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2024 | OriginalPaper | Buchkapitel

7. The Pulps (Fibers) Characteristics

verfasst von : Vail Manfredi

Erschienen in: Eucalyptus Kraft Pulp Refining

Verlag: Springer Nature Switzerland

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Abstract

The characteristics of the pulps, in particular their chemical and anatomical characteristics, are discussed in this chapter with special attention to the relationships between the characteristics of the fibers and the definition of the properties of the pulps that characterize the desired properties in papers.

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Vorheriges Kapitel The Fiber Cell Wall
Nächstes Kapitel Refining the Chemical Pulps
Literatur
6.
Bloom, J. M. – Paper before print: the history and impact of paper in the islamic world. Yale University Press, citado por O Estado de São Paulo em “A influência muçulmana na divulgação do papel” (01/27/2002)
20.
Cotterill, P. P. and Brolin, A. – Improving Eucalytpus wood, pulp and paper quality by genetic selection. In: Conference on Silviculture and Improvement of Eucalypts. IUFRO, Salvador: 24-29/08/1997 Volume 1 pgs. 1–13.
23.
Cotterill, P. and Macrae, S. – Improving eucalyptus pulp and paper quality using genetic selection and good organization. Tappi Journal, 80 (6):82-89 (1997).
25.
Schmidt, E. A. – A practical model relating kraft pulping costs to hardwood chemical properties and morphology. Appita Journal, 58 (3): 218–224 (2005).
26.
27.
Sorieul, M.; Dickson, A.; Hill, S. J. and Pearson, H. – Plant fibre: molecular structure and biomechanical properties, of a complex living material, influencing Its deconstruction towards a biobased composite. Materials, 9 (618): 1–36; (2016).
31.
Valente, C. A.; de Sousa, A. P. M. de; Furtado, F. P. and Carvalho, A. P. – Improvement program for Eucalyptus globulus at Portucel: technological component. Appita Journal, 45 (6): 403–407 (1992).
32.
Lammi, L. and Svedman, M. – Tailoring pulp quality in the pulping process. In 2o Seminário de Deslignificação. ABTCP, Ribeirão Preto: 02-03/09/1999 Paper 2 8 pgs.
34.
Hubbe. M. A – Flocculation and redispersion of cellulosic fiber suspensions: a review of effects of hydrodiynamic shear and polyeledtolytes. BioResources, 2 (2): 296–331 (2002).
35.
Chevalier-Billosta, V.; Joseleau, J.-P.; Cochaux, A. and Ruel, K. – Tying together the ultrastructural modifications of wood fibre induced by pulping processes with the mechanical properties of paper. Cellulose, 14:141 –152 (2007).
36.
37.
Fahlén J, Salmén L. – Cross-sectional structure of the secondary wall of wood fibers as affected by processing. In: 11th International Symposium on Wood and Pulping Chemistry. Nice, 2001 pg. 585.
38.
41.
Arjas, A. – Printability and runnability. World Pulp and Paper Technology: 157–158. (1994).
42.
Annergren, G. – Fundamentals of pulp fiber quality and paper properties. In: Pulping Conference. TAPPI, Orlando. 1999 pgs: 29–39
43.
46.
47.
48.
Lyytikainen, K.; Saukkonen, E.; Kajanto, I. and Kayhko, J. – The effect of hemicellulose extraction on fibre charge properties and retention behavior of kraft pulp fibres, Bioresources, 6 (1): 219–231 (2011).
49.
Magaton, A. S.; Colodette, J. L.; Gouvea, A. F. G.; Gomide, J. L.; Muguet, M. C. S. and Pedrazzin, C. – Eucalyptus wood quality and its impact on kraft pulp production and use. Tappi Journal, 8 (8): 32–39 (2009).
53.
Paavilainen, L. – European prospects for using nonwood fibers. Pulp and Paper International, 40 (6): 61 (1998).
56.
Paavilainen, L. – Quality – competitiveness of Asian short-fibre raw materials in different paper grades. Papperi Ja Puu, 82 (3): 156 (1998).
57.
58.
Kibblewhite, R. P.; Bawden, A. D. and Hughes, M. C. – Hardwood market kraft fibre and pulp qualities. Appita, 44 (5): 325–332 (1991).
62.
Joutsimo, O. P. and Asikainen, S. – Effect of fiber wall pore structure on pulp sheet density of softwood kraft pulp fibers. BioResources, 8 (2):2719–2737 (2013).
63.
69.
Ora, M. and Maloney. T. C. – The effect of moisture and structure on wet web strength and its variation – a pilot scale approach using dry and rewetted mill made papers. In: 15th Fundamental Research Symposyum, Cambridge, 2013 pgs. 71–100.
71.
Ko, Y. C. and Park, J. M. – Engineering cellulose fibers for high-value added Products for pulp & paper industry. Journal of Korea TAPPI, 47 (6): 22–40 (2015)
72.
Omholt, I. – The effects of curl and microcompressions on the combination of sheet properties. In: International Paper Physics Conference. TAPPI, San Diego, 1999 pg 499–515.
73.
Lindqvist, H. – Improvement of wet and dry web properties in papermaking by controlling water and fiber quality. Academic Dissertation, Åbo Akademi University. Åbo., 2013 85 pgs
75.
Bektals, I.; Tutus, A. and Eroglu H. – A study of the suitability of calabrian pine (Pinus brutia Ten.) for pulp and paper manufacture. Turkish Journal of Agriculture and Forestry 23 (3): 589–597 (1999).
76.
Pikulik, I. I. – Wet pressing – operating aspects. In: TECH95 Theory and Practice of Papermaking Course. CPPA, Ottawa, 1995 Section C3 29 pgs.
78.
Tiikkaja, E. – Fibre properties and paper machine runnability. In: Engineering/Process and Product Quality Conference & Trade Fair. TAPPI, Anaheim, 1999 Volume 3 pgs. 1241–1242.
80.
Tiikkaja, E.; Kauppinen, M. and Glorigiano, P. – Fibre dimensions, their effect on paper properties and required measuring accuracy. In: XXXI Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1998 pgs. 397–402.
82.
Demler, C. L. and Pitz, M. – Comparison of conventionally, ECF and TCF bleached hardwood pulp refining response. In: III International Refining Conference and Exhibition. PIRA/IPST, Atlanta, 1995 Paper 9 8 pgs.
83.
Seth, R. S. – The importance of fibre coarseness for pulp properties. In: 77th Annual Technical Meeting. CPPA, Montreal: 1991 pg. 251.
84.
Malan, F. S.; Male, J. R. and Venter, J. S. M. – Relationship between the properties of eucalyptus wood and some chemical, pulp and paper properties. Paper Southern Africa, 14 (1): 6–16 (1994).
85.
Barrichelo, L. E. G. – Estudo das características físicas, anatômicas e químicas da madeira de Pinus caribeae Mor. Var. hondurensis Barr. Golf para a produção de celulose kraft. Tese de Livre Docência – ESALQ/USP (1979).
87.
Silva Jr., F. G. da; Valle, C. F. do e Muner, J. C. G. – Programa de qualidade da madeira da Votorantim Celulose e Papel – VCP. O Papel, 57 (1): 35–43 (1996).
89.
Kärenlampi, P.; Retulainen, E. and Kolehmainen, H. – Properties of kraft pulps from different forest stands – theory and experiment. Nordic Pulp and Paper Research Journal, 9 (4):214–218 (1994).
90.
Retulainen, E.; Moss, P. and Nieminen, K. – Effect of fines on the properties of fibre networks. In: 10th Fundamental Research Symposium Proceedings. Mechanical Engineering Publications, London, 1993 Volume 2 pgs. 727–769.
91.
Seth, R. S. – The importance of fibre straightness for pulp strength. Pulp and Paper Canada, 107 (1): 34–42 (2006).
96.
Piirainen, R. and Paavilainen, L. – Fiber length measurement in the pulp and paper industry. In: International Process and Materials Quality Evaluations Conference. TAPPI, Atlanta, 1986 pgs. 67–73.
97.
Bawden, A. D. and Kibblewhite, R. P. – Effects of multiple drying treatments on kraft fibre walls. Journal of Pulp and Paper Science, 23 (7): 340–346 (1997).
99.
Hatton, J. V. and Cook, J. – Kraft pulps from second-growth Douglas Fir: relationships between wood, fiber, pulp, and handsheet properties. Tappi Journal, 75 (1): 137–144 (1992).
102.
Philipp, P. and D’Almeida, M. L. O. – Celulose e papel – tecnologia de fabricação de papel – Volume 2. SENAI/IPT, São Paulo, 1988 402 pgs.
104.
Purdy, T. – New techniques for surface assessment. In: Papermaking. World Pulp and Paper Technology, 1994/1995: 181–183.
105.
Ferreira, P. J. and Figueiredo, M. M. – Efeito do cozimento e da refinação nas dimensões transversais das fibras de E. globulus. O Papel, 62 (01: 73–80 (2000).
106.
Alber, W. and Erhard, K. – Differentiation of commercial paper pulps in terms of their behavior in paper manufacturing. Papier, 50 (10A): 24–30 (1996).
108.
Green, S. I. – Pulp fibre drag coefficient. Appita Journal, 59 (2): 120–126 (2006).
113.
Ratnieks, E. and Foelkel, C. E. B. – Uma discussão teórioco-prática sobre polpas de eucalipto para a fabricação de papel “tissue”. In: XXIX Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1996 pgs. 717–734.
115.
117.
Gonçalves, D. – The eucalyptus fiber for tissue papers. In: 7th Brazilian Symposium on the Chemistry of Lignin and Other Wood Components. UFMG, Belo Horizonte, 2001 p. 317–323.
122.
Xu, L.; Filonenko, Y; Li, M. and Parker, I. – Measurement of wall thickness of fully collapsed fibres by confocal microscopy and image analysis. Appita Journal, 50 (6): 501–504 (1997).
124.
Botková, M.; Šutý, Š.; Jablonský, M.; Kučerková, L. and Vrška, M. – Monitoring of kraft pulps swelling in water. Cellulose Chemistry and Technology, 47 (1–2): 95–102 (2013).
126.
Page, D. H. – A theory for tensile strength of paper. Tappi, 52 (4): 674–681 (1969).
127.
Koubaa, A e Koran, Z. – Measure of the internal bond strength of paper/board. Tappi Journal, 78 (3): 103–111 (1995).
128.
Niskanen, K.; Kajanto, I. and Pakarinen, P. – Paper structure. In: Papermaking Science and Technology. Volume 16 – Paper physics, Chapter 1. Ed. Gullichsen, J. e Paulapuro, H. Finnish Paper Engineers’ Association/Paperi ja Puu Oy, Helsinki, 2000.
129.
Sjöberg, J. C.; Häggquist, M.; Wikström, M.; Lindström, T. and Höglund, H. – Effects of pressurized high consistency refining on sheet density. Nordic Pulp and Paper Research Journal, 23 (1): 39–45 (2008).
130.
Wathén, R.; Rosti, J.; Alava, J. M. and Salminen, L. – Fiber strength and zero-span strength statistics – some considerations. Nordic Pulp and Paper Research Journal, 21 (2): 193–201 (2006).
132.
Pulkkinen, I.; Alopaeus, V.; Fiskari, J. and Joutsimo, O. – O uso de dados sobre espessura da parede da fibra para predição das propriedades de folhas de laboratório de polpa de eucalipto. O Papel, 69 (19): 71–85 (2008).
133.
Waterhouse, J. – Formation measurements and paper quality. World Pulp and Paper Technology, (9): 107 (1998).
141.
Jokinen, O. and Ebeling, K. – Flocculation tendency of papermaking fibres. Paperi ja Puu, 67 (5): 317, 318, 320, 321, 323–325 (1985).
143.
Chirat, C. and Lachenal, D. – Brushing up on bleaching techniques. Pulp & Paper International, 41 (10): 41–43 (1999).
145.
Farnood, R. R.; Loewen, S. R. and Dodson, C. T. J. – Estimation of intra-floc forces. Appita, 47 (5): 391–396 (1994).
153.
Paavilainen, L. – Importance of cross-dimensional fibre properties and coarseness for the characteristics of softwood sulphate pulp. Paperi ja Puu, 75 (5): 35–43 (1993)
154.
Korteoja, M. J.; Salminen, L. I.; Niskanen, K. J. and Alava, M. – Statistical variation of paper strength. Journal of Pulp and Paper Science, 24 (1): 1–6 (1998).
156.
Yan, H.; Norman, B.; Lindström, T. and Ankefors, M. – Fibre length effect on fibre suspension flocculation and sheet formation. Nordic Pulp and Paper Research Journal, 21 (1): 30–35 (2006).
159.
Lindholm, C.-A. – Determining optimum combinations of mechanical pulp fractions. Paperi ja Puu, 65 (4): 243–245, 247–250 (1983).
161.
164.
165.
Gurnagul, N., Page, D. H. and Seth, R. S. – Dry sheet properties of Canadian hardwood kraft pulps. Journal of Pulp and Paper Science, 16 (1): 36–41 (1990).
166.
Kerekes, R. J. and Schell, C. J. – Effects of fiber length and coarseness on pulp flocculation. Tappi Journal, 78 (2): 133–139 (1995).
168.
Fahey, H. – Testing and control. In: Pulp and Paper Manufacture, Volume 2, Mechanical Pulping. Third Edition, Chapter 21 R. A. Leask, Ed. Joint-Textbook Committee, Technical Section. CPPA/TAPPI. pgs. 252–271.
169.
Walmsley, M. R. W.; Weeds, Z. and Atkins, M. – Pulp consistency and rotor back-flushing effects on pressure screen reject thickening. Journal of Pulp and Paper Science, 34 (1): 59–68 (2008).
172.
MacLeod, J. M. – Comparing pulp strengths. Pulp and Paper Canada, 81 (12): 128–132 (1980)
178.
184.
Kibblewhite, R. P. and McKenzie, C. J. – Kraft fibre property variation among 29 trees of 15 year old Eucalyptus fastigata and comparison with E. nitens. Appita Journal, 52 (3): 218–225 (1999).
185.
Pulkkinen, I.; Fiskari, J. and Aittamaa, J. – The effect of refining on transverse dimension distributions of eucalypt pulp speies. O Papel, 67 (5): 58–72 (2007).
186.
Hubbe, M. A.; Venditti, R. A.; Barbour, R. L. and Zhang, M. – Changes to unbleached kraft fibers due to drying and recycling. Progress in Paper Recycling, 12 (3):11–20 (2003).
187.
Yan, N. and Aspler, J. – Surface texture controlling speckle-type print defects in a hard printing nip. Journal of Pulp and Paper Science, 29 (11): 357–362 (2003).
190.
191.
Courchene, C. E.; Peter, G. F. and Litvay, J. – Cellulose microfibril angle as a determinant of paper strength and hygroexpansivity in Pinus taeda L. Wood and Fiber Science, 38 (1): 112–120 (2006).
193.
Dodson, C. T. J. and Sampson, W. W. – The effect of paper formation and grammage on its pore size distribution. Journal of Pulp and Paper Science, 22 (5): 165–169 (1996).
194.
DuPlooy, A. B. J. – The relationship between wood and pulp properties of E. grandis (Hill ex-maiden) grown in South Africa. Appita, 33 (4): 257–264 (1980).
195.
Law, K. N. and Koran, Z. – Effect of press drying on paper properties. Appita, 34 (5): 38–390 (1981).
196.
Silva, R. P. and Oliveira, R. C. de – O efeito da refinação na recuperação das propriedades físico-mecânicas de papéis reciclados de pinus. O Papel, 63 (8):87–99 (2003).
199.
Castanho, C. G. and Oliveira, R. C. de – Recuperação e avaliação do rejeito fibroso industrial da polpação kraft de eucalipto para produção de papel. In: III Seminário de Tecnologia Papeleira. ABTCP, São Paulo: 2000 pgs. 96–106.
202.
Dean, G. H. – Objectives for wood fibre quality and uniformity. In: Eucalypt Plantations: Improving Fibre Yield and Quality Conference. CRCTHF/IUFRO, Hobart: 19-24/02/1995 pgs. 5–9.
203.
Forgacs, O. L. – The Characterization of Mechanical Pulps. Pulp and Paper Magazine Canada, 64 (Convention Issue): 89–115 (1963).
205.
Seth, R. S.; Jang, H. F.; Chan, B. K. and Wu, C. B. – Transverse dimensions of wood pulp fibres and their implications for end use. In: Fundamentals of papermaking materials, Ed. Baker, C. B., Pira International, Leatherhead, 1997 Volume 1 pgs. 473–503.
206.
Park, J. Y.; Melani, L.; Lee, H. and Kim, H. J. – Effect of pulp fibers on the surface softness component of hygiene paper. Holzforschung, 74 (5): 497–504 (2019)
207.
Kibblewhite, R. P., Evans, R. and Riddell, M. J. C. – Handsheet property prediction from kraft-fibre and wood-tracheid properties in eleven radiata pine clones. Appita Journal, 50 (2): 131–138 (1997).
208.
Retulainen, E. – Fibre properties as control variables in papermaking? Part 1: fibre properties of key importance in the network. Paperi ja Puu, 78 (4): 187–194 (1996).
209.
Kibblewhite, R. P. – Reinforcement and optical properties of separate and co-refined softwood and eucalypt market kraft pulps. Appita Journal, 47 (2): 149–153, 158 (1994).
213.
Ragnar, M. – The importance of the structural composition of pulp for the selectivity of ozone and chlorine dioxide bleaching. Nordic Pulp and Paper Research Journal, 16 (1): 72-xx (2001).
214.
Santos, A.; Anjos, O. M. and Simões, R. M. S. – Influence of kraft cooking conditions on the pulp quality of Eucalyptus globulus. Appita Journal, 61 (2): 148–155 (2008).
215.
Stratton, R. A. – Characterization of fibre-fibre bond strength from out-of-plane paper mechanical properties. Journal of Pulp and Paper Science, 19 (1): 7–12 (1993).
216.
Gurnagul, N. and Seth, R. S. – Wet-web strength of hardwood kraft pulps. In: 83rd Annual Meeting Technical Section. CPPA, Montreal, 1997 Book B pgs. B137–145.
217.
Demuner, B. J.; Manfredi, V. and Claudio-da-Silva Jr., E. – O refino da celulose de eucalipto – uma análise fundamental. O Papel, 52 (8): 44 – 54 (1990).
218.
McKenzie, A. W. – Interpretation of pulp evaluation results. Appita Journal, 38 (4): 284–290 (1985).
219.
Stevens, W. V. – Refining. In: Pulp and Paper Manufacture – Volume 6. Ed. Hagemeyer, R.W., Manson, D.W. and Kocurek, M.J. The Joint Textbook Committee of the Paper Industry, Atlanta/Montreal, 1992: 187–219 (1992).
220.
Joutsimo, O. and Robertsén, L. – The effect of mechanical treatment on softwood kraft pulp fibers.- pulp and fiber properties. Maderas, Ciencia y Tecnologia, 18 (3): 17 pgs (2016).
221.
Koskenhely, K. – Refining of chemical pulp fibres. In: Papermaking Science and Technology. Volume 8 – Paper making part 1 – stock preparation and wet end, Chapter 4. Ed. Paulapuro, H. Finnish Paper Engineers’ Association/Paperi ja Puu Oy, Helsinki: 2007.
224.
Fergus, B. J.; Procter, A. R.; Scott, J. A. N. and Goring, D. A. I. – The distribution of lignin in spruce wood as determined by ultraviolet microscopy. Wood Science Technology (3): 117–138 (1969).
226.
Mohlin, U-B. – Market SBK and refining response. In: Refining & Mechanical Pulping Conference. PIRA, Barcelona, 2005 Paper 8.
229.
Campbell, W. B. – The cellulose-water relationship in papermaking. Dept. of Interior, Forest Service Bulletin, 84. Ottawa, F.A. Ackland. (1933).
232.
Page, D. H.; El-Hosseiny, F.; Winker, K. and Lancaster, A. P. S. – Elastic modulus of single wood pulp fibers. Tappi Journal, 60 (4): 114–117 (1977).
233.
Page, D. H.; Seth, R. S. and De Grace, J. H. – The elastic modulus of paper. Tappi Journal, 62 (9): 99–102 (1979).
234.
Kerekes, R. J. – Rheology of fibre suspensions in papermaking: an overview of recent research. Nordic Pulp and Paper Research Journal, 21 (5): 598–612 (2006).
242.
248.
Kärenlampi, P.; Niskanen, K. J. and Alava, M. – Fracture toughness of paper: role of fiber properties and fiber bonding. In: International Paper Physics Conference. CPPA/TAPPI, Niagara-on-the-lake, 1995. pgs. 39–46.
249.
Seth, R. S. – Optimizing reinforcement pulps by fracture toughness. Tappi Journal, 79 (1): 170–178 (1996).
255.
Wågberg, L.; Forsberg, S.; Johansson, A. and Juntti, P. – Engineering of fibre surface properties by application of the polyelectrolyte multilayer concept. Part I: modification of paper strength. Journal of Pulp and Paper Science, 28 (7): 222–8 (2002).
262.
Clark, J. d’A. – Mill beating and Refining, In: Pulp Technology and Treatment of Paper. Miller Freeman, San Francisco, 1978 516 pgs.
263.
Seth, R. S.; Page, D. H.; Barbe, M. I. C. and Jordan, B. D. – The mechanism of the strength and extensibility of wet webs. Svensk Papperstiding, 87 (6): 36–43 (1984).
264.
Kulachenko, A. and Uesaka T. – Direct simulations of fiber network deformation and failure. Mechanics of Material, 51:1–14 (2012).
266.
Seth, R. S. – Fiber quality factors in papermaking – II: the importance of fibre coarseness. In: Materials Interactions Relevant to the Pulp, Paper and Wood Industries. Research Society Symposium, San Francisco, 1990 Volume 197 pgs. 143–161.
267.
Page, D. H. – A quantitative theory of the strength of wet webs. Journal of Pulp and Paper Science, 19 (4): J175–176 (1993).
279.
Ibrahem, A. A.; Yousef, M. A. and El-Meadawy, S. A. – Effect of beating on fibre crystallinity and physical properties of paper sheets. Journal of Islamic Academy of Sciences, 2 (4): 295–298 (1989).
281.
Silva Jr., F. G. da e Braga, E. P. – Potencialidade da seleção cde E. urophylla em função da qualidade da madeira destinada à produção de celulose. In: XXX Congresso anual de Celulose e Papel. ABTCP, São Paulo, 1997 pg. 281–292.
282.
Howard, R. C.; Poole, R. and Page, D. H. – Factors analysis applied to the results of a laboratory beating investigation. Jornal of Pulp and Paper Science, 20 (5): 137–144 (1994).
283.
Seth, R. S. and Page, D. H. – Fibre properties and tearing resistance. Tappi Journal, 71 (2): 103–107 (1988).
292.
Broderick, G.; Cacchione, E. and Hérox, Y. – The importance of distribution statistics in the characterization of chip quality. Tappi Journal, 81 (2): 131–142 (1998).
294.
Giertz, H. W. – Fundamentos da fabricação de papel (papermaking fundamentals). ABTCP. Itu, 1989 136 pgs.
295.
Kibblewhite, R. P. – The qualities of radiata pine papermaking fibres. Appita, 35 (4): 289–298 (1982).
298.
Paavilainen, L. – Importance of coarseness and fiber length in papermaking. In: Process Engineering Handbook. Ed. Process Engineering Committee of the Engineering Division. Tappi Press, Atlanta, 1992, 2nd Edition Appendix: 98–108.
299.
Seth, R. S. – Beating and refining response of some reinforcement pulps. Tappi Journal, 82 (3): 147–155 (1999).
300.
301.
Jonhston, R. E.; Li, M. and Waschl, R. – Eucalypt fibre size fractions: modeling and measuring their effect on sheet properties. Appita Journal, 50 (4):307–311 (1997).
302.
Area, M. C.; Benitez, J and Felissia, F. E. – Componentes da resistência à tração de polpas kraft de Eucalyptus grandis. O Papel,71 (8): 48–62 (2010)
307.
Kärenlampi, P. – Effect of distributions of fibre properties on tensile strength of paper: a closed-form theory. Journal of Pulp and Paper Science, 21 (4): 138–143 (1995).
308.
Paavilainen, L. – Effect of sulphate cooking parameters on the papermaking potential of pulp fibres. Paperi ja Puu, 71 (4): 356–363 (1989).
310.
Paavilainen, L. – Conformability, flexibility and collapsibility of sulphate pulp fibres. Paperi ja Puu, 75 (9–10): 680 (1993).
311.
van den Akker, J. A., Lathrop, L. A., Voelker, M. H. and Dearth, L. H. – Importance of fiber strength to sheet strength. Tappi, 41 (8): 416 (1958)
313.
Brännvall, E. and Lindström, M. E. – A study on the difference in tensile strength between industrially and laboratory-cooked pulp. Nordic Pulp and Paper Research Journal, 21 (2): 222–226 (2006).
314.
Fiserová, M.; Gigac, J. and Balbercak, J. – Relationship between fibre characteristics and tensile strength of hardwood and softwood kraft pulps. Cellulose Chemistry and Technology., 44 (7–8), 249–253 (2010).
315.
Gao, W. H.; Chen, K. F.; Yang, R. D.; Li, J.; Yang, F.; Rao, G. H. and Tao, H. – Effects of beating on tobacco stalk mechanical pulp. Cellulose Chemistry and Technology, 46 (3–4): 277–282 (2012).
318.
Singh, S. V. and Rai, A. K. – Suface property inter-relationship in wood-free paper. IPPTA, 5 (4): 9–15 (1993).
319.
Higgins, H. G. – Pulp and paper. In: Eucalyptus for wood production. Ed. Hillis, W. E. and Brown, A. G., CSIRO/Academic Press. London Capitulo 13 pg 290–316.
321.
Frazão, F. J. L. – Características da madeira e da polpa kraft não branqueada de Eucalyptus deglupta Blume introduzido na região de Manaus-AM. In: Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1986 pgs. 79–87.
328.
Blomstedt, M.; Panula-Ontto, S.; Kontturi, E. and Vuorinen, T. – Um método para reduzir o arrancamento de valos de folhas de polpa de eucalipto mediante modificação com carboximetilcelulose. O Papel, 69 (2): 35–44 (2008).
330.
Karlsson, H. – New technique for measurement of fibre properties including vessel cells and mix of fibre species. Appita Journal, 61 (3): 192–196 (2008).
331.
Parham, R. A. – Wood structures – hardwood. In: Pulp and Paper manufacture – Volume I – Properties of Fibrous Raw Materials and their Preparation for Pulping. E.: Kocurek, M. J. and Stevens, C. F. B. The Joint Textbook Committee of the Paper Industry, Atlanta/Montreal, 1983, 28–34.
335.
Carvalho, H. G. de; Oliveira, R. C. de; Gomide, J. L. and Colodette, J. L. – Efeito da idade de corte da madeira e de variáveis de refino nas propriedades da celulose kraft branqueada de eucalipto. In: XXXI Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1998 pg. 367–381.
337.
Lobben, H. T. – The tensile stiffness of paper. Part 1: A model based on activation. Norsk Skogindustri, 29 (12): 311–315 (1975).
340.
Kerekes, R. J. – Pulp flocculation in decaying turbulence: a literature review. Journal of Pulp and Paper Science, 9 (3): 86–91 (1983)
343.
Scott, W. E. – Principles of wet end chemistry. Tappi Press, Atlanta, 1996 185 pgs.
344.
Sandercock, C. F.; Sands, R.; Ridoutt, B. G.; Wilson, L. F. and Hudson, I. – Factors determining wood microstructure in eucalyptus. In: Eucalypt Plantations: Improving Fibre Yield and Quality Conference. CRCTHF/IUFRO, Hobart, 1995 pgs. 12–-135.
348.
Silva, R. P. and Oliveira, R. C. de – A reciclagem de papéis: uma aboradagem técnica. Folha Florestal (93): 9–11 (1999).
351.
Amidon, T. E. – Effect of the wood properties of hardwoods on kraft paper properities. Tappi Journal, 64 (3): 123–126 (1981).
352.
Greaves, B. L. and Borralho, M. G. – The influence of basic density and pulp yield on the cost of eucalypt kraft pulping: a theoretical model for tree breeding. Appita, 49 (2): 90–95 (1996).
355.
Maloney, T. C. and Paulapuro, H. – The formation of pores in the cell wall. Journal of Pulp and Paper Science, 25 (12): 430–436 (1999).
366.
Arrieta, I. – El aprovechamiento de la madera y la importancia de la calidad de astilas en la fabricación de la celulosa. El Papel (77): 46–49 (1999).
367.
Valente, C. A. and Furtado, F. P. – O melhoramento do Eucalyptus globulus. Uma abordagem ecológica. Pasta e Papel (5): 33–37 (1992).
370.
Yllner, S. and Enström, B. – Studies of the adsorption of xylan on cellulose fibers during the sulphate cook – Part 1. Svensk Papperistiding, 59 (6): 229–232 (1956).
376.
French, J.; Conn, A.B.; Batchelor, W.J. and Parker, I.H. – The effect of fibre fibril angle on some handsheet mechanical properties. Appita Journal, 53 (3): 210–226 (2000).
377.
378.
Dickson, A. R.; Corson, S. R. and Dooley, N. J. – Fibre collapse and decollapste determined by cross-sectional geometry. Journal of Pulp and Paper Science, 32 (4): 1–5 (2006).
384.
Pryor, L. O. – Biology of eucalyptys. Edward Arnold, London, 1976. 82 pgs.
387.
Wang, X.; Maloney, T. C. and Paulapuro, H. – Internal fibrillation in never-dried and once-dried chemical pulps. Appita Journal, 56 (6): 455–459 (2003).
389.
Beck, M. V. – The importance of wet end equipment and its influence on retention. In: Retention of Fines and Fillers During Papermaking. Gess, J. M. Ed. Tappi Press, Atlanta, 1998, Chapter 7 pgs. 129–158.
393.
Baker, C. F. – Good practice for refining the types of fiber found in modern paper furnishes. Tappi Journal, 78 (2): 147–157 (1995).
397.
Rudie, A. W. – Wood and how it relates with wood products. Tappi Journal, 81 (5): 223–228 (1998).
399.
Busker, L. H. and Cronin, D. C. – The relative importance of wet press variables in water removal. Pulp and Paper Canada, 85 (6): 138–147 (1984).
406.
413.
Salmén, L. – Micromechanical understanding of the cell-wall structure (Micromécanique de la structure de la paroi cellulaire) Comptes Rendus Biologies, 327 (9–10): 873–880 (2014).
426.
Ververis, C.; Georghiou, K.; Christodoulakis, N.; Santas, P. and Santas, R. – Fiber dimensions, lignin and cellulose content of various plant materials and their suitability for paper production. Industrial Crops and Products, 19: 245–254 (2004).
427.
Fengel, D. and Wegener, G. – Wood chemistry, ultrastructure, reactions. De Gruyter, Berlin, 1983
428.
Pydimalla, M. and Reddy, K. – Effect of pulping, bleaching and refining process on fibers for paper making – A review. International Journal of Engineering Research & Technology, 9 (12): 310–316 (2020).
429.
Stark, H. – Pulp properties of TCF pulps. In: Emerging Pulping & Bleaching Technologies Workshop. TAPPI, Durhan, 1995 Section Bleaching III.
430.
Stone, J. E. and Scallan, A. M. – A structural model for the cell wall of water swollen sood pulp fibres based on their accessibility to macromolecules. Cellulose Chemistry Technology (2): 343–358 (1968).
433.
434.
437.
Josephson, W.; Jansson, U.; Sezgi, U. S. and Fagerströn, K. – Low consistency refining of a non-conventionally cooked pulp. In: Papermakers Conference. TAPPI, Atlanta, 1999 Book 2 pgs. 729–739.
439.
Ferreira, C. R.; Fantini Jr, M.; Colodette, J. L.; Gomide, J. L. and Carvalho, A. M. M. L. – Avaliação tecnológica de clones de eucalipto. Parte 1: qualidade da madeira para produção de celulose kraft. Scientia Forestalis (70): 161–170 (2006).
440.
Lennholm, H. and Iversen, T. – The effects of laboratory beating on cellulose structure. Nordic Pulp and Paper Research Journal, 10 (2): 104–109 (1995).
442.
Park, S. W. and Pinto, J. M. – Cinética da polpação kraft. Parte 1: a evolução de modelos empíricos para modelos mecanísticos. In: XXIII Congresso Anual de Celulose e Papel, ABTCP, São Paulo, 1990 pgs. 69–91.
443.
Scallan, A. M. and Tigerström, A. C. – Swelling and elasticity of the cell walls of pulp fibres. Jornal of Pulp and Paper Science, 18 (5): 188–193 (1992).
444.
Sjöström, E. – Wood chemistry – fundamentals and applications, 2nd. Edition. Academic Press, San Diego, 1993 pg. 204–222.
450.
452.
Smook, G. A. – Preparation of papermaking stock In: Handbook of Pulp and Paper Thechnologists – Chapter 13. Angus Wilde, 2002. pgs 190–204
454.
456.
Gharehkhani, S.; Sadeghinezhada, E.; Kazi, S. N.; Yarmanda, H.; Badarudina, A.; Safaei, M. R. and Zubir, M. N. M. – Effect of pulp consistency during refining of pulp refining on fiber properties—A review. Carbohydrate Polymers Journal, 115: 785–803 (2015).
462.
466.
Berthold, J. and Salmén, L. – Effects of mechanical and chemical treatments on the pore-size distribution in wood pulps examined by inverse size-exclusion chromatography. Journal of Pulp and Paper Science, 23 (6): 245–253 (1997).
467.
Dinus, R. J. and Welt, T. – Tailoring fiber properties to paper manufacture: recent developments. Tappi Journal, 80 (4): 127–139 (1997).
468.
Higgins, H. G.; Young, J. de; Balodis, V.; Phillips, F. H. and Colley, J. – The density and structure of hardwoods in relation to paper surface characteristics and other properties. In: Process Engineering Handbook. Ed. Process Engineering Committee of the Engineering Division. Tappi Press, Atlanta, 1992, 2nd Edition Appendix: 77–81.
469.
Luukko, K.; Laine, J. and Pere, J. – Chemical characterization of different mechanical pulp fines. Appita Jorunal, 51 (2): 126–131 (1999).
470.
Waterhouse, J. F. and Riipa, T. – Hardwoods from softwoods? In: III International Refining Conference and Exhibition. PIRA/IPST, Atlanta, 1995 Paper 12 24 pgs.
474.
Snowman, V. R.; Genco, J. M.; Cole, B. J. W.; Kwon, H. B. and Miller, W. J. – Bond strength of oxygen-delignified kraft pulps. Tappi Journal, 82 (2): 103–109 (1999).
477.
Oliveira, M. H. de – Wet web strength development of paper. Master’s Thesis, McGill University, Montreal, 2007 118 pgs.
478.
Jardim, C. – Variações na densidade básica da madeira versus impacto no processo produtivo. In: 1° Encontro de Operadores de Pátio de Madeira e 5° Encontro de Operadores de Linhas de Fibras. ABTCP. 2019.
483.
Bertolucci, F. L. G.; Demuner, B. J.; Garcia, S. L. R. and Ikemori, Y. K. – Increasing fiber yield and quality at Aracruz. In: Eucalypt Plantations: Improving Fibre Yield and Quality Conference. CRCTHF/IUFRO, Hobart, 1995 pgs. 31–34.
488.
Salmén, N. L. and Olsson, A-M. – Interaction between hemicelluloses, lignin and cellulose: structure-property relationships. Journal of Pulp and Paper Science, 24 (3): 99–103 (1998).
489.
Gomide, J. L.;Colodette, J. L.; Oliveira, R. C. de; Girard, R. and Argyropoulos, D. S. – Fatores que afetam a branqueabilidade de polpas kraft de eucalyptus. Parte 2: Influência de parâmetros da Polpação. O Papel, 60 (12): 61–70 (2000).
492.
Kubelka, V.; Wizani, W.; Neubauer, G. and Kappel, J. – ENERBATCH extended delignification for TCF pulp. In: International Non-Chlorine Bleaching Conference. Pulp & Paper/Emerging Technology Transfer, Amelia Island, 1994 Paper 3-2 23 pgs.
493.
Demuner, B. J. Viana Doria, E. L.; Claudio-da-Silva Jr., E. and Manfredi, V. – As propriedades do papel e as características das fibras de eucalipto. In: XXIV Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1991 pgs. 621–641.
494.
Cao, B.; Tschirner, U. and Ramaswamy, S. – Impact of pulp chemical composition on recycling. Tappi Journal, 81 (12): 119–127 (1998).
495.
Hanna, K. R., Fisher, J. J.; Krotm, M. J.; Goyal, G. C.; Packwood, R. E. and Ragauskas, A. J – Differences in bleaching and refining responses of displacement batch hardwood and softwood caused by pulping conditions and structure of residual lignin. In: International Pulp Bleaching Conference. TAPPI, Helsinki, 1998 Book 2. pgs. 323–328.
496.
Backstrom, M. and Jensen, A. – Modified kraft pulping to high kappa numbers. In: Annual General Conference. APPITA, (cidade: 1999 Volume 1 pgs. 101–109.
501.
Colodette, J. L., Gomide, J. L., Girard, R., Jaaskelainen, A. S., Argyropoulos, D. S. – Influence of pulping conditions on hardwood pulp yield. Quality and bleachability. In: International Pulp Bleaching Conference, Halifax, 2000, pg 41–48 – Oral presentation.
502.
El-Hosseiny, F. – Influence of the “Giertz effect” on development of short-span compression strength. Tappi Journal, 81 (2): 177–180 (1996).
503.
Moss, P. A. and Pere, J. – Microscopical study on the effects of partial removal of xylan on the swelling properties of birch Kraft pulp fibres. Nordic Pulp and Paper Research Journal, 21 (1): 8–12 (2006).
504.
Antes, R. and Joustino, O. P. – Fiber surface and paper technical properties of Eucalyptus globulus and Eucalyptus nitens – pulps after modified cooking and bleaching. BioResources, 10 (1): 1599–1616 (2015).
505.
506.
Pere, J.; Pääkkönen, E., Ji, Y.; Retulainen, E. – Influence of the hemicellulose content on the fiber properties, strength, and formability of handsheets. BioResources, 14 (1): 251–263 (2019).
510.
Wågberg, E. and Lindström, M. E. – The hemicellulose composition of pulp fibres and their ability to endure mechanical treatment. Tappi Journal, 6 (10): 19–24 (2007).
511.
Genco, J. M. – Fundamental process in stock preparation and refining. In: Pulping Conference. TAPPI, Orlando, /1999 pgs. 57–95.
513.
Barbosa, B. M.; Colodette, J. L.; Muguet, M. C dos S.; Gomes, V. J.; e Rubens, C. de O. – Effects of xylan in eucalyptus pulp production. CERNE, 22 (2): 207–213 (2016).
514.
Antes, R. and Joutsimo, O. P. – Effect of modified cooking on fiber wall structure of E. globulus and E. nitens. BioResources, 10 (2): 2195–2212 (2015).
518.
Ferreira, M. and Santos, P. E. F. – Eucalyptus wood traits for species/provenances/plus trees and clones planted in Brazil – a review applied to genetic improvement for pulp production. In: Eucalypt Plantations: Improving Fibre Yield and Quality Conference. CRCTHF/IUFRO, Hobart, 1995 pgs. 258–260.
521.
Gonzaga, J. V. – Qualidade da madeira e da celulose kraft de treze espécies de Eucalyptus. Master’s Thesis, Universidade Federal de Viçosa, Viçosa, 1983 119 p.
529.
Claudio-da-Silva Jr, E. – The Flexibility of pulp fibers – a structural approach. In: International Paper Physics Conference. TAPPI/CPPA, Harwichport, 1983 pgs. 13–25.
531.
Parhan, P. A. – Wood physical properties. In: Pulp and Paper Manufacture – Volume 1 – Properties of Fibrous Raw Materials and Their Preparation for Pulping. Ed. Kocureck, M. J. and Stevens, C. F. B. The Technical Committee of the Paper Industry, Atlanta/Montreal, 1983 pg. 46–54
532.
Miranda, C. R. and Barrichelo, L. E. G. – Celulose de madeira de E. citriodora: influência do tamanho dos cavacos. In: XXIII Congresso Anual de Celulose e Papel. ABTCP, São Paulo: 1990 pgs. 01–34.
534.
Evans, R.; Kibblewhite, R. P. and Lausberg, M. – Relationships between wood and pulp properties of twenty-five 13 year old radiata pine trees. Appita Journal, 52 (2): 133–139 (1999).
546.
Mohlin, U.-B e Miller, J. – Industrial refining – effects of refining conditions on fibre properties. In: III International Refining Conference and Exhibition. PIRA/IPST, Atlanta, 1995 Paper 4.
548.
Meadows, D. G. – An eye to the future: stock preparation. Tappi Journal, 81 (2): 70–78 (1998).
555.
Dowens, G. M. – Wood properties of interest in plantation productivity. In: Sampling Plantation Eucalyptus for Wood and Fibres Properties. Chapter 1. Ed. Dewens, G. M. et al CSIRO Publishing, Collingwood, 1997 pgs. 1–8.
563.
Carrillo, I.; Aguayo, M. G.; Mendonça, S. V. R. T. and Elissetche, J. P. – Variations in wood anatomy and fiber biometry of Eucalyptus globulus genotypes with diferent wood density. Wood Research. 60 (1): 1–10 (2015).
565.
Trugilho, P. F.; Mendes, L. M.; Lima, J. T. and Silva, J. R. M. da – Uso de técnicas multivariadas na classificação de clones de eucalipto para produção de celulose e papel. In: XXX Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1997 pgs. 309–315.
567.
Silva, D. de J., Oliveira, R. C. de; Colodette, J. L. and Gomide, J. L – Impacto da qualidade da madeira na deslignificação, no branqueamento e nas propriedades físico-mecânicas da polpa kraft de eucalipto. In: XXIX Congresso Anual de Celulose e Papel. ABTCP, São Paulo 1996 pgs. 453–470.
571.
Salmén, L.; Olsson, A-M.; Stevanic, J. S.; Simonović, J. and Radotić, K. – Structural organization of the wood polymers in the wood fibre. BioResources, 7 (1): 521–532 (2012).
572.
Leask, R. A. – Introduction. In: Pulp and Paper Manufacture, Volume 2, Mechanical Pulping. R. A. Leask, Ed. Joint-Textbook Committee, Technical Section. CPPA/TAPPI.
575.
584.
Derakhshandeh, B.; Kerekes, R.; Hatzikiriakos, S. and Bennington, C. – Rheology of pulp fibre suspensions: A critical review. Chemical Engineering Science 66: 3460–3470 (2011).
588.
Eklund, D. and Lindström, T. – Paper chemistry – An introduction. DT Paper Science Publications, Grankulla, Finland, 1991 305 pgs.
589.
593.
Chauhan, A.; Kumari, A. and Ghosh, U. K. – Blending impact of softwood pulp with hardwood pulp on different paper properties. Tappsa Journal,. 2: 16–22 (2013).
594.
Hubbe, M. A.; Venditti, R. V. and Rojas, O. J. – What happens to cellulosic fibers during papermaking and recycling? A Review. BioResources, 2 (4): 739–788 (2007).
601.
Uesaka, T. and Moss, C. – Effects of fibre morphology on hygroexpansivity of paper: a micromechanics approach. In: 11st Fundamental Research Symposium. PIRA, Leatherhead, 1997 pgs. 663.
603.
606.
MacLeod, M. and Pelletier, L. J. – Basket cases: kraft pulps inside digesters. Tappi Journal, 70 (11): 47 (1987)
607.
De Grace, J. and Page, D. H. – The extensional behavior of commercial softwood bleached kraft pulps. Tappi Journal, 59 (7): 98 (1976).
610.
Lumiainen, J. – Refining – a key to upgrading the papermaking potential of recycled fibre. Paper Technology,35 (9): 41–44 (1994).
614.
Liu, H.; Jixian Dong. J.; Guo, X.; Jiang, X.; Luo, C.; Xiaohui Tian, X.; Yang, R.; Zhang, L.; Bo Wang, B.; Yan, Y. – Refining characteristics of hardwood pulp using straight and curved bar plates. Journal of Korea TAPPI, 51 (5): 45–60 (2019).
615.
Li, M.; Johnston, R. E.; Xu, L.; Filonenko, Y. and Parker, I. – Characterization of hydrocycone-separated eucalypt fibre fractions. Journal of Pulp and Paper Science, 25 (8): 299–304 (1999).
616.
Nazhad, M. M. – Recycled fibre quality – a review. Journal of Industrial and Engineering Chemistry, 11 (3): 314 (2005).
618.
620.
Jang, H. F. – A theory for the transverse collapse of wood pulp fibres. In: 13th Fundamental Research Symposium, PIRA, Oxford, 2001, pg. 193.
622.
Johansson, K.; Thuvander, F. and Germgård, U. – Single fibre fragmentation: a new measure of fibre strength loss during brown stock washing and oxygen delignification. Appita Journal, 54 (3): 276–280 (2001).
623.
Miletzky, F.; Erhard, K. and Alber, W. – Neue methoden zur chemischen und physikalischen charakterisierung von Zellstoffen. PTS Symposium, Dresden, 1995.
624.
626.
Smith, S. – The action of the beater in papermaking. Paper Trade Journal, 106 (26): 47–48 (1922) [583, 1031].
627.
628.
Dalpke, B. and Kerekes, R. J. (2005). The influence of fibre properties on the apparent yield stress of flocculated fibre suspensions. Journal of Pulp and Paper Science, 31 (1): 39–43 (2005).
632.
Havelock, G. – Dynamic simulation of press drying. Paper Technology, 31 (8) (1990).
633.
Ellis, R. L. and Sedlachek, K. – Recycled vs. virgin fiber characteristics: a comparison. Tappi Journal, 76 (2): 143–146 (1993).
634.
635.
Dowens, G. M.; Hudson, I. L. and Raymond, C. A. – Variation in fibre dimensions in plantation eucalyptus. In: Sampling Plantation Eucalyptus for Wood and Fibre Properties. Ed. Dowens, G. M. and co-authors. CSRIO Publishing, Collingwood, 1997 Appendix 2 pgs. 100–109.
637.
Paavilainen, L. and Luner, P. – Wet flexibility as a predictor of sheet properties. Espra Research Reports, 84 (IX): 2 (1986).
638.
Wardrop, A. B. – Fibre morphology and papermaking. Tappi Journal, 52 (3): 396 (1969).
640.
Gao, Y.; Li, K. and Wang, Z. – The influence of pulp furnish components on the property of supercalendered paper. Pulp and Paper Canada, 108 (1): 44–49 (2007).
642.
Pulkkinen, I.; Fiskari, J. and Alopaeus, V. – The use of fibre wall thickness data to predict handsheet properties of eucalypt pulp fibres. Journal of Applied Science, 9 (22): 1 (2009)
644.
Görres, J.; Amiri, R.; Wood, J. R. and Karnis, A. – The apparent density of sheets made from pulp blends. Tappi Journal, 79 (1): 179–187 (1996).
645.
Carvalho, M. G.; Martins, A. A. and Figueiredo, M. M. – Fracionamento de pasta kraft de eucalipto: caracterização físico-química e desempenho papeleiro. O Papel, 58 (7): 83–86 (1997).
650.
651.
Yu, Y.; Kettunen, H.; Hiltunen, E. and Niskanen, K. – Comparison of abaca and spruce as reinforcement. In: International Paper Phuysics Conference. TAPPI, Sao Diego, 1999 p. 161–169.
653.
Karnis, A. – The mechanism of fiber development in mechanical pulping. Journal of Pulp and Paper Science, 20 (10): 280–288 (1994).
654.
Mansfield, S.D. and Kibblewhite, R.P. – Reinforcing potential of different eucalypt:softwood blends during separate and co-PFI mill refining. Appita Journal, 53 (5): 385–392 (2000).
656.
Yli-Viitala, P.; Jokinen, H.; Niinimäki e Ämmälä, A. – Hydrocyclone sand separation. In: 59th Annual Meeting. APPITA, Auckland, 2005 pg 39–43.
657.
Bäckström, M.; Melander, E. and Brännall, E. – Study of the influence of charges on refinability of bleached softwood kraft pulp. Nordic Pulp and Paper Research Journal, 28 (4): 588–595 (2013)
658.
Ataíde, M. R. and Figueiredo, M. M. L. – Algumas considerações sobre a caracterização de fibras celulósicas. Pasta e Papel (4): 55–58 (1992).
659.
Lumiainen, J. – Energy saving in low consistency refining. Journal of Pulp and Paper Science, 19 (3): J125-J130 (1993).
660.
Dillner, B e Tibbing, P. – Iso-thermal cooking to low kappa numbers facilitates TCF bleaching to full brightness. In: International Non-Chlorine Bleaching Conference. Pulp & Paper/Emerging Technology Transfer, Hilton Head, 1993 Paper 37 27 pgs.
662.
Carlsson, J.; Persson, W.; Hellentin, P. and Malmqvist, L. – The propagation of light in paper: modeling and Monte Carlo simulations. In: International Paper Physics Conference. TAPPI, Niagara-on-the-lake, 1995 pgs. 83–86.
663.
Laivins, G. V. and Scallan, A. M. – Removal of water from pulps by pressing. Part 1: inter- and intra-wall water. Tappi Journal, 77 (3): 125–131 (1994).
664.
Hietanen, S. and Ebeling, K. – A new hypothesis for the mechanics of refining. Paperi ja Puu, 72 (2): 172–179 (1990).
665.
Crotogino, R. H. and Gratton, M. F. – On-machine calendering – the process. In: TECH95 Theory & Practice of Papermaking Course. CPPA, Ottawa, 1995 Section F1 33 pgs.
666.
Salvador, E.; Colodette, J. L.; Gomide, J. L. and Oliveira, R. C. de – Efeito da deslignificação com oxigênio nas propriedades físico-mecânicas de polpas kraft. O Papel, 61 (2): 75–96 (2001).
667.
Heikkurinen, A.; Levlin, J.-E. and Paulapuro, H. – Principles and methods in pulp characterization – basic fiber properties. Papperi ja Puu, 73 (5): 411–417 (1991).
669.
Kibblewhite, R. P. and Bawden, A. D. – Blends of extreme high and low coarseness radiata pine kraft pulps – fibre and handsheet properties. Appita, 43 (3): 199–207 (1990).
670.
Clarke, C. R. E.; Garbutt, D. C. F. and Pearce, J. – Growth and wood properties of preveances and trees of nine eucalypt especies. Appita Journal, 50 (2): 121–130 (1997).
672.
Carpim, M. A.; Barrichelo, L. E. G.; Claudio-da-Silva Jr., E. and Dias, R. L. de V. – A influência do número de fibras por grama nas propriedades ópticas do papel. In: XX Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1987 pgs. 183–205.
673.
Kibblewhite, R. P. – Effects of pulp drying and refining on softwood fibre wall structural organizations. In: 9th Fundamental Research Symposium, PIRA, Cambridge, 1989 pgs. 121–152.
675.
Kibbewhite, R. P. and Bawden, A. D. – Fibre and fibre wall response to refining in softwood and hardwood kraft pulps. PAPDRO-New Zealand B. Report, 69, 1990.
676.
Hortal, J. G. – Composicion quimica y estructura de la fibra. In: Constituyentes fibrosos de pastas y papeles. Ed. Escuela Técnica Superior de Ingenieros Industriales de Terrassa, 1988 Capitulo 2 pgs. 11–36.
677.
Atack, D. – Towards a theory of refining mechanical pulping. Appita, 34 (3): 223–227 (1980).
678.
Rantanen, J.; Hitunen, E.; Nieminen, K.;Kerekers, R. and Paulapuro, H. – Construction or a wintl3 bar refinin34. Tappi Journal, 10 (7): 45–51. (2011).
680.
Lewis, D. W. and Danforth, J. – Stock preparation analysis. Tappi Journal, 45 (3): 185–188 (1962).
683.
Leskelä, M. – A model for the optical properties of paper. Part 1: theory. Paperi ja Puu, 75 (9–10): 683–688 (1993).
684.
Luce, J. E. – Transverse collapse of wood pulps fibers: fiber models, the physics and chemistry of wood pulp fibers. In: Tappi STAP number 8, 1970.
685.
Mark, R. E. – Handbook of physical and mechanical testing of paper and paperboard. Marcel Deckker, Inc., New York, 1984 508 pgs.
686.
Mayr, M.; Eckard, R.; Thaller, A. and Bauer, W. – Characterization of fines quality and that independent effect on sheet properties. In: 15th Fundamental Research Simposium, Oxford, 2017 pgs 299–322.
688.
Motamedian, H. R.; Halilovic, A. E. and Kulachenko, A. – Mechanisms of strength and stiffness improvement of paper after PFI refining with a focus on the effect of fines. Cellulose 26: 4099–4124 (2019).
689.
Fischer, W. J.; Mayr, M.; Spirk, S.; Reishofer, D.; Jagiello, L. A.; Schmiedt, R.; Colson, J.; Zankel, A. and Bauer, W. – Pulp fines—characterization, sheet formation, and comparison to microfibrillated cellulose. Polymers, 9: 12 pgs (2017).
690.
Comelato, J. S.; Ventorim, G.; Caraschi, J. C.; Santos, I. R. dos – Geração de finos no branqueamento de pasta kraft de eucalipto e seu efeito nas propriedades do papel. Revista Árvore, 37 (1) (2013).
691.
Bäckström, M.; Kolar, M.-C. and Htun, M. – Characterization of fines from unbleached kraft pulps and their impact on sheet properties, Holzforschung, 62 (5): 546–552 (2008).
692.
693.
Retulainen, E. and Ebeling, K. – Fibre to fibre bonding and ways to characterize the bond strength. Appita Journal, 46 (2): 282–288 (1993).
694.
Kibblewhite, R. P. – The fibres of mechanical pulps – drying and latency effects. Appita, 35 (3): 216–224 (1981).
696.
Forsskåhl, I.; Tylli, H. and Olkkonen, C. – Participation of carbohydrate-derived chromophores in the yellowing of high-yield and TCF pulps. Journal of Pulp and Paper Science, 26 (7): 245–249 (2000).
698.
O’Neil, P. L.; Karen, D. H. and Michell, A. J. – and Tijero, J. – Focused beam reflectant measurement as a tool to measure flocculation. Tappi Journal, 1 (10): 14–20 (2002).
699.
Htun, M. and Ruvo, A. D. – Implication of fines fraction for properties of bleached Kraft sheet. Svensk Papperstidning, 81 (16): 507–510 (1978)
700.
Wang, Q. Q.; Zhu, J. K.; Gleisner, R.; Kuster, T. A.; Baxa, U. and McNeil, S. E. – Morphological development of cellulose fibrils of a bleached eucalyptus pulp by mechanical fibrillation. Cellulose, 19: 1631–1643 (2012).
701.
Ratnieks, E. and Martins, M. A. L. – Eucalyptus refining and white water quality. In: XXXV Congresso Anual. ABTCP, São Paulo, 1992 11 pgs.
702.
Lindström, T. – Chemical factors affecting the behavior of fibres during papermaking. Nordic Pulp and Paper Research Journal, 7 (4): 181–192 (1992).
703.
Scallan, A. M. – The Effect of Acidic Groups on the Swelling of Pulps, Tappi Journal, 66(11), 73 (1983).
704.
Hammar, L-Å; Bäckström, M. and Htun, M. – Efeitos da concentração de eletrólito e do pH na característica de refino de celuloses kraft não branqueadas. O Papel, 63 (8): 79–86 (2003).
705.
Kuitunen; S.; Pulkkinen, I.; Tarvo, V. and Alopaeus, V. – Modeling of fiber swelling. In: 5th ICEP – International Colloquium on Eucalyptus Pulp, Porto Seguro, 2011 9 pgs.
706.
Kuitunen, S., and, Tarvo, V. – Modeling of fiber swelling. In: 5th International Colloquium on Eucalyptus Pulp. Porto Seguro, 2011 9 pgs.
707.
Lobben, H. T. – The tensile stiffness of paper. Part 2: Activation studied by freeze drying. Nordic Skogindustri, 30 (3): 43–48 (1976)
708.
Lindström, T. and Carlsson, G. – The effect of carboxyl groups and their ionic form during drying aon the hornification of cellulose fibers. Svensk Papperstiding,85 (15): 146–151 (1982).
709.
Wang, X., Paulapuro, H. and Maloney, T. C. – Chemical pulp refining for optimum combination of dewatering and tensile strength. Nordic Pulp and Paper Research Journal, 20 (4): 442–447 (2005)
710.
Joris, G. – Optimized fillings for LC refiners. In: III International Refining Conference and Exhibition. PIRA/IPST, Atlanta, 1995 Paper 22 89 pgs.
711.
Stone, J. E. and Scallan, A. M. – The effect of component removal upon the porous structure of the cell wall of wood. Part 2 – swelling in water and the fibre saturation point. Tappi, 50 (10): 496–501 (1967).
712.
Lindström, T. and Kolman, M. – The effect of pH and electrolyte concentration during beating and sheet forming on paper strength. Svensk Paperstiding, 85 (15): 140 (1982).
715.
Scallan, A. M. and Grignon, J. – The efeect of cations on pulp and paper properties. Svensk Papperstiding., 82 (2): 40–47 (1979)
716.
Barzyk, D.; Page, D. H. and Ragauskas, A. – Acidic group topochemistry and fibre-to-fibre specific bond strength. Journal of Pulp and Paper Science, 23 (2): 59–61 (1997).
717.
Laine, J. – The effect of surface chemical composition and charge on the fibre and paper properties of unbleached and bleached kraft pulps.Doctoral Thesis, Helsinki University of Technology, Espoo, 1996.
720.
Koljonen, K.; Österberg, M.; Kleen, M.; Fuhrmann, A. and Stenius, P. – Precipitation of lignin and extractives on kraft pulp: Effect on surface chemistry, surface morphology and paper strength. Cellulose, 11: 209–224 (2004).
721.
Laivins, G. and Scallan, T. – Acidic versus alkaline beating of pulp. Journal of Pulp and Paper Science, 26 (6): 228–233 (2000).
723.
Shen, W.; Yao, W.; Li, M. and Parker, I. – Characterization of eucalypt fibre surface using inverse gas chromatography and X-ray photoelectron spectroscopy. Appita Journal, 51 (2): 147–151 (1998).
725.
Torgnysdotter, A. and Wågberg, L. – Study of the joint strength between regenerated cellulose and its influence on the sheet strength. Nordic Pulp and Paper Research Journal, 18 (4): 455–459 (2003).
728.
Wågberg, L.; Bjorklund, M – On the mechanism behind wet strength development in papers containing wet strength resins. Nordic Pulp and Paper Research Journal, 8 (8): 53 (1993).
730.
Isogai, A.; Kitaoka, C.; Onabe, F. – Effects of carboxyl groups in pulp on retention of alkylketene dimer. Journal of Pulp and Paper Science, 23 (5): 215 (1997).
732.
733.
Bäckström, M. and Hammar, L-A – The influence of the counter-ions to the charged groups on the refinability of the never-dried bleached pulps. BioResources, 5(4): 2751–2764 (2010).
734.
Niemelä, K.; Alén, R. and Sjöström, E. – The formation of carboxylic acids during kraft and kraft-anthraquinone pulping of birch wood. Hozforschung, 39: 167–172 (1985).
735.
Sjöström, E. – The origin of charge on cellulosic fibres. Nordic Pulp and Paper Research Journal, 4 (4): 181 (1989).
736.
737.
Choi, K. H.; Kim, A. R. and Cho, B. U. – Effects of alkali swelling and beating treatments on properties of kraft pulp fibers. BioResources, 11 (2): 3769–3782 (2016).
738.
Barzyk, D.; Page, D. H. and Ragauskas, A. – Carboxylic acid groups and fibre bonding. The fundamentals of papermaking materials, Volume 2 pg. 893 (1997).
742.
Levlin, J. E. – Some differences in the beating behavior of softwood and hardwood kraft pulps. In: International Symposium on Fundamental Concepts of Refining. IPC, Appleton, 1980.
745.
Fiskari, J. – Oxalic acid formation in oxygen chemical bleaching. In: Pulping Conference. TAPPI, Orlando, 1999, volume 2, pgs. 7–10.
747.
Keckes, J.; Burgert, I.; Fruhmann, K.; Muller, M.; Kolling, K.; Hamilton, M.; Burghammer, M.; Roth, S.V.; Stanzl-Tschegg, S. and Fratzl, P. – Cell-wall recovery after irreversible deformation in wood. Natural Materials, 2: 810–814 (2003).
749.
Torgnysdotter, A. and Wågberg, L. – Influence of electrostatic interactions on fibre/fibre joint and paper strength. Nordic Pulp and Paper Research Journal, 19 (4): 440–447 (2004).
750.
Evans, B. E. – The effect of process water on paper properties. Paper Technology Ind., 22 (3): 99 (1981).
751.
Zhao, C.; Zhang, H.; Zeng, X.; Li, H. and Sun, D, – Enhancing the inter-fiber bonding properties of cellulosic fibers by increasing different fiber charges. Cellulose, (23): 1617–1628 (2016).
752.
753.
Wang, F. and Hubbe, M. A. – Charge properties of fibers in the paper mill environment. 1. effect of electrical conductivity. Journal of Pulp Paper Science, 28 (10): 347–353 (2002).
754.
Paulapuro, H. – Wet pressing – present understanding and future chalenges. Translations of Fundamental Research Symposium, D.F.Baker Ed., BPBMA, London, 2001 639 pgs.
756.
Scallan, A. M. and Carles, J. E. – Correlation of water retention value with fiber saturation point. Svensk Papperstiding, 75 (17): 699–703 (1972).
758.
Seth, R. S.; Barbe, M. C.; Willians, J. C. R. and Page, D. H. – The strength of wet webs. Tappi, 65 (3): 135 (1982).
759.
Vaz, A.; Silvy, J.; Gil, C. and Simões, R – Otimização na refinação de pastas químicas: minimização enegética e otimização conjugada de propriedades. In: 45th ABTCP International Pulp and Paper Congress and VII IberoAmerican Congress on Pulp and Paper Research. Sao Paulo., 2012 14 pgs.
761.
Stone, J. E.; Scallan, A. M. and Abrahamson, B. – Influence of beating on cell wall swelling and internal fibrillation. Svensk Papperstiding, 71 (19): 687–694 (1968).
762.
Maloney, T. C.; Laine, J. E. and Paulapuro, H. – Comments on the measurement of cell wall water. Tappi Journal, 82 (9): 125–127 (1999).
766.
Lee, J-Y.; Kim, C-H.; Kwon, S.; Park, H-H.; Yim, H-T.; Gu, H-G. and Min, B-G. – Study of mixed refining behaviors of softwood kraft pulps and hardwood kraft pulps using different bar fillings. Journal of Korea TAPPI, 50(5): 31–38 (2018).
768.
769.
McIntoch, D. C. – The effect of refining on the structure of the fiber wall. Tappi, 50 (10): 482–488 (1967).
770.
Emerton, H. W. – Fundamentals of the beating process. Marshall Press, London, 1957 137 pgs.
771.
Mayr, M.; Eckhart, R.; Winter, H. and Bauer, W. – A novel approach to determining the contribution of the fiber and fines fraction to the water retention value (WRV) of chemical and mechanical pulps. Cellulose 24: 3029–3036 (2017
774.
Campos, E. da S. – A influência do perfil transversal de umidade da folha na estabilidade dimensional do papel. In: XXVIII Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1995 pgs. 667–675.
775.
Laivins, G. V. and Scallan, A. M. – The mechanism of hornification of wood pulps. In: 10th Fundamental Research Symposium. PIRA, Oxford, 1993 pgs. 1235–1260.
783.
Chen, Y.; Wan, J.; Dong, X. and Ma, Y. – Fiber properties of eucalyptus kraft pulp with different carboxyl group contents. Cellulose, 20:2839–2846 (2013).
784.
Waterhouse, J. F. – The ultimate strength of paper. In: Design Criteria for Paper Performance. Ed. Kolseth, P; Fellers, C. and Salmen, L. STFI, Meddelande A 969, 1987.
785.
Ingmanson, W. and Thode, E. – Factors contributing to the strength of paper – relative bonded area. Tappi, 42 (1): 83–93 (1959).
786.
Luner, P.; Karna, A. E. U. and Donofrio, C. P. – Studies in inter fiber bonding of paper – the use of optical bonded areas with high yield pulps. Tappi, 46 (6): 409–414 (1961).
787.
Tanaka, F. and Fukui, N. – The behavior of cellulose molecules in aqueous environments. Cellulose, 11: 33–38 (2004).
788.
790.
Vainio, A. and Paulapuro, H. – Observations on inter fibre bonding and fibre segment activation based on the strength properties of laboratory sheets. Nordic Pulp and Paper Research Journal, 20 (3): 340–344 (2005).
792.
van den Akker, J. A. – Note on the theory of fiber-fiber bonding in paper. The influence on paper strength of drying by sublimation. Tappi, 35 (1): 13–15 (1952).
793.
Weisse, U. and Paulapuro, H. – Effect of drying and rewetting cycles on fibre swelling. Journal of Pulp and Paper Science, 25 (5): 163–166 (1999).
795.
Pelton, R. – A model of the external surface of wood pulp fibres. Nordic Pulp and Paper Research Journal, 8 (1): 113–119 (1993).
796.
Ratnieks, E.; Mora, E. and Martins, M. A. L. – Propriedades papeleiras de misturas de polpas: fibras de eucalipto, aparas destintadas e fibras longas. In: XXVII Congresso Anual. ABTCP, São Paulo (1994) 12 pgs
797.
Rusu M, Mörseburg K, Gregersen Ø, Yamakawa A, Liukkonen S. – Relation between fibre flexibility and cross sectional properties. Bioresources 6(1):641–655 (2011).
798.
Springer, A.; Nabors, L. A. and Bhatia, O. – The influence of fiber, sheet structual properties and chemical additives on wet pressing. Tappi Journal, 74 (4):221 (1991).
800.
Brodeur, P. H. and Runge, T. M. – Compactability of a wet fibre mat using acoustic radiation pressure. Journal of Pulp and Paper Science, 22 (8): J278–282 (1996).
801.
Santos, A.; Amaral, M. E.; Vaz, A.; Anjos, O. and Simões, R. – Effect of Eucalyptus globulus wood density on papermaking potential. Tappi Journal, 7 (5): 25–32 (2008).
802.
Abitz, P. and Luner, P. – Applications of wet fiber flexibility (WFF) to papermaking: wet web strength and refining. Espra Research Reports, 90 (IV): 109–110 (1989).
803.
Bentley, R. G.; Hamilton, R. K. and Jack, J. S. – An optical method for monitoring pulp refining. Journal of Pulp and Paper Science, 23 (10): 504–509 (1997).
804.
Thode, E. F. and Ingmanson, W. L. – Factor contributing to the strength of a sheet paper. Tappi, 42 (1): 74–83 (1959).
810.
Abitz, P.; Cresson, T; Brown, A. and Luner, P. – Role of web fiber flexibility in governing wet web properties – preliminary report. Espra Research Reports, 85 (VI): 93 (1986).
811.
Mohlin, U-B., Tubek-Lindblom, A., Luukko, Woo, Y. D. and Burman, A – Industrial refining of acacia. Appita Journal, 59 (1): 53–57 (2006).
815.
Shekhar, C. D. – Fine edged parallel and curved bar plates in refining system for pulp and paper industries. IPPTA Journal, 24 (1): 115–119 (2012).
816.
Shekhar, C. D. – Fine bar technology in refining system for pulp and paper industries. IPPTA Journal, 22 (3): 109–112 (2010).
817.
Arjas, A. – Effect of the evenness of the pulp bleaching stage on fibre bonding. Paperi Ja Puu, 52 (12): 825–829 (1970).
822.
Clark, J.d’A. – Fibrillation, free water and fiber bonding. Tappi, 52 (2): 335 (1969).
823.
van Eperen, R. H. – What do test result mean. In: Process and Product Quality Conference. TAPPI, Savannah, 1994 pgs. 45–50.
824.
Allison, R. W.; Ellis, M. J. and Wrathall, S. H. – Interaction of mechanical and chemical treatments on pulp strength during kraft pulp bleaching. Appita Journal, 51 (2): 107–113 (1998).
825.
Gurnagul, N.; Page, D. H. and Paice, M. – The effect of cellulose degradation on the strength of wood pulp fibres. Nordic Pulp and Paper Research Journal, 7 (3): 152 (1992).
826.
Seth, R. S. and Chan, B. K. – Measuring fiber strength of papermaking pulps. Tappi Journal, 82 (11): 115–120 (1999).
828.
Duker, E. and Lindström, T. – On the mechanisms behind the ability of CMC to enhance paper strength. Nordic Pulp and Paper Research Journal, 23 (1): 57–64 (2008).
830.
Stoere, P.; Nazhad, M. and Kerekes, R. J. – An experimental study of the effect of refining on paper formation. Tappi Journal, 84 (7): 52–58 (2001)
834.
Switzer, L. H. and Kingenberg, D. J. – Simulations of fiber floc dispersion in linear flow fields. Nordic Pulp and Paper Research Journal, 18 (2): 141–144 (2003).
836.
Steenberg, B. – A model of refining as a special case of milling. In: International Symposium on Fundamental Concepts of Refining. IPC, Appleton, 1980 pgs 107.
837.
Koskenhely, K.; Ämmälä, A.; Jokinen, H. and Paulapuro, H. – Refining characteristics of softwood fibre fractions. In: 13th Fundamental Research Symposium – Advances in Paper Science and Technology Cambridge. 2005 pgs. 427–456.
838.
Manfredi, V. and Claudio-da-Silva Jr, E. – Refining operating variables vs raw material. In: International Conference – Advances in Refining Technologies. PIRA, Birmingham, 1986 41 pgs.
839.
Joy, E.; Robinson, D. and Mathew, J. – Deformation of fiber flocs in refining. In: Papermakers Conference. TAPPI, 2001 5 pgs.
864.
Kibblewhite, R. P. Johnson, B. I. and Shelbourne, C. J. A. – Kraft pulp qualities of Eucalyptus nitens, E globulus and E maidenii at 8 and 11 years. New Zealand Journal of Forestry Science, 30(3): 447–457 (2000).
865.
Almeida, M. D. de; Sevrini, G. I.; Leodoro, L. M., Faez, M. S., Soto, M. R., Kaneco, S. Y. – Tratamento mecânico de fibra curta de eucalipto com utilização de discos de refino com maior comprimento de corte. O Papel, 66 (6): 80–87 (2006).
868.
Demuner, B. J.; Viana Doria, E. L.; Claudio-da-Silva Jr., E. and Manfredi, V. – Influência das características dos flocos sobre o refino de polpas químicas. O Papel, 54 (2): 29–39 (1993).
873.
Beghello, L. and Eklund, D. – Some mechanisms that govern fibre flocculation. Nordic Pulp and Paper Research Journal, 12 (2): 119–123 (1997).
874.
Beghello, L. and Eklund, D. – The influence of chemical environment on fibre flocculation. Journal of Pulp and Paper Science, 25 (7): 246–250 (1999).
876.
Li, L.; Collins, A. and Pelton, R. – A new analysis of filler effects on paper strength. Journal of Pulp and Paper Science, 28 (8):267–273 (2002).
878.
Kerekes, R. – Perspectives on fibre flocculation in papermaking. In: International Paper Physics Conference. TAPPI, Niagara-on-the-Lake, 1995. pgs. 23–31.
879.
Lundin, T.; Lönnberg, B.; Soini, P. and Harju, K – Laboratory LC-refining of SBK pulps: effects of pulp consistency and dispersion. In: Scientific and Technical Advances in Refining & Mechanical Pulping – Course Notes. PIRA, Stockholm, 2003 Paper 5.
881.
Björkman, U. – Break-up of suspended fibre networks. Nordic Pulp and Paper Research Journal, 18 (1): 32–37 (2003).
882.
Mason, S. G. – The motion of fibres in flowing liquids. Pulp and Paper Magazine Canada, x (51): 93–100 (1950) [879]
885.
Kerekes, R. J. and Schell, C. J. – Characterization of fibre flocculation regimes by a crowding factor. Journal of Pulp and Paper Science, 18 (1): J32–38 (1992)
888.
Sharkawya, K. E.; Haavistob, S.; Koskenhely, K. and Paulapuroa, H. – Effect of fiber flocculation and filling design on refiner loadability and refining characteristics. BioResources, 3 (2): 403-424 (2008).
889.
Nordström, B. and Hermansson, L. – Effect of fiber length on formation and strength efficiency in twin-wire roll forming. Nordic Pulp & Paper Research Journal, 32 (1):119–125 (2017).
890.
Alfano, J. C.; Carter, P. W. and Whitten, J. E. – Use of scanning laser microscopy to investigate microparticle flocculation. Journal of Pulp and Paper Science, 25 (6): 189–195 (1999).
892.
Laivins, G. V. and Scallan, A. M. – The influence of drying and beating on the swelling of fines. Journal of Pulp and Paper Science, 22 (5): 178–184.1996).
893.
Retulainen, E.; Luukko, K.; Fagerholm. K.; Pere, J.; Laine, J. and Paulapuro, H. – Papermaking quality of fines from different pulps – the effect of shape, size and chemical composition. Appita Journal, 55 (6): 457–467 (2002)
894.
Liitiä, T.; Maunu, S. L. and Hortling, B. – Solid-state NMR studies of residual lignin and its association with carbohydrates. Journal of Pulp and Paper Science, 26 (9): 323–330 (2000).
896.
Eastwood, F. G. and Clarke, B. – Handsheet and pilot machine recycling degradation mechanism. In: Fibre Water Interactions in Papermaking Symposium. BPBIF, Oxford, 1978 Volume II: 835–848.
897.
Seth, R. S. and Page, D. H. – The problem of using Page’s equation to determine loss in shear strength of fiber-fiber bonds upon pulp drying. Tappi Journal, 79 (9): 206–210 (1996).
898.
Joutsimo, O.; Wathén, R. and Robertsén, L. – Role of fiber deformations and damage from fiber strength to end user. In: 13th Fundamental Research Symposium- Advances in Paper Science and Technology. Cambridge. 2005 pgs. 591–611.
901.
Page, D. H. and Seth, R. S. – A note on the effect of fibre strength on the tensile strength of paper. Tappi Journal, 71 (10): 182 (1988).
903.
MacLeod, J. M.; McPhee, F. J.; Kingsland, K. A.; Tristram, R. W.; O’Hagan, T. J.; Kowaiska, R. and e Thomas, B. C. – Pulp strength delivery along complete kraft mill fiber lines. Tappi Journal, 78 (8): 153–160 (1995).
904.
905.
Page, D. H.; Seth, R. S. and El-Hosseiny, F. – Strength and chemical composition of wood pulp fibres. In: Papermaking raw materials, 8th Fundamental Research Symposium, London (1985).
910.
Mohlin, U.-B. – Low consistency beating – laboratory evaluation contra industrial experience. In: Current and Future Technologies in Refining. PIRA, Leatherhead, 1991 pgs 1–14.
912.
Buchert, J.; Tenkanen, M. and Tamminen, T. – Characterization of carboxylic acids during kraft and Superbatch pulping. Tappi Journal, 84 (4): 70 (2001).
913.
Mohlin, U.-B e Miller, J. – Influence of industrial beating on fiber swelling and fiber shape. In: 4th International Conference on New Available Technologies – Current Tendencies. EUCEPA, Bologna, 1992 Volume 2 pgs. 274–283.
915.
Kibblewhite, R. P. and Brookes, D. – Factors which influence the wet web strength of commercial pulps. Appita Jornal, 28 (4): 227–231 (1975).
916.
Joutsimo, O.; Wathen, R. and Tamminen, T. – Effects of fiber deformations on pulp sheet properties and fiber strength. Paperi jaa Puu, 87 (6):392 (2005).
917.
Mohlin, U.-B. and Alfredsonn, C. – Fibre deformation and its implications in pulp characterization. Nordic Pulp and Paper Research Journal, 4 (5): 172–179 (1990)
919.
Bennington, C. P. J. – Simultaneous chemical and mechanical treatment of pulp fibre and the resulting changes in pulp properties. Nordic Pulp and Paper Research Journal, 21 (1): 44–48 (2006).
920.
Allison, R. W. and Wrathall, S. H. – Effect of pulping and bleaching conditions on the strength of kraft pulp. Part 2: comparison of three commercial softwoods. Appita, 47 (5): 369–374 (1994).
925.
Allison, R. W.; Ellis, M. J., Kibblewhite, R. P. and Duffy, G. G. – Effect of mechanical processes on the strength of oxygen delignified kraft pulp. In: International Pulp Bleaching Conference. Helsinki, 1998 pgs. 159–166.
928.
Mohlin, U. B.; Dahlbom, J. and Hornatowska, J. – Fiber deformation and sheet strength. Tappi Journal, 79 (6): 105–111 (1996).
929.
Gominho, J. and Pereira, H. – Effect of refining in the fibre structure and properties in unbleached eucalypt pulps. In: International Conference on Cellulose and Cellulose Derivatives: Physico-Chemical Aspects and Industrial Applications, 1998 pgs. 529–534.
930.
Kimura, M.; Kimura, S.; Qi, Z. D.; Kuga, S. and Isogai. A. – Porous structure of never dried pulp fi bers analyzed by nitrogen adsorption method. In: 15th Fundamental Research Symposium, Cambridge, 2013 pgs 821–836
931.
DeRuvo, A. and Htun, M. – Fundamental and practical aspects of paper making with recycled fibers. In: The Role of Fundamental Research in Papermaking. BP&BMA, London, 1983 Volume 1 pgs. 195–225.
934.
Attwood, D. – The solid waste problem – Pira Proposes a Recycling Centre. Paper Technology and Industry, 319 (11): 2–4 (1990).
936.
Page, D. H. and Tydeman, P. A. – Transverse swelling and shrinkage of softwood tracheids. Nature, 199 (4892): 471–472 (1963).
939.
Howard, R. C. – The effects of recycling on paper quality. Journal of Pulp and Paper Science, 16 (5): 143 (1990).
943.
Stone, J. E. and Scallan, A. M. – Influence of drying on the pore structures of the cell wall. In: Consolidation of the Paper Web, Transactions of the 3rd Fundamental Research Symposium, BRBMA, Cambridge, 1965 pgs. 145–166.
951.
Ölander, K.; Htun, M. and Grén, U. – Specific surface area – an important property of mechanical pulps. Journal of Pulp and Paper Science, 20 (11): 338–342 (1994).
952.
Suurnäkki, A.; Heijnesson, A.; Buchert, J.; Viikari, L. and Westermark, U. – Chemical characterization of the surface layers of unbleached pine and birch kraft pulp fibres. Journal of Pulp and Paper Science, 22 (2): J43–47 (1996).
953.
Sjöholm, E., Gustafsson, K., Norman, E., Reitberger, T. and Colmsjö, A. – Fibre strength in relation to molecular weight distribution of hardwood kraft pulp: degradation by gamma irradiation, oxygen/alkali or alkali. Nordic Pulp and Paper Research Journal, 5 (4): 326–332 (2000).
954.
Hjort, A. – Effects on pulp and paper properties from iso thermal cooking (ITC) and black liquor impregnation in a continuous digester. In: International Non-Chlorine Bleaching Conference. Pulp & Paper/Emerging Technology Transfer, Amelia Island, 1994 Paper 3-1 12 pgs.
955.
Rämark, H. and Kettunen, A. – Cocción de pastas softwood y hardwood – recientes experiencias. El Papel (71): 47–51 (1998).
956.
Cardoso, G. da S.; Lopes, J. L.; dos Santos, M. R. and Lopes, R. J. F. – Tratamento enzimático sobre as fibras recicladas de papelão ondulado. O Papel, 79 (7): 80–86 (2018).
957.
Leopold, B.; Thorpe, J. L. and Marabito, J. – Effect of pulping on strength properties of dry and wet pulp fibers. Espra Research Reports, 45 (IV): 20 (1967).
958.
Tam Doo, P. A. and Kereke, R. – Flexibility of wet pulp fibred. Pulp and Paper Canada, 83 (2): 46–50 (1982).
959.
Irvine, G. M.; Wallis, A. F. A. and Wearne, R. H. – Application of a Monte Carlo procedure to the kraft pulping of eucalyptus from Eden forest resource. Appita, 44 (6): 394–398, 409 (1991).
964.
Rosli, W. U.; Mazlan, I. and Law, K. N. – Effects of kraft pulping variables on pulp and paper properties of acacia mangiumkraft pulp. Cellulose Chenistry and Technology, 43 (1): 9–15 (2009).
966.
Malinen, R.; Rantanen, T.; Rautonen, R. and Toikkanen, L. – TCF bleaching to high brightness – bleaching sequences and pulp properties. In: International Pulp Bleaching Conference. TAPPI/CPPA/SPCI/EUCEPA, Vancouver, 1994 pgs. 187–194.
968.
Blechschmidt, J; Strunz, A.-M. and Baumgarten, H.-L. – Refining behavior of ECF and TCF pulps. In: First EcoPaperTech. FPPRI, Helsinki, 1995 pgs. 245–257.
970.
Gomide, J. L. and Fantuzzi Neto, H. – Aspectos fundamentais da polpação kraft de madeira de Eucalyptus. O Papel, 61 (3): 62–68 (2000).
971.
Wallis, A. F. A.; Wearne, R. H. and Wright, P. J. – Analytical characteristics of plantation eucalyptus woods relating to kraft pulp yields. Appita Journal, 49 (6): 427–432 (1996).
976.
Pereira, H. – Variability in the chemical composition of plantation eucalypts (Eucalyptus globulus labill). Wood Fiber Science, 20 (1): 82 (1988).
977.
Danby, R. – Pulp to paper. In: TECH95 Theory and Practice of Papermaking Course. CPPA, Ottawa, 1995 Section D2 5 pgs.
979.
Yu, L., Zhan, H., Qian, B., Yue, B., He, W. – Study on modified kraft cooking of Pinus taeda and low pollution bleaching of the pulp. Chung-kuo Tsao Chih, 18 (2):8–12 (1999)
980.
Manfredi, V.; Gomide, J. L.; Carneiro, C. J. G.; Salvador, E. and Fantuzzi Neto, H. – Effects of delignification strategies on production and quality of eucalypt kraft pulp. In: 7th Brazilian Symposium on the chemistry of Lignins and Other Wood Components. UFV/SIF, Belo Horizonte, 2001 pgs. 119–127.
981.
Redko, B. V. P. – Vasos de folhosas: Eucalyptus deglupta, Eucalyptus urophylla, Gmelina arborea. In: XVI Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1983 pgs 1169–1194.
984.
Burke, T. M.; Skålén, B. and Talley, M. – Mill experience in refiner control through on-line measurement of stock drainage. In: III International Refining Conference and Exhibition. PIRA/IPST, Atlanta, 1995 Paper 20 10 pgs.
985.
987.
Martinez, M.; Buckley, K.; Jivan, S.; Lindström, A.; Thiruvengadaswamy, R.; Olson, J. A.; Ruth, T. J. and Kerekes, R. J. – Characterizing the mobility of papermaking fibres during sedimentation. In: 12th Fundamental Research Symposium. PIRA, Oxford, 2001 pgs. 225–254.
989.
Soszynski, R.H. and Kerekes, R. – Elastic interlocking of nylon fibers suspended in liquid. Part 1: nature of cohesion among fibers. Nordic Pulp and Paper Research Journal, 3 (4): 172–179 (1988).
990.
Meyer, R. and Wahren, R. – On the elastic properties of three-dimensional fibre networks. Svensk Papperstidning, 57 (10): 432–436 (1964).
991.
Zhao, R. N. and Kerekes, R. J. – The effect of suspending liquid viscosity on fiber flocculation. Tappi Journal, 76 (2): 183–188 (1993).
992.
Dodson, C. T. J. – Fiber crowding, fiber contacts, and fiber flocculation. Tappi Journal, 79 (9): 211–216 (1996)
993.
Huber, P.; Roux, J. C.; Mauret, E.; Belgacem, N. and Pierre, C – Suspension crowding for a general fibre-length distribution: application to flocculation of mixtures of short and long papermaking fibres. Journal of Pulp and Paper Science, 29 (3): 77–85 (2003).
994.
Andersson, S. R.; Ringnér, J. and Rasmuson, A. – The network strength of non-flocculated fibre suspensions. Nordic Pulp and Paper Research Journal, 14 (1): 61–70 (1999).
995.
Parker, J. D. – The sheet forming process. In: STAP, 9. TAPPI, Atlanta, 1972.
999.
Negro, C.; Fuente, E.; Blanco, A. and Tijero, J. – Effect of chemical flocculation mechanisms on rheology of fibre pulp suspensions. Nordic Pulp and Paper Research Journal, 21 (3): 336–341 (2006).
1000.
Gurnagul, N. and Page, D. H. – The difference between dry and rewetted zero-span tensile strength. Tappi Journal, 72 (12): 164–167 (1989).
1002.
Mohlin, U.-B. – Properties of TMP fractions and their importance for the quality of printing papers. Part 2: the influence of particles properties and particle size distribution on pulp properties. Svensk Papperstiding, 83 (18): 513–519 (1980).
1003.
Page, D. H. and MacLeod, M. – Fibre strength and its impact on tear strength, Tappi Journal, 71 (1): 172 (1988).
1006.
1007.
Soszynski, R. M. – Relative bonded area – a different approach. Nordic Pulp and Paper Research Journal, 10 (2): 150 (1995).
1008.
Torgnysdotter, A.; Kulachenko, A.; Gradin, P. and Wågberg, L. – Fibre/fibre crosses: finite element modelling and comparison with experiment. Journal of Composite Materials, 41 (13): 1603–1618 (2007)
1009.
Batchelor, W.; Kibblewhite, R. P. and He, J. – A new method for measuring RBA applied to the Page’s Equation for the tensile strength of paper. Appita Journal, 61 (4): 302–306 (2008).
1010.
Batchelor, W. J. and He, J. – A new method for determining the relative bonded area. Tappi Journal, 4 (6): 23 (2005).
1011.
Batchelor, W. J. and Kibblewhite, R. P. – Calculation of relative bonded area and scattering coefficient from sheet density and fibre shape. Holzforschung, 60 (3): 253 (2006).
1012.
1013.
Hirn, U.; Schennach, R.; Ganser, C.; Magnusson, M.; Teichert, C. and Östlund, S. – The area in molecular contact in fiber-fiber bonds.In: 15th Fundamental Research Symposium: Advances in Paper Research, Cambridge. 2013 pgs 201–226.
1014.
Hirn, U. and Schennach, R. – Comprehensive analysis of individual pulp fiber bonds quantifies the mechanisms of fiber bonding in paper. Scientific Reports, 5 (10503):1–9 (2015).
1113.
Baker, C. F. – The refining of nonwood fibres. In: IV International Refining Conference. PIRA, Fiuggi: 18-20/03/1997 Paper 10 pgs. 151–180.492. Prasad, D. Y.; Jameel, H. and Gratzl, J. – Extended delignification of hardwood with AQ/Polysulfide. Tappi Journal, 78 (9): 151 (1995).
1119.
Ratnieks, E. and Mora, E. – How the dryness of pulp influences the stock preparation. In: XXVI Congresso Anual de Celulose e Papel, ABTCP, São Paulo, 1993 pgs. 715–731.
1120.
Page, D. H. – The mechanism of strength development of dried pulps by beating. Svensk Papperstiding, 88 (3): R30–35 (1985).
1121.
Page, D. H. – The beating of chemical pulps – the action and the effects. In Fundamentals of Papermaking, Trans. of the IXth Fund. Res. Symp. Cambridge, 1989, pgs. 1–38.
1124.
Tam Doo, P. A. and Kerekes, R. J. – The effect of beating and low amplitude flexing on pulp fibre flexibility. Journal of Pulp and Paper Science, 15 (11): 36–42 (1989).
1125.
Sha, J.; Nikbakht, A.; Wang, C.; Zhang, H. and Olson, J. – The effect of consistency and freeness on the yield stress of chemical pulp fibre suspensions. BioResources, 10(3), 4287–4299 (2015).
1335.
Marcoccia, B. S. and Poulin, T. M. – A lo-solids pulping update. In: XXIX Congresso Anual de Celulose e Papel. ABTCP, São Paulo, 1996 pgs. 203–219.
1338.
Lindström, T. – Der einfluss chemischer factoren auf faserquellung und papierfestigkeit. Das Papier, 34 (12): 561 (1980)
1339.
Olejnik, K.; Skalski, B.; Stanislawska, A.; Wysocka-Robak, A. – Swelling properties and generation of cellulose fines originating from bleached kraft pulp refined under different operating conditions. Cellulose 24: 3955–3967 (2017).
1355.
Poppel, E. and Turtureanu, C. – Cercetari privind evaluarea severiatii proceselor de macinare. Celul. Hirtie, 45 (1): 3–12 (1996).
1360.
Marcoccia, B. S. – Lo-Solids pulping: theorical background and mill scale experiences. Kamyr Inc., Status Report 130 (1994).
1371.
Kerekes, R. J.; Soszynski, R. M. and Tam Doo, P. A. – The flocculation of pulp fibres. In: Papermaking Raw Materials, Transactions 8th Fundamental Research Symposium, Ed. Ponton, V., Mech. Eng. Publ. Ltd., Oxford: 1985 pgs. 265–310.
1388.
Sanjay, C.; Akansha, S.; Rajeev, S.; Shankarshan, S. and Narendra, A. – Optimization of fibre properties using single pass refining vs recirculation – A Case Study. IPPTA, 27 (04): 58–66 (2015).
1414.
Rennel, J. – Opacity in relation to strength properties of pulps III. Light scattering coefficient of sheets of model fibres. Tappi, 52 (10): 1943–1947 (1969).
Metadaten
Titel
The Pulps (Fibers) Characteristics
verfasst von
Vail Manfredi
Copyright-Jahr
2024
Buch
Eucalyptus Kraft Pulp Refining

Print ISBN: 978-3-031-47284-8

Electronic ISBN: 978-3-031-47285-5

Copyright-Jahr: 2024

DOI
https://doi.org/10.1007/978-3-031-47285-5_7

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