chemicals and fuels. Walter de Gruyter, Berlin; Boston, 445 pp.
Borek, R., A. Faber and J. Kozyra, 2010. Water implications of selected energy crops cultivated on a field scale. Journal of Food, Agriculture and Environment, 8: 1345-1351.
Bullard, M. J., S. J. Mustill, S. D. McMillan, P. M. I. Nixon, P. Carver and C. P. Britt, 2002. Yield improvements through modification of planting density and harvest frequency in short rotation coppice Salix spp. - 1. Yield response in two morphologically diverse varieties. Biomass and Bioenergy, 22: 15-25.
Cheng, J. J. and G. R. Timilsina, 2011. Status and barriers of advanced biofuel technologies: A review. Renewable Energy, 36: 3541-3549.
Doherty, W. O. S., P. Mousavioun and C. M. Fellows, 2011. Value-adding to cellulosic ethanol: Lignin polymers. Industrial Crops and Products, 33: 259-276.
Ericsson, K. and L. J. Nilsson, 2006. Assessment of the potential biomass supply in Europe using a resource-focused approach. Biomass and Bioenergy, 30: 1-15.
EuroBioRef, 2013.
http://eurobioref.org/index.php/about-eurobioref (10.08.2014)
Faber, A., 2008. Environmental impact of energy crops cultivation. Studia i Raporty IUNG – PIB, 11: 43-53 (Pl).
González, J. F., S. Román, J. M. Encinar and G. Martínez, 2009. Pyrolysis of various biomass residues and char utilization for the production of activated carbons. Journal of Analytical and Applied Pyrolysis, 85: 134-141.
Hangs, R. D., J. J. Schoenau, K. C. J. Van Rees and H. Steppuhn, 2011. Examining the salt tolerance of willow (Salix spp.) bioenergy species for use on salt-affected agricultural lands. Canadian Journal of Plant Science, 91: 509-517.
Hossain, A. B. M. S. and A. N. Boyce, 2009. Biodiesel production from waste sunflower cooking oil as an environmental recycling process and renewable energy. Bulgarian
Journal of Agricultural Science, 15: 2009, 312-317.
Jefferson, P. G., W. P. McCaughey, K. May, J. Woosaree and L. McFarlane, 2004. Potential utilization of native prairie grasses from western Canada as ethanol feedstock. Canadian Journal of Plant Science, 84: 1067-1075.
Kopp, R. F., L. P. Abrahamson, E. H. White, K. F. Burns and C. A. Nowak, 1997. Cutting cycle and spacing effects on biomass production by a willow clone in New York. Biomass and Bioenergy, 12: 313-319.
Krzyżaniak, M., M. J. Stolarski, B. Waliszewska, S. Szczukowski, J. Tworkowski, D. Załuski and M. Śnieg, 2014. Willow biomass as feedstock for an integrated multi-product biorefinery. Industrial Crops and Products, 58: 230-237.
Kuś, J. and M. Matyka, 2010. Yield and biometric features of willow depending on habitat conditions. Problemy Inżynierii Rolniczej, 3: 59-65 (Pl).
Labrecque, M. and T. I. Teodorescu, 2001. Influence of plantation site and wastewater sludge fertilization on the performance and foliar nutrient status of two willow species grown under SRIC in southern Quebec (Canada). Forest Ecology and Management, 150: 223-239.
Labrecque, M. and T. I. Teodorescu, 2003. High biomass yield achieved by Salix clones in SRIC following two 3-year coppice rotations on abandoned farmland in southern Quebec, Canada. Biomass and Bioenergy, 25: 135-146.
Melin, G. and S. Larsson, 2005. Agrobransle AB – world leading company on short rotation coppice willow. In: Industry and Climate Protection. (Proceedings of 14th European Biomass Conference,Florence 17-21 October, 2005), ETA Florence, Paris, pp. 36-37.
Mola-Yudego, B., 2011. Trends and productivity improvements from commercial willow plantations in Sweden during the period 1986 - 2000. Biomass and Bioenergy, 35: 446-453.
Moshkelani, M., M. Marinova, M. Perrier and J. Paris, 2013. The forest biorefinery and its implementation in the pulp and paper industry: Energy overview. Applied Thermal Engineering, 50: 1427-1436.
Sagehashi, M., N. Miyasaka, H. Shishido and A. Sakoda, 2006. Superheated steam pyrolysis of biomass elemental components and Sugi (Japanese cedar) for fuels and chemicals. Bioresource Technology, 97: 1272-1283.
Sanderson, M. A., P. R. Adler, A. A. Boateng, M. D. Casler and G. Sarath, 2006. Switchgrass as a biofuels feedstock in the USA. Canadian Journal of Plant Science, 86: 1315-1325.
Stolarski, M., 2009. Agrotechnical and Economic Aspects of Biomass Production from Willow Coppice (Salix Spp.) as an Energy Source. University of Warmia and Mazury in Olsztyn, Olsztyn, 145 pp. (Pl).
Stolarski, M., S. Szczukowski, J. Tworkowski and A. Klasa, 2008. Productivity of seven clones of willow coppice in annual and quadrennial cutting cycles. Biomass & Bioenergy, 32: 1227-1234.
Stolarski, M., S. Szczukowski, J. Tworkowski and M. Krzyżaniak, 2013. Economic aspects of willow biomass production in annual and triennial harvest cycle. Roczniki Ekonomii Rolnictwa i Rozwoju Obszarów Wiejskich, 100: 211-219 (Pl).
Stolarski, M. J., S. Szczukowski, J. Tworkowski, H. Wróblewska and M. Krzyzaniak, 2011. Short rotation willow coppice biomass as an industrial and energy feedstock. Industrial Crops and Products, 33: 217-223.
Tworkowski, J., J. Kuś, S. Szczukowski and M. Stolarski, 2010. Productivity of crops cultivated for energy purposes. In: P. Bocian, T. Golec and J. Rakowski (Eds.) Nowoczesne Technologie Pozyskiwania i Energetycznego Wykorzystania Biomasy, Instytut Energetyki, Warsaw, pp. 34-49 (Pl).
Volk, T. A., L. P. Abrahamson, C. A. Nowak, L. B. Smart, P. J. Tharakan and E. H. White, 2006. The development of shortrotation willow in the northeastern United States for bioenergy and bioproducts, agroforestry and phytoremediation. Biomass and Bioenergy, 30: 715-727.
Wang, Z. and D. W. MacFarlane, 2012. Evaluating the biomass production of coppiced willow and poplar clones in Michigan, USA, over multiple rotations and different growing conditions. Biomass and Bioenergy, 46: 380-388.
Downloads
Published
Issue
Section
License
Copyright (c) 2016 Bulgarian Journal of Agricultural Science

This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.

