We prove that the author's powersum formula yields a nonzero expression for a particular linear ordinary differential equation, called a resolvent, associated with a univariate polynomial whose coefficients lie in a differential field of characteristic zero provided the distinct roots of the polynomial are differentially independent over constants. By definition, the terms of a resolvent lie in the differential field generated by the coefficients of the polynomial, and each of the roots of the polynomial are solutions of the resolvent. One example shows how the powersum formula works. Another example shows how the proof that the formula is not zero works
Let k be a field of characteristic zero, f(X,Y),g(X,Y)is an element ofk[X,Y], g(X,Y)is not an elemen...
Consider two differential operators L 1 = P a i d i and L 2 = P b j d j with coefficients in...
AbstractWe present a method for the construction of solutions of certain systems of partial differen...
We prove that the author’s powersum formula yields a nonzero expression for a partic-ular linear ord...
We prove that the author’s powersum formula yields a nonzero expression for a partic-ular linear ord...
We prove that the author’s powersum formula yields a nonzero expression for a partic-ular linear ord...
We will prove that we can specialize the indeterminate α in a linear differential α-resolvent of a u...
We will prove that we can specialize the indeterminate α in a linear differential α-resolvent of a u...
For any univariate polynomial P whose coefficients lie in an ordinary differential field F of charac...
For any univariate polynomial P whose coefficients lie in an ordinary differential field F of charac...
For any univariate polynomial P whose coefficients lie in an ordinary differential field F of charac...
For any univariate polynomial P whose coefficients lie in an ordinary differential field of charact...
AbstractFor any univariate polynomial with coefficients in a differential field of characteristic ze...
Abstract The existence of linear differential resolvents for zα for any root z of an ordinary polyno...
We will determine the number of powers of α that appear with nonzero coefficient in an α-power linea...
Let k be a field of characteristic zero, f(X,Y),g(X,Y)is an element ofk[X,Y], g(X,Y)is not an elemen...
Consider two differential operators L 1 = P a i d i and L 2 = P b j d j with coefficients in...
AbstractWe present a method for the construction of solutions of certain systems of partial differen...
We prove that the author’s powersum formula yields a nonzero expression for a partic-ular linear ord...
We prove that the author’s powersum formula yields a nonzero expression for a partic-ular linear ord...
We prove that the author’s powersum formula yields a nonzero expression for a partic-ular linear ord...
We will prove that we can specialize the indeterminate α in a linear differential α-resolvent of a u...
We will prove that we can specialize the indeterminate α in a linear differential α-resolvent of a u...
For any univariate polynomial P whose coefficients lie in an ordinary differential field F of charac...
For any univariate polynomial P whose coefficients lie in an ordinary differential field F of charac...
For any univariate polynomial P whose coefficients lie in an ordinary differential field F of charac...
For any univariate polynomial P whose coefficients lie in an ordinary differential field of charact...
AbstractFor any univariate polynomial with coefficients in a differential field of characteristic ze...
Abstract The existence of linear differential resolvents for zα for any root z of an ordinary polyno...
We will determine the number of powers of α that appear with nonzero coefficient in an α-power linea...
Let k be a field of characteristic zero, f(X,Y),g(X,Y)is an element ofk[X,Y], g(X,Y)is not an elemen...
Consider two differential operators L 1 = P a i d i and L 2 = P b j d j with coefficients in...
AbstractWe present a method for the construction of solutions of certain systems of partial differen...