Journal of Korea TAPPI ISSN:0253-3200(Print) 펄프종이기술

Vishtal, A. and Retulainen, E., Boosting the extensibility potential of fibre networks: a review, Bioresources, 9(4):1-50 (2014).

Vishtal, A., Formability of paper and its improvement, VTT science 94, Thesis for the degree of doctor science (2015).

Vishtal, A., Hauptmann, M., Zelm, R., Majschak, J. P., and Retulainen, E., 3D forming of paperboard: The influence of paperboard properties on formability, Packaging technology science, 27(9):677-691 (2013).

Ketola, A. E., Strand, A., Sundberg, A., Kouko, J., Oksanen, A., Salminen, K., Fu, S., and Retulainen, E., Effect of Micro- and Nanofibrillated cellulose on the drying shrinkage, extensibility, and strength of fibre networks, Bioresources, 13(3):5319-5342 (2018).

Kouko, J., Turpeinen, T., Kulachenko, A., Hirn, U., and Retulainen, E., Understanding extensibility of paper: role of fiber elongation and fiber bonding, Tappi J. 19(3):125-135 (2020).

Kouko, J. and Retulainen, E., The relationship between shrinkage ad elongation of bleached softwood kraft pulp sheets, Nordic pulp & Paper Research J. 33(3):522-533 (2018).

Page, D. H., Seth, R. S., Jordan, B. D., and Barbe, M. C., Curl, crimps, kinks, and microcompressions in pulp fibres-Their origin, measurement and significance, Transactions of the 8th fundamental research symposium, Mechanical engineering publications limited, Vol. 1, p. 188-227 (1985).

Seth, R. S., Optimizing reinforcement pulps by fracture toughness, Tappi J. 79(1):170-178 (1996).

Sjoberg, J. C. and Hoglund, H., Refining systems for sack paper pulp: Part Ⅰ. HC refining under pressurised conditions and subsequnt LC refining, Nordic pulp & Paper Research J. 20(3):320-328 (2005).

Zeng, X., Vishtal, A., Retulainen, E., Sivonen, E., and Fu, S., The elongation potential of paper-How should fibres be deformed to make paper extensible?, Bioresources 8(1):472-486 (2013).

Vishtal, A. and Retulainen, E., Improving the extensibility, wet web and dry strength of paper by addition of agar, Nordic pulp & Paper Research J. 29(3):434-443 (2014).

Vishtal, A. and Retulainen, E., Improving the extensibility of paper: Sequential spary addition of gelatine and agar, Nordic pulp & Paper Research J. 30(3):452-460 (2015).

Vuoti, S., Laatikainen, E., Heikkinen, H., Johansson, L., Saharinen, E., and Retulainen, E., Chemical modification of cellulosic fibers for better convertibility in packaging applications, Carbohydrate Polymers, 96:549-559 (2013).

Aloui, H., Khwaldia, K., Slama, M. B., and Hamdi, M., Effect of glycerol and coating weighton functional properties of biopolymer-coated paper, Carbohydrate Polymers, 86:1063-1072 (2011).

Lainio, U., Natural and synthetic fibers improving tensile strength and elongation of paper products, Master’s thesis, Lappeenranta University, 2009.

Bronkhorst, C. A. and Bennett, K. A., Handbook of physical testing of paper, Mark, R. E., Habeger, C. C., Borch, J., and Lyne, M. B., (ed.), Vol. 1, second edition, revised and expanded, Marcel dekker, New York, p. 384 (2002).

Ban, W., Chen, X., Andrews, G., and Heiningen, A. V., Influence of hemicelluloses pre-extraction and re-adsorption on pulp physical strength Ⅱ. Beatability and strength study, Cellulose chemistry and Technol., 45(9-10):633-641 (2011)

Kulachenko, A. and Uesaka, T., Direct simulations of fiber network deformation and failure, Mechanics of materials 51:1-14 (2012).

Hentzschel, P., Pigment Coating and Surface Sizing of Paper, Paltakari, J. (ed.), Vol. 11, Paper Engineers’ Association/Paperi ja Puu Oy, Helsinki, pp. 246-255 (2009).