This paper deals with the influence of some factors relevant to isothermal pyrolysis of residual leaves of Cedrus deodara on the asymptotic solution of the non-isothermal nth order distributed activation energy model (DAEM) using Gaussian distribution. Frequency factor, integral upper limit, the reaction order and the variance of Gaussian distribution are the parameters taken under purview of this study. In order to determine the kinetic parameters of the isothermal nth order Gaussian DAEM from thermoanalytical data of loose biomass pyrolysis, the variation of these factors has been considered. The obtained results show that the predicted results for nth order DAEM hold good at upper limit of dE, E∞ = 39 kJ mol-1
The distributed activation energy model (DAEM) has been widely used to analyze the thermal decomposi...
In this study, an investigation about the thermal behavior of four different woods was carried out. ...
then resubmitted after minor revisions in September 2002. The Distributed Activation Energy Model (D...
The paper focuses on the influences of some factors significant to pyrolysis of forestry biomass on ...
This article focuses on the influence of relevant parameters of biomass pyrolysis on the numerical s...
The main aim of this paper is to do the comparative analysis of predicted results obtained by using ...
The main aim of this paper pivoted around the influence of some parameters relevant to biomass pyrol...
This paper describes the influence of some parameters significant to biomass pyrolysis on the numeri...
This work investigates the thermal decomposition of forest waste for a non-linear temperature distri...
The main aim of this paper is to fuzzify the kinetic parameters, which have crisp nature, in order t...
Pyrolysis is a fundamental step in thermochemical processes of biomass materials, so a suitable kine...
The pyrolysis process of various types of biomass (agricultural and wood by-products) in non-isother...
A modification of the simplified Distributed Activation Energy Model is proposed to simulate the pyr...
Developing a kinetic model to analyze the multi-step reaction of biomass pyrolysis is pivotal to elu...
The kinetic compensation effect in the logistic distributed activation energy model (DAEM) for ligno...
The distributed activation energy model (DAEM) has been widely used to analyze the thermal decomposi...
In this study, an investigation about the thermal behavior of four different woods was carried out. ...
then resubmitted after minor revisions in September 2002. The Distributed Activation Energy Model (D...
The paper focuses on the influences of some factors significant to pyrolysis of forestry biomass on ...
This article focuses on the influence of relevant parameters of biomass pyrolysis on the numerical s...
The main aim of this paper is to do the comparative analysis of predicted results obtained by using ...
The main aim of this paper pivoted around the influence of some parameters relevant to biomass pyrol...
This paper describes the influence of some parameters significant to biomass pyrolysis on the numeri...
This work investigates the thermal decomposition of forest waste for a non-linear temperature distri...
The main aim of this paper is to fuzzify the kinetic parameters, which have crisp nature, in order t...
Pyrolysis is a fundamental step in thermochemical processes of biomass materials, so a suitable kine...
The pyrolysis process of various types of biomass (agricultural and wood by-products) in non-isother...
A modification of the simplified Distributed Activation Energy Model is proposed to simulate the pyr...
Developing a kinetic model to analyze the multi-step reaction of biomass pyrolysis is pivotal to elu...
The kinetic compensation effect in the logistic distributed activation energy model (DAEM) for ligno...
The distributed activation energy model (DAEM) has been widely used to analyze the thermal decomposi...
In this study, an investigation about the thermal behavior of four different woods was carried out. ...
then resubmitted after minor revisions in September 2002. The Distributed Activation Energy Model (D...