2006
DOI: 10.1016/j.physa.2005.12.062
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Generalized fractal kinetics in complex systems (application to biophysics and biotechnology)

Abstract: We derive a universal function for the kinetics of complex systems characterized by stretched exponential and/or power-law behaviors.This kinetic function unifies and generalizes previous theoretical attempts to describe what has been called "fractal kinetic".We discuss briefly the relation of the (n, α) kinetic formalism with the Tsallis theory of nonextensive systems.

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Cited by 137 publications
(92 citation statements)
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“…Such slopes, p, near 0.5 are typical for IDM and seem to suggest initial sorption mechanism controlled by normal diffusion, whereas for p \ 0.5 we system shows super diffusion and for p \ 0.5-subdiffusion (Sharifi-Viand et al 2012) with such effects attributed to disordered structure of the porous media (Havlin and Ben-Avraham 2002). However, one has to say, that the Bangham plot may be written as uðtÞ ¼ 1 À exp½ÀðktÞ p which is mathematically equivalent to the Avrami (1939) and fractal (Brouers and Sotolongo-Costa 2006) kinetic equations. Moreover, similar type of initial adsorption rates (a * t p ) are present in the SRT model with LF heterogeneity, however, power coefficient p ¼ n=ð1 þ nÞ B 0.5, where 0 \ nB1 is the heterogeneity coefficient (Marczewski 2011).…”
Section: Preliminary Analysis-bangham Plotsmentioning
confidence: 93%
See 1 more Smart Citation
“…Such slopes, p, near 0.5 are typical for IDM and seem to suggest initial sorption mechanism controlled by normal diffusion, whereas for p \ 0.5 we system shows super diffusion and for p \ 0.5-subdiffusion (Sharifi-Viand et al 2012) with such effects attributed to disordered structure of the porous media (Havlin and Ben-Avraham 2002). However, one has to say, that the Bangham plot may be written as uðtÞ ¼ 1 À exp½ÀðktÞ p which is mathematically equivalent to the Avrami (1939) and fractal (Brouers and Sotolongo-Costa 2006) kinetic equations. Moreover, similar type of initial adsorption rates (a * t p ) are present in the SRT model with LF heterogeneity, however, power coefficient p ¼ n=ð1 þ nÞ B 0.5, where 0 \ nB1 is the heterogeneity coefficient (Marczewski 2011).…”
Section: Preliminary Analysis-bangham Plotsmentioning
confidence: 93%
“…Recently, several new equations describing fractal-like adsorption model (Haerifar and Azizian 2012) were presented. Those equations were derived from IKL and empirical MOE as well as from SRT model by using fractal approach to kinetics (Brouers and Sotolongo-Costa 2006) introduced in order to account for complexity of adsorption systems but earlier developed by Erofeev co-workers as KEKAM theory (Avrami 1939). In this paper only fractallike MOE (f-MOE) will be used:…”
Section: Adsorption Kinetics In Non-ideal Systemsmentioning
confidence: 99%
“…The stretched exponential (SE) equation was developed as a global kinetic equation by Kolmogorov, Erofeev, Kozeeva, Avrami, and Mampel, and it is called the KEKAM equation [35][36]. It is characterized by parameter A and rate coefficient k. For the purpose of this analysis, the following forms of the equation were used:…”
Section: Kinetic Equationsmentioning
confidence: 99%
“…First approach proposed by Busch et al [18] consider the combination of two first-order rate functions and represent the traditional approach to interpret experimental data in terms of fast and slow sorption process. The other empirical kinetic equations are: the pseudo-second-order kinetic equation (PSOE) proposed by Blanchard et al [31], in original time-integrated form [32]; Elovich equation developed to describe kinetics of chemisorption [33][34] and stretched exponential equation (SE) also known as the KEKAM equation [35][36].…”
Section: Introductionmentioning
confidence: 99%
“…A Eq. (11) também ocorre em cinética química, em que p representa a concentração de um dado reagente [12]. Se λ(x) = b x, a Eq.…”
Section: Família De Equações Diferenciais Não Linearesunclassified