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Comparison of selected mathematical functions for the analysis of growth behavior of items and physical interpretation of Avrami-Weibull function

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PL
Porównanie wybranych funkcji matematycznych do analizy przebiegu wzrostu podmiotów oraz interpretacja funkcji Avrami’ego-Weibulla
Języki publikacji
EN
Abstrakty
EN
Empirical data of sigmoidal-shaped y(t) growth behavior of different types of items, such as papers and citations earned by individual and all successively published papers of selected top-cited authors, germination of tomato seeds and three different bacteria, are analyzed and compared by Avrami-Weibull, Verhulst (logistic) and Gompertz functions. It was found that: (1) Avrami-Weibull function describes different types of the data better than Gompertz and Verhulst funtions, and (2), in comparison with Verhulst and Gompertz functions, Avrami-Weibull function, expressed in the form: y(t)/ymax = 1-exp[(t/Θ)q] (where ymax is the maximum value of y(t) when t→∞, and Θ and q are constants), is equally very versatile in explaining the generation rate dy(t)/dt of items in terms of its parameters Θ and q. Using the basic concepts involved in the derivation of Avrami-Weibull function for overall crystallization from melt and supersaturated solution, the growth behavior of cumulative number y(t) of items produced at time t by individual (simple) sources and collectives or groups of simple sources (i.e. complex or composite sources) is presented. Comparison of the process of receiving of citations by papers with the processes of occurrence of chemical reactions and crystallization of solid phases from melts and supersaturated solutions shows that this process is similar to that of overall crystallization of solid phases from melts and solutions. Analysis of growth of citations using Avrami-Weibull function to individual papers published by different authors shows that 1 < q < 4 for most cases. This suggests that the process of citations to individual articles is mainly determined by progressive nucleation mode involving both diffusion and integration of published knowledge.
PL
Przeanalizowano i porównano stosowalność funkcji Avrami’ego-Weibulla, Verhulsta (logistycznej) i Gompertza do empirycznych danych sygmoidalnego przebiegu wzrostu y(t) takich różnorodnych podmiotów jak: liczba artykułów i cytowań otrzymywanych przez pojedyncze i wszystkie kolejne artykuły publikowane przez wybranych wysokocytowanych autorów, liczba kiełkowań nasion pomidorów i liczba trzech różnych bakterii. Zaobserwowano, że: 1) funkcja Avrami’ego-Weibulla opisuje różne dane lepiej niż funkcje Gompertza i Verhulsta, oraz 2) w porównaniu z funkcjami Verhulsta i Gompertza, funkcja Avrami’ego-Weibulla, wyrażona w postaci: y(t)/ymax = 1exp[(t/)q] (gdzie: ymaxjest maksymalną wartością y(t) gdy t, oraz i q są stałymi), jest równie wszechstronna w wyjaśnieniu szybkości wytwarzania dy(t)/dt wyżej wymienionych podmiotów przy pomocy parametrów i q. Korzystając z podstawowych pojęć zawartych w wyprowadzeniu równania Avrami’ego-Weibulla do opisania całkowitej krystalizacji z fazy roztopionej i z roztworu przesyconego, przedstawiono przebieg wzrostu kumulacyjnej liczby y(t) podmiotów wytwarza-nych w czasie t poprzez pojedyncze (proste) źródła i zbiory lub grupy pojedynczych źródeł (tj. złożonych źródeł). Porównanie procesu otrzymywania cytowań przez artykuły z procesami występowania reakcji chemicznych i krystalizacji ciał stałych ze stopów i roztworów przesyconych pokazuje, iż proces ten jest podobny do całkowitej krystalizacji ciał stałych ze stopów i roztworów. Analiza wzrostu cytowań według równania Avrami’ego-Weibulla pojedynczych artykułów publikowanych przez różnych autorów pokazuje, że w większości przypadków 1 < q< 4. Z powyższego można wnioskować, że proces cytowania pojedynczych artykułów zachodzi w głównej mierze przez zarodkowanie progresywne oparte na dyfuzji i integracji opublikowanej wiedzy.
Rocznik
Tom
Strony
259--278
Opis fizyczny
Bibliogr. 71 poz., fig., tab.
Twórcy
  • Department of Applied Physics, Lublin University of Technology, Nadbystrzycka 38, 20-618 Lublin, Poland
Bibliografia
  • 1. D.D.S. Price, Little Science, Big Science. Columbia Uni-versity Press, New York & London, 1963.
  • 2. L. Egghe, I.K. Ravichandra Rao, Classification of growth models based on growth rates and its applications, Scientometrics 25 (1992) 5-46.
  • 3. B.M., Gupta, L. Sharma, C.R. Karisiddappa, Modeling the growth of papers in a scientific speciality, Scientometrics 33(2), (1995) 187-201.
  • 4. B.M., Gupta, S. Kumar, S.L. Sangam, C.R. Karisiddappa, Modeling the growth of social science literature, Scientometrics 53(1), (2002) 161-164.
  • 5. I.K. Ravichandra Rao, D. Srivastava, Growth of journals, articles and authors in malaria research, Journal of Informetrics 4(1), (2010) 249-256.
  • 6. C.-Y. Wong, K.-L. Goh, Growth behavior of publications and patents: A comparative study on selected Asian economies, Journal of Informetrics 4(2), (2010) 460-474.
  • 7. K. Sangwal, Progressive nucleation mechanism and its application to the growth of journals, articles and authors in scientific fields, Journal of Informetrics 5(4), (2011) 529-536.
  • 8. K. Sangwal, Application of progressive nucleation mechanism for the citation behavior of individual papers of different authors,. Scientometrics 92(2), (2012) 643-655.
  • 9. Q.L. Burrell, The nth-citation distribution and obsoles-cence, Scientometrics 53(3), (2002) 309-323.
  • 10. Q.L. Burrell, Hirsch’s h-index: A stochastic model, Jour-nal of Informetrics 1(1), (2007) 16-25.
  • 11. Q.L. Burrell, On the h-index, the size of the Hirsch core and Jin’s A-index, Journal of Informetrics 1(2), (2007) 170-177.
  • 12. Q.L. Burrell, The individual author’s publicationcitation process: theory and practice, Scientometrics 98(1), (2014) 725-742.
  • 13. W. Glänzel, On the possibility and reliability of predictions based on stochastic citation processes, Scientometrics 40(3), (1997) 481-492.
  • 14. W. Glänzel, A. Schubert, Predictive aspects of a stochastic model for citation processes, Information Processing and Management 31(1), (1995) 69-80.
  • 15. X. Zheng, Predicting publication productivity for re-searchers: A piecewise Poisson model, Journal of Informetrics 14(3), (2020) 101065.
  • 16. S.Nadarajan, S. Kotz, Models for citation behavior, Scientometrics 72(2), (2007) 291-305.
  • 17. M.V. Simkin, V.P. Roychowdhury, A mathematical theory of citing, Journal of American Society for Infor-mation Science and Technology 58(11), (2007) 1661-1673.
  • 18. J.E. Hirsch, An index to quantify an individual’s scientific research output, Proceedings of the National Academy of Sciences of the USA 102(46), (2005), 16569-16572.
  • 19. Fernandez, C. Salmeron, P.S. Fernandez, A. Martinez, Application of a frequency distribution model to describe the thermal inactivation of two strains of Becillus cereus, Trends in Food Science and Technology 10(4-5), (1999) 158-162.
  • 20. J.-C. Augustin, A. Brouillaud-Delattre, L. Rosso, V. Carlier, Significance of Inoculum size in the lag time of Listeria monocytogenes, Applied and Environmental Mi-crobiology 66(4), (2000) 1706-1710.
  • 21. M. Valero, S. Leontidis, P.S. Fernandez, A. Martinez, M.C. Salmeron, Growth of Bacillus cereus in natural and acidified carrot substrates over the temperature range 5-30oC, Food Microbiology 17(6), (2000) 605-612.
  • 22. H. Fujizawa, A. Kai, S. Morozumi, A new logistic model for bacterial growth, Journal of the Food Hygienic Society of Japan 44(3), (2003) 155-160.
  • 23. H. Fujizawa, A. Kai, S. Morozumi, A new logistic model for Escherichia coli growth at constant and dynamic tem-peratures. Food Microbiology 21(5), (2004) 501-509.
  • 24. M.G. Corradini, M. Peleg, A Weibullian model for microbial injury and mortality, International Journal of Food Microbiology 119(3), (2007) 319-328.
  • 25. M. Peleg, M.G. Corradini, M.D. Normand, The logistic (Verhulst) model for sigmoidal microbial growth curves revisited, Food Research International, 40(7), (2007) 808-818.
  • 26. G.T., Yates, T. Smotzer, On the phase lag and initial decline of microbial growth curves, Journal of Theoretical Biology 244(3), (2007) 511-517.
  • 27. G.M.F., Aragao, M.G., Corradini, M.D., Nonmand, M. Peleg, Evaluation of the Weibull and log normal distribu-tion functions as survival models of Escherichia coli under isothermal and non-isothermal conditions, International Journal of Food Microbiology 119(3), (2007) 243-257.
  • 28. M.Y. Li, X.M. Sun, G.M. Zhao, X.Q. Huang, J.W. Zhang, W. Tian, Q.H. Zhang, Comparison of mathemati-cal models of lactic acid bacteria growth in vacuum-packaged raw beef stored at different temperatures, Jour-nal of Food Science 78(4), (2012) M600-M604.
  • 29. J. Kowalik, A. Lobacz, Development of a predictive model for describing the growth of Yersinia enterocolitica in Camembert-type cheese, International Journal of Food Science and Technology 50(3), (2015) 811-818.
  • 30. Lobacz, J. Kowalik, A predictive model for Listeria monocytogenes in UHT diary products with various fat content during storage, Journal of Food Safety 35(1), (2015) 119-277.
  • 31. S. Sakanoue, Extended logistic model for growth of single-species population, Ecological Modelling 205(1-2), (2007) 159-168.
  • 32. H. Krug, G. Taubert, Practical use of the logistic law in experimental tumor-growth, Archiv für Geschwulstforsch 55(4), (1985) 235-244.
  • 33. U. Foryś, A. Marciniak-Czochra, Logistic equations in tumour growth modelling, International Journal of Ap-plied Mathematical Computation Science 13(3), (2003) 317-325.
  • 34. B. Gładyszewska, Ocena wpływu przedsiewnej laserowej biostymulacji nasion pomidorów na proces ich kiełkowania (Evaluation of presowing laser biostymulation of tomato seeds on the process of their germination), PhD thesis, Agriculture Academy, Lublin (1998).
  • 35. W. Kloek, P. Walstra, T. van Vliet. Crystallization kinetics of fully hydrogenated palm oil in sunflower oil mixtures, Journal of American Oil Chemistry Society 77(4), (2000) 389-398.
  • 36. S. Padar, S.A.K. Jeelani, E.J. Windhab, Crystallization kinetics of cocoa fat systems: Experiments and modeling, Journal of American Oil Chemists’ Society 85(12), (2009) 1115-1126.
  • 37. K. Sangwal, K. Sato, Nucleation and crystallization kinet-ics of fats. In: A.G. Marangoni (Editor), Structure-function analysis of edible fats, AOCS Press, Urbana, 2012, Chapter 2, pp. 25-78.
  • 38. L.M. Cunha, F.A.R. Oliveira, J.C. Oliveira, Optimal experimental design for estimating the kinetic parameters of processes described by the Weibull probability distri-bution function, Journal of Food Engineering 37(1), (1998) 175-191.
  • 39. K. Sangwal, Growth dynamics of citations of cumulative papers of individual authors according to progressive nu-cleation mechanism: concept of citation acceleration, In-formation Processing and Management 49(4), (2013) 757-772.
  • 40. K. Sangwal, On the growth dynamics of citations of articles by some Nobel Prize winners, Journal of Informetrics 9 (2015) 466-476.
  • 41. M.F. Brilhante, M.I. Gomes, D. Pestana, Extensions of Verhulst model in population dynamics and extremes. Chaotic Modeling and Simulation (CMSIM), Issue 4, (2012) 575-591.
  • 42. T. Chatterjee, B.K. Chatterjee, D. Majumdar, P. Chakrabarti, Antibacterial effect of silver nanoparticles and the modeling of bacterial growth kinetics using a modified Gompertz model, Biochimica et Biophysica Acta 185(2), (2015) 299-306.
  • 43. El-Gohary, A. Alshamrani, A.N. Al-Otaibi, The gen-eralized Gompertz distribution, Applied Mathematical Modelling 37(1), (2013) 13-24.
  • 44. A.A. Jafari, A. Tahmasebi, M. Alizadeh, The beta-Gompertz distribution, Revista Colombiana de Estadistica, 37(1), (2014) 139-156.
  • 45. K.Y. Chuang, Y.S. Ho, Bibliometric profile of top-cited single-author articles in the Science Citation Index Ex-panded, Journal of Informetrics 8 (2014) 951-962.
  • 46. G. Leubner-Metzger, Functions and regulation of -1,3-glucanases during seed germination, dormancy release and after-ripening, Seed Science Research 13(1), (2003) 17–34.
  • 47. K. Weitbrecht, K, Müller, G. Leubner-Metzger, First off the mark: Early seed germination, Journal of Experimental Botany 62(10), (2011) 3289–3309.
  • 48. M.A. Lopez-Manchado, J. Biagiotti, L. Torre, J.M. Kenny, Effects of reinforcing fibers on the crystallzation of polypropylene, Polymer Engineering Science 40(10), (2000) 2194-2204.
  • 49. D.F. Eggers, N.W. Gregory, G.D. Halsey, & B.S. Rabinovitch, Physical Chemistry. Wiley, New York, 1964.
  • 50. J.W. Atkinson, An Introduction to Motivation. Van Nostrand, Princeton, 1964.
  • 51. P. Vinkler, A quasi-quantitative citation model, Scientometrics 12 (1987) 47–72.
  • 52. P. Vinkler, Comparative investigation of frequency and strength of motives towards referencing: The reference threshold model, Scientometrics 43(1) (1998) 107-127.
  • 53. K. Sangwal, Progressive nucleation mechanism for the growth behavior of items and its application to cumulative papers and citations of individual authors, Scientometrics 92(2), (2012) 575-591.
  • 54. K. Sangwal, Czochralski method of crystal growth in the scientific literature: An informetric study, Acta Physica Polonica B 124(2), (2013) 173-180.
  • 55. W. Weibull, A statistical distribution function of wide applicability, Journal of Applied Mechanics 18(3), (1951) 293–297.
  • 56. Y.X. Liu, R. Rousseau, Citation analysis and the devel-opment of science: A case study using articles by some Nobel Prize winners, Journal of American Society for In-formation Science and Technogy 65(2), (2014) 281-289.
  • 57. K. Sangwal, On the growth of citations of publication output of individual authors, Journal of Informetrics 5(4), (2011) 554-564.
  • 58. K. Sangwal, On the growth behavior of yearly citations of cumulative papers of individual authors, Journal of Scientometric Research 2(1), (2013) 30-36.
  • 59. Y.-S. Ho, M. Kahn, A bibliometric study of highly cited reviews in the Science Citation Index ExpandedTM, Jour-nal of American Society for Information Science and Technology 65(2), (2014) 372-385.
  • 60. E.S. Aversa, Citation patterns of highly cited papers and their relationship to literature aging: A study of the work-ing literature, Scientometrics 7(3-6), (1985) 383-389.
  • 61. Avramescu, Actuality and obsolescence of scientific literature, Journal of American Society for Information Science 30(4), (1979) 296-303.
  • 62. L. Egghe, On the influence of growth on obsolescence, Scientometrics, 27(2), (1993) 195-214.
  • 63. L. Egghe, I.K. Ravichandra Rao, R. Rousseau, On the influence of production on utilization functions: Obsoles-cence or increased use? Scientometrics 34(2), (1995) 285-315.
  • 64. U. Gupta, Obsolescence of physics literature: Exponential decrease of the density of citations to Physical Review articles with age, Journal of American Society for Infor-mation Science 41(4), (1990) 282-287.
  • 65. A.L. Horvat, Handbook of Electrolyte Solutions: Physical Properties, Estimation and Correlation Methods. Ellis Horwood, Chichester (1985).
  • 66. D. Kashchiev, Nucleation: Basic Theory with Applica-tions. Butterworth-Heinemann. Oxford, 2000.
  • 67. J.W. Mullin, Crystallization, 4th Edition. Butterworth-Heinemann, Oxford, 2001.
  • 68. A.G. Marangoni, On the use and misuse of the Avrami equation in the characterization of the kinetics of fat crys-tallization, Journal of American Oil Chemists’ Society 75(10), (1998) 1465-1467.
  • 69. S. Bonzi, H.W. Snyder, Motivations for citation: A com-parison of self citation and citation to others. Scientometrics 21 (1991) 245–254.
  • 70. M.H.C. Ho, J.S. Liu, The motivations for knowledge transfer across borders: the diffusion of data envelopment analysis (DEA) methodology, Scientometrics 94 (2013) 397–421 .
  • 71. D. Lyu, X. Ruan, J. Xie, Y. Cheng, The classification of citing motivations: a meta-synthesis, Scientometrics 126 (2021) 3243–3264.
Uwagi
Opracowanie rekordu ze środków MNiSW, umowa Nr 461252 w ramach programu "Społeczna odpowiedzialność nauki" - moduł: Popularyzacja nauki i promocja sportu (2021).
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-603e93b5-6525-4cc9-8f12-f833d6444ebb
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