Abstract

Each family of Gauss hypergeometric functions fn=2F1(a+ε1n,b+ε2n;c+ε3n;z), f_n={}_2F_1(a+ε_1n, b+ε_2n ;c+ε_3n; z), for fixed εj=0,±1ε_j=0,\pm1 (not all εjε_j equal to zero) satisfies a second order linear difference equation of the form Anfn−1+Bnfn+Cnfn+1=0. A_nf_{n-1}+B_nf_n+C_nf_{n+1}=0. Because of symmetry relations and functional relations for the Gauss functions, many of the 26 cases (for different εjε_j values) can be transformed into each other. We give a set of basic equations from which all other equations can be obtained. For each basic equation, we study the existence of minimal solutions and the character of fnf_n (minimal or dominant) as n→±∞n\to \pm\infty. A second independent solution is given in each basic case which is dominant when fnf_n is minimal and vice-versa. In this way, satisfactory pairs of linearly independent solutions for each of the 26 second order linear difference equations can be obtained.

Explore this paper’s authors, topics and related work.

Building this map preview

BZPEER is loading the nearby papers, people, topics and institutions for this page.

Reviews 0

Write a reviewWrite

No reviews yet.

Discussion 0

Add a commentWrite

No comments yet.