Determination of a Nonlinear Coefficient in a Time-Fractional Diffusion Equation
DETERMINATION OF A NONLINEAR COEFFICIENT IN A TIME-FRACTIONAL DIFFUSION EQUATION
An inverse source problem for pseudo-parabolic equation with Caputo derivative
Numerical solutions of direct and inverse problems for a time fractional elastoplasticity equation
Blow-up for an evolution equation related to elastoplastic torsional problem
Numerical solutions of direct and inverse problems for a time fractional viscoelastoplastic equation
Analysis of direct and inverse problems for a fractional elastoplasticity model
An inverse problem for a nonlinear diffusion equation with time-fractional derivative
An inverse source problem for a one dimensional space-time fractional diffusion equation
Structural stability for the Morris-Lecar neuron model
An inverse coefficient problem for a nonlinear reaction diffusion equation with a nonlinear source
Determination of an unknown source term in a spaceDtime fractional diffusion equation
Structural stability for the Morris–Lecar neuron model
An inverse source problem for a one-dimensional space–time fractional diffusion equation
Determination of an unknown source term in a space-time fractional diffusion equation
Monotonicity of input–output mapping related to inverse elastoplastic torsional problem
QuasiDsolution approach for a two dimensional nonlinear inverse diffusion problem
Monotonicity of inputDoutput mapping related to inverse elastoplastic torsional problem
A uniqueness result in an inverse problem for a spaceDtime fractional diffusion equation
Quasi-solution approach for a two dimensional nonlinear inverse diffusion problem
A uniqueness result for an inverse problem in a space-time fractional diffusion equation
Analytical solutions of a class of inverse coefficients problems
Analytical solutions of a class of inverse coefficient problems
Monoton potansiyel operatörle tanımlanmış eliptik denklem için ters katsayı problemi
Solutions of linear and nonlinear problems related to torsional rigidity of a beam
Esnek olmayan çubuğun bükülmesi ile ilgili monoton operatörlü ters katsayı probleminin çözümü
The main objective of this course is to help the student in understanding the basic concepts of calculus on the one hand, and to develop the skills needed for using calculus as a viable tool to solve problems that arise in the study of business and economics. Topic covered include, limits, types of functions (polynomial, rational, exponential and logarithmic), their derivatives, anti-derivatives and their various applications.
This course builds strong basic mathematics skills that are required for studying undergrad mathematics. This course is particularly important to students, whose mathematical skills are not sufficiently developed at high school levels. This course covers materials that include algebraic operations, radical and rational expression, equalities and in-equalities, functions and analytic geometry, special types of functions (linear, quadratic, inverse, polynomial, rational, exponential, logarithmic,and trigonometric), solution to equations, and identities involving some types of functions.
This course is an introduction to the theory and application of ordinary differential equations and the
Laplace transform. The main objective is for the student to develop competency in the basic concepts and
master certain solution methods. Topics covered include linear and nonlinear first order equations; higher
order linear differential equations; undetermined coefficients method; variation of parameters method;
Cauchy-Euler equation; Laplace transform; linear systems solution; solution by series method.
This course introduces the basic concepts of mathematical analysis used in science and engineering. The course teaches an introduction to differential and integral calculus. Topics include limits; the derivative; rates; the mean-value theorem; max-min problems; the integral and the fundamental theorem of integral calculus; areas, and average values.
This course is a continuation to Calculus I. The course covers basic mathematical analysis and tools, widely used in more sophisticated mathematics-based tools in various areas. The topics include Integration techniques, applications of integration like volumes by disk and cylindrical shells methods, Arc length and area of a surface of revolution, parametric equations and polar coordinates, conic sections, infinite sequences and series.
This course provides an introduction to linear algebra topics. Emphasis is placed on the development of abstract concepts and applications for vectors, systems of equations, matrices, determinants, vector spaces, multi-dimensional linear transformations, eigenvectors, eigenvalues, diagonalization and orthogonality. Upon completion, students should be able to demonstrate understanding of the theoretical concepts and select and use appropriate models and techniques for finding solutions to linear algebra-related problems with and without technology