On a theorem by Mather and Aubry-Mather sets for planar Hamiltonian systems

来源 :中国科学:数学英文版 | 被引量 : 0次 | 上传用户:lfastcandmuzi
下载到本地 , 更方便阅读
声明 : 本文档内容版权归属内容提供方 , 如果您对本文有版权争议 , 可与客服联系进行内容授权或下架
论文部分内容阅读
A result due to Mather on the existence of Aubry-Mather sets for superlinear positive definite Lagrangian systems is generalized in one-dimensional case. Applications to existence of Aubry-Mather sets of planar Hamiltonian systems are given.
其他文献
This is a continuation of our previous work. We classify all the simple q (Dn) - modulesvia an automorphismh defined on the set t λ | ≠ 0 }. When fn (q) ≠ 0,
Let N be a sufficiently large even integer and q≥1, (l<sub>i</sub>,q)=1(i=1,2), l<sub>1</sub>+l<sub>2</sub>≡N(modq).It is proved that the equation N=p+P<sub>2</sub>
Let K<sub>6</sub> be a real cyclic sextic number field, and K<sub>2</sub>, K<sub>3</sub> its quadratic and cubic subfield. Let h(L) denote the ideal class number
1 Preliminaries Let (M, g) and (N, h) be two compact Riemannian manifolds with dim M=m. We may embed (N, h) isometrically into a Euclidean space R~l so that N i
Let M be a compact Riemann manifold with the Ricci curvature ≥ - R(R = const. 】0). Denote by d the diameter of M. Then the first eigenvalue λ<sub>1</sub> of M
The characteristic tilting modules of quasi-hereditary algebras which are dual extensions of directed monomial algebras are explicitly constructed; and it is sh
Let T be the universal Teichm(?)ller space viewed as the set of all normalized quasisymmetric homeomorphism of the unit circle S<sup>1</sup> = (?)Δ. Denote by V<su
Hypergraphs are the most general structures in discrete mathematics. Acyclic hypergraphs have been proved very useful in relational databases. New systems of ax
Let S be a finite linear space, and let G be a group of automorphisms of S. If G is soluble and line-transitive, then for a given k but a finite number of pairs
Applications of locally fine property for operators are further developed. Let E and F be Banach spaces and f: U( x0) E—→F be C1 nonlinear map, where U (x0) i