This article focuses on the influence of relevant parameters of biomass pyrolysis on the numerical solution of the isothermal nth-order distributed activation energy model (DAEM) using the Rayleigh distribution as the initial distribution function F(E) of the activation energies. In this study, the integral upper limit, the frequency factor, the reaction order and the scale parameters are investigated. This paper also derived the asymptotic approximation for the DAEM. The influence of these parameters is used to calculate the kinetic parameters of the isothermal nth-order DAEM with the help of thermo-analytical results of TGA/DTG analysis
AbstractWe present approximations to the Distributed Activation Energy Model (DAEM), also known as t...
The distributed activation energy model (DAEM) has been widely used to analyze the thermal decomposi...
Developing a kinetic model to analyze the multi-step reaction of biomass pyrolysis is pivotal to elu...
This paper describes the influence of some parameters significant to biomass pyrolysis on the numeri...
This paper deals with the influence of some factors relevant to isothermal pyrolysis of residual lea...
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...
The paper focuses on the influences of some factors significant to pyrolysis of forestry biomass on ...
then resubmitted after minor revisions in September 2002. The Distributed Activation Energy Model (D...
This work investigates the thermal decomposition of forest waste for a non-linear temperature distri...
The aim of the present study was to explore the most optimal configuration to numerically solve Dist...
The main aim of this paper is to fuzzify the kinetic parameters, which have crisp nature, in order t...
The Distributed Activation Energy Model (DAEM), used for the pyrolysis of a range of materials (incl...
The kinetic compensation effect in the logistic distributed activation energy model (DAEM) for ligno...
Pyrolysis is a fundamental step in thermochemical processes of biomass materials, so a suitable kine...
AbstractWe present approximations to the Distributed Activation Energy Model (DAEM), also known as t...
The distributed activation energy model (DAEM) has been widely used to analyze the thermal decomposi...
Developing a kinetic model to analyze the multi-step reaction of biomass pyrolysis is pivotal to elu...
This paper describes the influence of some parameters significant to biomass pyrolysis on the numeri...
This paper deals with the influence of some factors relevant to isothermal pyrolysis of residual lea...
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...
The paper focuses on the influences of some factors significant to pyrolysis of forestry biomass on ...
then resubmitted after minor revisions in September 2002. The Distributed Activation Energy Model (D...
This work investigates the thermal decomposition of forest waste for a non-linear temperature distri...
The aim of the present study was to explore the most optimal configuration to numerically solve Dist...
The main aim of this paper is to fuzzify the kinetic parameters, which have crisp nature, in order t...
The Distributed Activation Energy Model (DAEM), used for the pyrolysis of a range of materials (incl...
The kinetic compensation effect in the logistic distributed activation energy model (DAEM) for ligno...
Pyrolysis is a fundamental step in thermochemical processes of biomass materials, so a suitable kine...
AbstractWe present approximations to the Distributed Activation Energy Model (DAEM), also known as t...
The distributed activation energy model (DAEM) has been widely used to analyze the thermal decomposi...
Developing a kinetic model to analyze the multi-step reaction of biomass pyrolysis is pivotal to elu...