AbstractA Leonard pair is a pair of diagonalizable linear transformations of a finite-dimensional vector space, each of which acts in an irreducible tridiagonal fashion on an eigenbasis for the other one. In the present paper we give an elementary but comprehensive account of how the following are related: (i) Krawtchouk polynomials; (ii) finite-dimensional irreducible modules for the Lie algebra sl2; (iii) a class of Leonard pairs said to have Krawtchouk type. Along the way we obtain elementary proofs of some well-known facts about Krawtchouk polynomials, such as the three-term recurrence, the orthogonality, the difference equation, and the generating function. The paper is a tutorial meant for a graduate student or a researcher unfamiliar...
Abstract. Let K denote a field and let V denote a vector space over K with finite positive dimension...
AbstractLet K denote a field of characteristic 0 and let V denote a vector space over K with positiv...
AbstractLet K denote a field, and let V denote a vector space over K with finite positive dimension....
AbstractA Leonard pair is a pair of diagonalizable linear transformations of a finite-dimensional ve...
AbstractLet K denote a field, and let V denote a vector space over K with finite positive dimension....
AbstractLet K denote a field, and let V denote a vector space over K with finite positive dimension....
AbstractLet V denote a vector space with finite positive dimension. We consider a pair of linear tra...
AbstractIn this survey paper we give an elementary introduction to the theory of Leonard pairs. A Le...
AbstractLet K denote a field and let V denote a vector space over K with finite positive dimension. ...
AbstractLet K denote a field, and let V denote a vector space over K with finite positive dimension....
AbstractLet V denote a vector space with finite positive dimension. We consider a pair of linear tra...
Let ℱ denote an algebraically closed field with a characteristic not two. Fix an integer d≥3; let x,...
AbstractIn this survey paper we give an elementary introduction to the theory of Leonard pairs. A Le...
AbstractLet V denote a vector space with finite positive dimension. We consider an ordered pair of l...
AbstractLet K denote an algebraically closed field. Let V denote a vector space over K with finite p...
Abstract. Let K denote a field and let V denote a vector space over K with finite positive dimension...
AbstractLet K denote a field of characteristic 0 and let V denote a vector space over K with positiv...
AbstractLet K denote a field, and let V denote a vector space over K with finite positive dimension....
AbstractA Leonard pair is a pair of diagonalizable linear transformations of a finite-dimensional ve...
AbstractLet K denote a field, and let V denote a vector space over K with finite positive dimension....
AbstractLet K denote a field, and let V denote a vector space over K with finite positive dimension....
AbstractLet V denote a vector space with finite positive dimension. We consider a pair of linear tra...
AbstractIn this survey paper we give an elementary introduction to the theory of Leonard pairs. A Le...
AbstractLet K denote a field and let V denote a vector space over K with finite positive dimension. ...
AbstractLet K denote a field, and let V denote a vector space over K with finite positive dimension....
AbstractLet V denote a vector space with finite positive dimension. We consider a pair of linear tra...
Let ℱ denote an algebraically closed field with a characteristic not two. Fix an integer d≥3; let x,...
AbstractIn this survey paper we give an elementary introduction to the theory of Leonard pairs. A Le...
AbstractLet V denote a vector space with finite positive dimension. We consider an ordered pair of l...
AbstractLet K denote an algebraically closed field. Let V denote a vector space over K with finite p...
Abstract. Let K denote a field and let V denote a vector space over K with finite positive dimension...
AbstractLet K denote a field of characteristic 0 and let V denote a vector space over K with positiv...
AbstractLet K denote a field, and let V denote a vector space over K with finite positive dimension....