Refining of Pine radiata and eucalyptus kraft pulps assisted with commercial laccase mediator systems

O Papel

Volumn 72, Issue 8, 2011, Pages 57-61

  Lecourt, Michael ^a   Soranzo, Adrien ^a   Petit Conil, Michel ^b  

^a InTechFibres Division Domaine Universitaire   (France)

^b InTechFibres CTP   (France)

Author keywords

Eucalyptus; Kraft pulp; Laccase; Radiata pine; Refining

Indexed keywords

BLEACHED KRAFT PULPS; COMMERCIAL LACCASE; ELECTRICAL ENERGY CONSUMPTION; EUCALYPTUS; EUCALYPTUS KRAFT PULP; LACCASES; RADIATA PINE; UNBLEACHED KRAFT PULPS;

ELECTRIC PROPERTIES; ENERGY UTILIZATION; ENZYMES; FIBERS; KRAFT PULP; REFINING; TENSILE STRENGTH;

PULP REFINING;

ELECTRICAL PROPERTIES; ENZYMES; EUCALYPTUS; KRAFT PULPS; LACCASE; PINUS RADIATA; REFINING; TENSILE STRENGTH;

EID: 84866494372     PISSN: 00311057     EISSN: None     Source Type: Trade Journal    
DOI: None     Document Type: Conference Paper

References (16)

1. dos Reis, E. A. (2002). Influência da refinação em alta consistencia em papeis sack kraft. Congresso e exposicão anual de celulose e papel, Sao Paulo, Brasil.
2. Eymin, G., F. Cottin, et al. (2003). The use of Morfi analyser to characterise mechanical pulps. International Mechanical Pulping Conference, Quebec.
3. Gabl, H., H. A. Gorton, et al. (2004). A New Low Consistency Refiner Improved Fiber Properties While Reducing Idle Energy by up to 40%-Andritz Papillon Refiner. Japan Tappi Journal 58(11): 1546-1551.
4. Hoddenbagh, J. M., V. Meyer, et al. (2007). Reducing chip refining energies by enzymatic treatment of hardwood chips prior to refining. 10th International Conference on Biotechnology in the Pulp and Paper Industry, Madison, Wisconsin, USA.
5. Irie, Y., T. Matsukura, et al. (1989). De-resinification of mechanical wood pulp using glycerol lipase to decompose triglyceride compounds in pulp and paper manufacture. European patent, 374700.
6. Lecourt, M., J.-C. Sigoillot, et al. (2010). Cellulase-assisted refining of chemical pulps: Impact of enzymatic charge and refining intensity on energy consumption and pulp quality. Process Biochemistry in press.
7. Lecourt, M., J.-C. Sigoillot, et al. (2010). Energy reduction of refining by cellulases. Holzforschung in press.
8. Maijala, P. a., Kleen, M.b, Westin, C.b, Poppius-Levlin, K.b, Herranen, K.c, Lehto, J.H.c, Reponen, P.d, Mäentausta, O.e, Mettälä, A.a, Hatakka, A.a (2008). Biomechanical pulping of softwood with enzymes and white-rot fungus Physisporinus rivulosus. Enzyme and Microbial Technology 43(2): 169-177.
9. Manfredi, V. (2004). Optimizing eucalyptus pulp refining. J 19: 41-50.
10. Meyer, V., M. Petit-Conil, et al. (2009). Bio-TMP process to save energy: comparison of enzymes efficiency. IMPC, Sundsvall, Sweden, Mid Sweden University.
11. Radoslavova, D., J. C. Roux, et al. (1997). Energy efficiency analysis in refining. International refining conference, Fiuggi, Italy.
12. Scott, W. E., J. C. Abbott, Eds. (1995). Properties of paper: an introduction, Tappi press.
13. Seth, R. S. (1999). Beating and refining response of some reinforcement pulps. Tappi Journal 82(3): 147-155.
14. Shouqin, C., L. Yiting, et al. (2001). Enzymatic pitch control at Nanping Paper Mill." TAPPI Journal 84(4): 44-47.
15. Viikari, L., M. Ranua, et al. (1986). Bleaching with Enzymes. The Third International Conference on Biotechnology in the Pulp and Paper Industry, Stockholm, Sweden.
16. Zhang, S.-Y., F.-S. a. Chen, et al. (2009). Reduction of energy consumption in high-yield pulp production by cellulase treatment of the pulp from first stage refiner. Transactions of China Pulp and Paper 24(1): 20-24.