journal article·2013-03-01

Improving pulp yield for integrated southern hardwood kraft mills—significance and impact on chemical recovery, steam and power generation, and bleaching

JOHN D. ANDREWS, PETER W. HART

TAPPI Journal· Volume 12· Issue 2
Publisher page

Abstract

Researchers have been attempting to improve the yield of bleachable-grade kraft pulp for several decades. Wood is typically one of the major costs associated with kraft pulping. Therefore, it is typically assumed that improving pulp yield or conversely, reducing the amount of wood required to make a specific mass of pulp, is a cost-effective, lucrative endeavor. Although this may be true, it is important to understand the impact of increasing pulp yield on the interconnected processes within an integrated pulp and paper mill and to fully evaluate the cost implications on these processes. The current work employed several sets of laboratory pulping conditions and a WinGEMS model of a pulp mill, fully integrated with chemical recovery, power, and recausticization, and pulp drying islands to determine where the largest cost impact associated with improved pulp yield may be experienced.
Source: crossref · Quality: baseline

Research context

OpenAlex topics: Lignin and Wood Chemistry · Advanced Cellulose Research Studies

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

References (21)

Show source-provided references
1. Smook, G.A., in Pulp and Paper Manufacture, Vol. 5, Alkaline Pulping (T.M. Grace, B. Leopold, E.W. Malcolm, and M.J. Kocurek, Eds.), Technical Section, Canadian Pulp & Paper Association, Montreal, QC, Canada, 1996, p. 138.
2. Canadian Industry Statistics, Manufacturing Costs—Pulp Mills (NAICS 32211), 2009. Available [Online] at http://www.ic.gc.ca/cis-sic/cis-sic.nsf/IDE/cis-sic32211cote.html.
3. Breaking the Pulp Yield Barrier Symp., TAPPI PRESS, Atlanta, 1998.
4. Growing Yield from the Ground Up Symp., TAPPI PRESS, Atlanta, 2006.
5. Forest Products Industry Technology Roadmap, Agenda 2020 Technology Alliance, American Forest & Paper Alliance, U.S. Department of Energy, Office of Energy Efficiency and Renewable Energy, Industrial Technologies Program, Energenics, Columbia, MD, USA, July 2006, p. 23. Available [Online] at www.agenda2020.org.
6. Parthasarathy, V.R., TAPPI Pulping Conf., TAPPI PRESS, Atlanta, 1997, p. 739.
7. Goyal, G.C. (Ed.), Anthraquinone Pulping: A TAPPI PRESS Anthology of Published Papers, TAPPI PRESS, Atlanta, 1997.
8. Matheison, B.A. and Gustafson, R.R., TAPPI J. 79(5): 180(1996).
9. Marcoccia, B.S., Laakso, R., and McClain, G., TAPPI J. 79(6): 179(1996).
10. Hart, P.W., Colson, G.W., Antonsson, S., et al., BioResources 6(4): 5139(2011).10.15376/biores.6.4.5139-5150 ↗
11. McDonough, T.J., “Kraft Pulp Yield Basics,” Growing Yield from the Ground Up Symp., TAPPI PRESS, Atlanta, 2006.
12. Hart, P.W., TAPPI J. 10(9): 37(2011).10.1007/978-94-6091-603-8_3 ↗
13. Hart, P.W., TAPPI J. 8(3): 4(2009).10.32964/TJ8.3.4 ↗
14. Hart, P.W. and Ransdell, J.C., TAPPI J. 7(3): 22(2008).10.32964/TJ7.3.22 ↗
15. Colodette, J.L., Gomide, J.L., Junior, D.L., et al., BioResources 2(2): 223(2007).10.15376/biores.2.2.223-234 ↗
16. MacLeod, M., Pap. Puu 89(4): 1(2007).10.1080/10584580601077435 ↗
17. Prasad, D.Y., Jameel, H., and Gratzl, J., TAPPI Pulping Conf., TAPPI PRESS, Atlanta, 1995, p. 371.
18. Parthasarathy, V.R., Breaking the Pulp Yield Barrier Symp., TAPPI PRESS, Atlanta, 1998, p. 219.
19. Phaneuf, D., Brownlee, D., Simard, L., et al., Breaking the Pulp Yield Barrier Symp., TAPPI PRESS, Atlanta, 1998, p. 123.
20. Parthasarathy, V.R., Smith, G.C., Rudie, G.F., et al., TAPPI J. 78(2): 113(1995).
21. Adams, T.M., Fredrick, W.J., Grace, T.M., et al., Kraft Recovery Boilers, TAPPI PRESS, Atlanta, 1997, p. 76.