Young Measures on Topological Spaces: With Applications in Control Theory and Probability Theory
By C. Castaing, P. R. D. Fitte, M. Valadier. 2004
133 citations recorded by the source corpus.
View Paper: https://www.semanticscholar.org/paper/e2085a141c2fc1270bfcdeb04697af852dda1f94
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- Clémentine Prieur
- Filip Rindler
- Jérôme Dedecker
- Jan Kristensen
- F. Merlevède
- Paul Doukhan
- Giuseppe Mingione
- Michael H. Neumann
Citations in the corpus
- New dependence coefficients. Examples and applications to statistics (2005, methodology): “Using the equality (3.4.4) in Castaing et al. (2004) instead of Proposition 1.2 in Dedecker and Prieur (2004), we see that (7.5) is true for any σ-agebra M of A and any continuous distance d0 with respect to d.”
- Characterization of Generalized Gradient Young Measures Generated by Sequences in W1,1 and BV (2010, background): “After Young’s original papers [57–59], many have contributed to this theory, note in particular [9, 12, 13, 17, 41, 42, 56] as well as the books [20, 51, 53] and the references cited therein.”
- Mean field games with common noise (2014, unknown): “ric spaces and µ∈ P(E). If µis nonatomic, then the set µ(dx)δφ(x)(dy) ∈ P(E×F) : φ: E→ F is continuous is dense in P(E,µ;F) := {P∈ P(E×F) : P(· ×F) = µ}. Proof. This would be exactly Theorem 2.2.3 of [13], if we replaced the word “continuous” with “measurable.” Our result follows simply by noting th”