AbstractThis paper deals with the construction of explicit bounds for solutions of second order linear differential equations of the type [p(x)y′(x)]′+q(x)y(x)=0, p(x),q(x)>0, x>x0. The construction is based on the study of the evolution of two complementary functionals involving y(x) in the sequence of zeroes of y(x) and y′(x). Based on that, both a theoretical bound and an algorithm to explicitly calculate that bound are presented. An illustrative example shows that the bounds proposed here improve previous results
AbstractLet y(t) be a nontrivial solution of the second order differential inequality y(t){(r(t)y′(t...
We consider the equation u\u27\u27=P(z)u, where P(z) is a polynomial. Let zk(u), k=1, 2, ... be the ...
We establish a precise estimate of the ultimate bound of solutions to some second order evolution eq...
AbstractThis paper deals with the construction of explicit bounds for solutions of second order line...
AbstractThis paper presents a new method to construct explicit bounds for the solutions of second or...
AbstractThis paper presents a new method to construct explicit bounds for the solutions of second or...
AbstractThis paper improves the algorithm for the construction of explicit bounds for the solutions ...
AbstractThis paper presents integral criteria to determine the asymptotic behaviour of the solutions...
AbstractThis paper presents an upper bound for the distance between a zero and a critical point of a...
In this paper we study boundedness and certain stability properties of solution of Second Or...
In this paper we study boundedness and certain stability properties of solution of Sec...
AbstractWe give necessary and sufficient conditions for the solutions of the differential equation (...
AbstractIt is shown that within the scope of ordinary differential equations, the unknown solutions ...
In this dissertation we study the Lp solutions of second order linear differential equations. The q...
AbstractFor second-order linear and nonlinear difference equations some qualitative properties of so...
AbstractLet y(t) be a nontrivial solution of the second order differential inequality y(t){(r(t)y′(t...
We consider the equation u\u27\u27=P(z)u, where P(z) is a polynomial. Let zk(u), k=1, 2, ... be the ...
We establish a precise estimate of the ultimate bound of solutions to some second order evolution eq...
AbstractThis paper deals with the construction of explicit bounds for solutions of second order line...
AbstractThis paper presents a new method to construct explicit bounds for the solutions of second or...
AbstractThis paper presents a new method to construct explicit bounds for the solutions of second or...
AbstractThis paper improves the algorithm for the construction of explicit bounds for the solutions ...
AbstractThis paper presents integral criteria to determine the asymptotic behaviour of the solutions...
AbstractThis paper presents an upper bound for the distance between a zero and a critical point of a...
In this paper we study boundedness and certain stability properties of solution of Second Or...
In this paper we study boundedness and certain stability properties of solution of Sec...
AbstractWe give necessary and sufficient conditions for the solutions of the differential equation (...
AbstractIt is shown that within the scope of ordinary differential equations, the unknown solutions ...
In this dissertation we study the Lp solutions of second order linear differential equations. The q...
AbstractFor second-order linear and nonlinear difference equations some qualitative properties of so...
AbstractLet y(t) be a nontrivial solution of the second order differential inequality y(t){(r(t)y′(t...
We consider the equation u\u27\u27=P(z)u, where P(z) is a polynomial. Let zk(u), k=1, 2, ... be the ...
We establish a precise estimate of the ultimate bound of solutions to some second order evolution eq...