A Study on Banknote Paper Deterioration Factors by Circulation Simulator Method (A case study on the 5 Egyptian banknotes) | ||||
| International Design Journal | ||||
| Article 6, Volume 7, Issue 2 - Serial Number 22, April 2017, Page 67-76 PDF (1.03 MB) | ||||
| Document Type: Original Article | ||||
| DOI: 10.12816/0046553 | ||||
 View on SCiNiTO | ||||
| Authors | ||||
| Mahmoud Mahmoud Yousry Ahmed1; George Nubar Simonian2; Amr Ahmed Shehata3 | ||||
| 1Professor of full-time printing technology - Department of Printing, Publishing and Packaging - Faculty of Applied Arts - Helwan University | ||||
| 2Professor of digital printing technology - Department of Printing, Publishing and Packaging - Faculty of Applied Arts - Helwan University | ||||
| 3Designer - Cash Printing House - Central Bank of Egypt | ||||
| Abstract | ||||
| The banknote damage factors were analyzed in the trading cycle and the factors that cause this are to determine the main elements that lead to banknote damage in the actual trading cycle, as well as to verify the factors that can be simulated when simulating the trading cycle. The factors to consider when simulating circulation are the mechanical and chemical systemic effects on banknotes.An advanced trading simulation method was used to evaluate bank notes of the Arab Republic of Egypt (the five-pound category most commonly traded in the Egyptian trading market) and to obtain industrially damaged samples of banknotes so that their optical properties and change in weight are within the limits of the corresponding banknotes changes in the trading cycle the Actual.This methodology consists of a number of multiple mechanical damage that is inserted on the test banknote by rotating them in a closed container that contains the damage element in the presence of a mixture that causes dirt. The proposed approach can be used to determine the tolerance of materials and to develop industrial processes in the production of banknotes. Where the mechanical effect on banknotes is simulated by repeated contact with the agent that causes damage inside a closed container, so that banknotes are wrapped around the axis of the container. Through this type of banknote processing, we obtained multiple types of chemical damage, such as friction, rewinding, folding, tearing, crunching, cracking, puncture or marking, and bending. Simulation of twisting, bending, and cutting has been enhanced due to the centrifugal force exerting during rolling by placing roughening bars with added load on the shorter sides of the banknote. Through the results, we were able to reach an in-depth analysis of the banknote notes' damage in trading and the factors that cause it, and identify the main factors in these operations and determine the factors that can be simulated through artificial damage. Factors that should be considered when simulating damage include those that have a systemic effect. In the acquisition of the trading cycle simulation, the sequential effect of different factors on banknotes, especially mechanical and chemical factors, should be checked. The data and our findings regarding the test of weight change also indicate that the weight increases as the state of deterioration of the currency increases, and this increase in weight is analyzed as a result of the increase of pollutants on the surface of the most deteriorating currencies. The change in tonal tone) that the banknote's color in the optical deterioration phase is yellow / brown. The change in the color of the banknote results from two processes: the oxidation of cellulose fibers and the natural aging of the existing layer of fat and grease. Cellulose oxidation means oxidized cellulose fibers. Such oxidation leads to an increase in oxygen-containing groups such as carbonyl and carboxylic acids. Oxidized cellulose fibers usually cause a yellowing effect on the paper | ||||
| Keywords | ||||
| Deterioration factors; Simulated circulation; Circulation simulator method; Banknote durability; Banknote soiling | ||||
| References | ||||
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1.Adcock, E., Varlamoff, M.-T., and Kremp, V. (1998). “ IFLA principles for the care and handling of library materials, ” IFLA-PAC, International Federation of Library Associations and Institutions, Core Programme on Preservation and Conservation. 2. Area, M. C., and Cheradame, H. (2011). “ Paper aging and degradation : Recent findings and research methods, ” BioResources 6(4), 5307-5337. 3. Balke, P. (2011). “ From fit to unfit : How banknotes become soiled,” Watermark 2011, 4. Bartz, W., and Crane, T.(2006). “ Circulation simulator method for evaluating banknote and optical feature durability,” proc.of the SPIE. Optical Security and Counterfeit Deterrence Techniques VI, 6075, 75-83. 5. Buitelaar, T. (2002). “ Consumption of banknotes in the Netherlands,” Lecture at DNB Amsterdam, 10 April, 2002. 6. Buitelaar, T. (2008). “ The colour of soil,” DNB Cash Seminar 2008/ Amsterdam, 28-29 February, 2008. 7. Cantero, F. (2010). “ Banknote authentication devices,” Billetaria-International Review on Cash Management 8, 21-22. 8. Choisy, P., de la Chapelle, A., Thomas, D., and Legoy, M. D. (1997). “ Noninvasive techniques for the investigation of foxing stains on graphic art material,” Restaurator 18(3), 131-152. 9. Federal Reserve Bank Services (2008). “ Fitness guidelines for federal reserve notes (FRNs),” Currency Technology Office, Federal Reserve Bank, USA, http://www.frbservices.org/files/operations/pdf/FRB_fitness_guidelines_2008_dec_11.pdf. 10. Fellers, C., Iversen, T., Lindstrom, T., Nilsson, T., and Rigdahl, M. (1989). “ Ageing/Degradation of paper. A Literature Survey,” FoU-Projektet for Papperskonservering, Report No. 1 E, Stockholm, September 1989. 11. Geusebroek, J.-M., Markus, P., and Balke, P. (2011). “ Learning banknote fitness for sorting ,” Proceedings of the 2011 International Conference on Pattern Analysis and Intelligent Robotics (ICPAIR 2011), Putrajaya, 1, 41-46. 12. Greve, K.(2000). “ Foxing – Causes and questions. – Conservation without limits,” IIC Nordic Group XV Congress. Helsinki, 23-26 August, pp. 55-62. 13. ISO Standerds (1992). “ ISO 5636-3 : 1992 Paper and board – Determination of air permeance ( medium range ) – part 3 : Bendtsen method.” 14. Kropnick, E. (2012). “ Measurement of banknote soiling by sorting machines : An empirical study Billetaria – International Review on Cash Management 11, 24-26.,” 15. Kyrychok, T. (2013). “ Algorithm for solving multicriteria problem of choice of banknote deterioration characteristics using the utility function, ” Research Bulletin of National Technical University of Ukraine “ Kyiv Polytechnic Institute ” 1 (87), 68-75. 16. Kyrychok, T., Melnychenko, A., and Nesterenko, V. (2013). “ Analysis of Ukrainian hryvnia banknotes durability in a real circulation,” Research Bulletin of National Technical University of Ukraine “ Kyiv Polytechnic Institute ” 2 (88), 94-104. 17. Lajic, B., Majnaric, I., and Mirkovic, I. B. (2013). “ Accelerated and natural ageing of offset prints coverd with different varnishes,” Nordic Pulp & Paper Res. J. 28 (1), 101-110. 18. Marincovic, C., Pritchard, K., Binder, M., and da Silva, N. (2011). “ Life cycle assessment of Canada’s polymer bank notes and cotton – paper bank notes. Final report,” Bank of Canada. 19. Martinez, M., Kropnickm E., and Negueruela, J. D. (2009). “ Machnical banknote sorting : An empirical study,” Billetaria – International Review on Cash Management 6, 16-19. 20. Meuer, T., and Martin, J. (2011). “ The Euro system’s efforts in the search for a longer lasting banknote,” Billetaria- International Review on Cash Management 9, 22-24. 21. Pedersoli, I. L., and Ligterink, F. J. (2011). “ Spectroscopic characterization of the fluorescence of paper at the wet-dry interface,” Restaurator 22(2), 133-145. 22. Perron, M. (2010). “ Patenting of new banknote security features,” Billetaria – International Review on Cash Management 7, 38-39. 23. Peters, D. (2000). “ An alternative to foxing? Oxidative degradation as a cause of cellulosic discoloration,” Papier Restaurierung – Milteilungen der IADA ( International Arbeitsgeminschaft der Archiv-, Bibliotheks – und Graphikrestaurationen ) 1, 801-806. 24. Rebrikova, N. L., and Manturovskaya, N. V. (2000). “ Foxing. A new approach to an old problem,” Restaurator 21 (2), 85-100. 25. Sabo, R., Jin, L., Stark, N., and Ibach, R. E. (2013). “ Effect of environmental conditions on the mechanical properties and fungal degradation of polycaprolactone/ microcrystalline cellulose/wood flour composites,” BioResources 8(3), 3322-3335. 26. Schanda, J. (2007). Colorimetry : Understanding the CIE system. Wiley-Interscience, New York. 27. Skora, J., Gutarowska, B., and Kozirog, A. (2011). “ Microscopic fungi as a factor threatening the paper durability and health risk for workers in libraries and archives rooms,” Przeglad Papierniczy 67 (12), 755-762. 28. Tam, N. T., and Nazhad, M. M. (2002). “ Aging at tropical condition and its effect on deinking potential of ONP,” TAPPI Fall Technical Conference, San Diego, California. 29. TAPPI Standards (1998). “ T 452 om-98. Brightness of pulp, paper, and paperboard ( directional reflectance at 457 nm).” 30. TAPPI Standards (2010). “ TAPPI T 403 om- 10. Bursting strength of paper.” 31. TAPPI Standards (2013). “ TAPPI T 489 om- 13. Bending resistance ( stiffness) of paper and paperboard ( Taber-type stiffness tester).” Van Renesse, R. L. (2005). Optical Document Security, Artech House, Boston/London. | ||||
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