Chung-Chun Yang
Hong Kong University of Science and Technology
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Kluwer Academic Publishers | 2003
Chung-Chun Yang; Hong-Xun Yi
1 Basic Nevanlinna theory.- 2 Unicity of functions of finite (lower) order.- 3 Five-value, multiple value and uniqueness.- 4 The four-value theorem.- 5 Functions sharing three common values.- 6 Three-value sets of meromorphic functions.- 7 Functions sharing one or two values.- 8 Functions sharing values with their derivatives.- 9 Two functions whose derivatives share values.- 10 Meromorphic functions sharing sets.
Archive | 2000
Pei-Chu Hu; Chung-Chun Yang
Preface. 1. Basic facts in rho-adic analysis. 2. Nevanlinna theory. 3. Uniqueness of meromorphic functions. 4. Differential equations. 5. Dynamics. 6. Holomorphic curves. 7. Diophantine Approximations. A. The Cartan conjecture for moving targets. Symbols. Index.
Archive | 2000
Xinhou Hua; Xiaoling Wang; Chung-Chun Yang
Let f be a nonconstant meromorphic function. The sequence of the iterates of f is denoted by
Unicity of Meromorphic Mappings | 2003
Pei-Chu Hu; Ping Li; Chung-Chun Yang
Proceedings of the American Mathematical Society | 1996
Ping Li; Chung-Chun Yang
{f^0}=id,{f^1}=f,\cdots,{f^{n + 1}} = {f^n}(f), \cdots
Complex Variables and Elliptic Equations | 2000
Zong-Xuan Chen; Chung-Chun Yang
Proceedings of the American Mathematical Society | 1970
Chung-Chun Yang
Bulletin of The Australian Mathematical Society | 2001
Chung-Chun Yang
Preface. 1: Nevanlinna theory. 1.1. Parabolic manifolds and Hermitian geometry. 1.2. The first main theorem. 1.3. Growths of meromorphic functions. 1.4. The lemma of logarithmic derivative. 1.5. Growth estimates of Wronskians. 1.6. The second main theorem. 1.7. Degenerate holomorphic curves. 1.8. Value distribution of differential polynomials. 1.9. The second main theorem for small functions. 1.10. Tumura-Clunie theory. 1.11. Generalizations of Nevanlinna theorem. 1.12. Generalizations of Borel theorem. 2: Uniqueness of meromorphic functions on C. 2.1. Functions that share four values. 2.2. Functions that share three values CM. 2.3. Functions that share pairs of values. 2.4. Functions that share four small functions. 2.5. Functions that share five small functions. 2.6. Uniqueness related to differential polynomials. 2.7. Polynomials that share a set. 2.8. Meromorphic functions that share the same sets. 2.9. Unique range sets. 2.10. Uniqueness polynomials. 3: Uniqueness of meromorphic functions on Cm. 3.1. Technical lemmas. 3.2. Multiple values of meromorphic functions. 3.3. Uniqueness of differential polynomials. 3.4. The four-value theorem. 3.5. The three-value theorem. 3.6. Generalizations of Rubel-Yangs theorem. 3.7. Meromorphic functions sharing one value. 3.8. Unique range sets of meromorphic functions. 3.9. Unique range sets ignoring multiplicities. 3.10. Meromorphic functions of order 4.8. Propagation theorems. 4.9. Uniqueness dealing with multiple values. 5: Algebroid functions of several variables. 5.1. Preliminaries. 5.2. Techniques of value distribution. 5.3. The second main theorem. 5.4. Algebroid reduction of meromorphic mappings. 5.5. The growth of branching divisors. 5.6. Reduction of Nevanlinna theory. 5.7. Generalizations of Malmquist theorem. 5.8. Uniqueness problems. 5.9. Multiple values of algebroid functions. References. Symbols. Index.
Journal of Mathematical Physics | 1976
Harold H. Szu; C. E. Carroll; Chung-Chun Yang; S. Ahn
This paper studies the unique range set of meromorphic functions and shows that there exists a finite set S such that for any two nonconstant meromorphic functions f and g the condition Ef (S) = Eg(S) implies f _ g. As a special case this also answers an open question posed by Gross (1977) about entire functions and improves some results obtained recently by Yi.
Complex Variables and Elliptic Equations | 1995
Pei-Chu Hu; Chung-Chun Yang
Let f(z) denote an entire solution of a linear differential equation with entire coefficients. In this paper we have investigated λ 2 (f) and σ2 (f), the hyper-exponent of convergence of the zeros and the hyper-order of (f)respectively.