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In this paper a new integral transform namely Aboodh transform was applied to solve linear ordinary differential equations with constant coefficients.
In this paper, we apply a new integral transform '' Aboodh transform'' to solve some ordinary differential equation with variable coefficients, The result reveals that the proposed method is very efficient, simple and can be applied to linear and nonlinear differential equations.
The Aboodh transform of partial derivatives is derived, and its applicability demonstrated using four different partial differential equations. In this paper we find the particular solutions of these equations.
2010
Integral transform method is widely used to solve the several differential equations with the initial values or boundary conditions which are represented by integral equations. With this purpose, the Sumudu transform was introduced as a new integral transform by Watugala to solve some ordinary differential equations in control engineering. Later, it was proved that Sumudu transform has very special and useful properties. In this paper we study this interesting integral transform and its efficiency in solving the linear ordinary differential equations with constant and nonconstant coefficients as well as system of differential equations.
International Journal of Innovative Technology and Exploring Engineering
Integral transforms are the most useful techniques of the mathematics which are used to finding the solution of heat transfer problems, mixing problems, electrical networks, bending of beams, signal processing problems, which generally appears in the various disciplines of engineering and sciences. In this research paper, connections between Aboodh transform and some effective integral transforms (Laplace transform, Kamal transform, Elzaki transform, Sumudu transform, Mahgoub transform, Mohand transform and Sawi transform) are discussed and integral transforms of some typical functions are given in table form in application section to signify the fruitfulness of connections between Aboodh transform and some effective mention integral transforms.
International Journal of Research in Advent Technology, 2019
Mohand and Aboodh transforms are very useful integral transforms for solving many advanced problems of engineering and sciences like heat conduction problems, vibrating beams problems, population growth and decay problems, electric circuit problems etc. In this article, we present a comparative study of two integral transforms namely Mohand and Aboodh transforms. In application section, we solve some systems of differential equations using both the transforms. Results show that Mohand and Aboodh transforms are closely connected.
2020
The primary purpose of this research is to demonstrate an efficient replacement double transform named the Laplace–Sumudu transform (DLST) to unravel integral differential equations. The theorems handling fashionable properties of the Laplace–Sumudu transform are proved; the convolution theorem with an evidence is mentioned; then, via the usage of these outcomes, the solution of integral differential equations is built.
General Letters in Mathematics
In this work , we investigate the Aboodh transformation method to solve first order constant coefficients complex equations. This method provides an effective and efficient way of solving a wide range of linear operator equations.
Symmetry
In this paper, we introduce a new type of integral transforms, called the ARA integral transform that is defined as: G n [ g ( t ) ] ( s ) = G ( n , s ) = s ∫ 0 ∞ t n − 1 e − s t g ( t ) d t , s > 0 . We prove some properties of ARA transform and give some examples. Also, some applications of the ARA transform are given.
Asian Journal of Applied Sciences, 2019
In this paper, Differential Transform Method (DTM) has been used to solve some systems of linear and nonlinear Integro-differential equations. The approximate solution in the form of a series are calculated with easily computable terms. The solution obtained using this method is compared with the solution obtained using existing methods.
European Journal of Pure and Applied Mathematics, 2016
In this paper, we propose Polynomial Integral Transform for solving differential equations. Unlike Laplace Transform and others, the Polynomial Integral Transform solves differential equations with little computational effort as well as time. In addition, the Polynomial Integral Transform entails a polynonmial function as its kernel, which ensures the rapid convergence of the solution to a differential equation. Thus, this method transforms a linear differential equation into an algebraic equation, from which the solution is obtained. Moreover, we show the applicabilities of the Polynomial Integral Transform and its properties.
In the present paper authors introduce the L n-integral transform and the L −1 n inverse integral transform for n = 2 k , k ∈ N , as a generalization of the classical Laplace transform and the L −1 inverse Laplace transform, respectively. Applicability of this transforms in solving linear ordinary differential equations is analyzed. Some illustrative examples are also given.
IAETSD JOURNAL FOR ADVANCED RESEARCH IN APPLIED SCIENCES, 2018
Xiao-Jun Yang [1] proposes a new integral Transform called "Yang Transform" and applied to solve Steady Heat Transfer problem. In this paper researcher investigate the fundamental properties of Yang transform and used effectively to solve differential equations with constant coefficients. Also we define Laplace-Yang duality property.
International journal of physics and mathematics , 2024
In this paper, we introduced a new Laplace-type integral transform called RAHMOH transform which is generalized of Laplace and Sumudu transforms for solving ordinary and partial differential equations. We presented its existence, inverse transform and some essential properties with some theorems and applications.
2010
In this work a new integral transform, namely Sumudu transform was applied to solve linear ordinary differential equation with and without constant coefficients having convolution terms. In particular we apply Sumudu transform technique to solve Spring-Mass systems, Population Growth and financial problem.
Periodicals of Engineering and Natural Sciences (PEN), 2021
In this paper another fundamental change in particular SEE change was applied to address straight normal deferential conditions with consistent coefficients and SEE change of incomplete derivative is inferred and its appropriateness showed utilizing three is inferred and its appropriateness showed utilizing: wave equation, heat equation and Laplace equation, we find the particular solutions of these equations.
International Journal of Analysis and Applications , 2019
In this paper, we introduce a Laplace-type integral transform called the Shehu transform which is a generalization of the Laplace and the Sumudu integral transforms for solving differential equations in the time domain. The proposed integral transform is successfully derived from the classical Fourier integral transform and is applied to both ordinary and partial differential equations to show its simplicity, efficiency, and the high accuracy.
In this paper, a new integral transform Elzaki transform is used to solve the linear ordinary differential equations. We compare the result of Elzaki transform with the well known integral transform the Laplace transforms.
Advances in Difference Equations, 2021
In this paper, we introduce a new integral transform, namely Aboodh transform, and we apply the transform to investigate the Hyers–Ulam stability, Hyers–Ulam–Rassias stability, Mittag-Leffler–Hyers–Ulam stability, and Mittag-Leffler–Hyers–Ulam–Rassias stability of second order linear differential equations.
Cornell University - arXiv, 2022
In this work, we introduce a new generalized integral transform involving many potentially known or new transforms as special cases. Basic properties of the new integral transform, that investigated in this work, include the existence theorem, the scaling property, elimination property a Parseval-type identity, and inversion formula. The relationships of the new transform with well-known transforms are characterized by integral identities. The new transform is applied to solve certain initial boundary value problems. Some illustrative examples are given. The results established in this work extend and generalize recently published results.
European Journal of Pure and Applied Mathematics, 2018
In this paper, the generalization of integral transform (GIT) of the func-tion G{f (t)} is introduced for solving both differential and interodif-ferential equations. This transform generalizes the integral transformswhich use exponential functions as their kernels and the integral trans-form with polynomial function as a kernel. The generalized integraltransform converts the differential equation in us domain (the trans-formed variables) and reconvert the result by its inverse operator. Inparticular, if u = 1, then the generalized integral transform coincideswith the Laplace transform and this result can be written in anotherform as the polynomial integral transform.
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