PAINLEVÉ DIFFERENTIAL EQUATIONS IN THE COMPLEX PLANE (de Gruyter Studies in Mathematics 28)
By Peter A. Clarkson. 2003
103 citations recorded by the source corpus.
Subfields: Applied Mathematics, Computational Theory and Mathematics, Numerical Analysis
View Paper: https://www.semanticscholar.org/paper/39626727c7c5a6cea62bd7d07b5fe70d27c7168e
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Applied Mathematics
- R. Korhonen
- R. Halburd
- Y. Chiang
- Shaoji Feng
- D. C. Barnett
- W. Morgan
- Irina V. Goryuchkina
- Alexander D. Bruno
In Computational Theory and Mathematics
- D. C. Barnett
- Y. Chiang
- R. Halburd
- W. Morgan
- Irina V. Goryuchkina
- Shaoji Feng
- R. Korhonen
- Alexander D. Bruno
In Numerical Analysis
- R. Korhonen
- Y. Chiang
- Shaoji Feng
- R. Halburd
- D. C. Barnett
- W. Morgan
- Irina V. Goryuchkina
- Alexander D. Bruno
Citations in the corpus
- Nevanlinna theory for the $q$-difference operator and meromorphic solutions of $q$-difference equations (2007, methodology): “When applying Nevanlinna theory to study the growth and value distribution of meromorphic solutions of differential equations, estimates involving logarithmic derivatives have often proved to be useful [9, 22].”
- Asymptotic expansions of solutions of the sixth Painlevé equation (2010, background): “For families B1, B2, only subfamilies with constant coefficients and integer exponents were known before [54].”
- On the Nevanlinna characteristic of f(z+η) and difference equations in the complex plane (2006, background): “2 YIK-MAN CHIANG AND SHAO-JI FENG prime examples of integrable second order difference equations ([1], [12]).”