Roth’s theorem on progressions revisited
By Jean Bourgain. 2008
131 citations recorded by the source corpus.
Subfields: Discrete Mathematics and Combinatorics, Electrical and Electronic Engineering, Geometry and Topology
View Paper: https://www.semanticscholar.org/paper/d864b3f9a54c53633918a8aa61ebe3281ce7464b
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In Discrete Mathematics and Combinatorics
In Electrical and Electronic Engineering
In Geometry and Topology
Citations in the corpus
- A Probabilistic Technique for Finding Almost-Periods of Convolutions (2010, background): “Subsequent Fourier-analytic arguments have demonstrated better bounds for r3: the best bound currently known is due to Bourgain, who in [5] established that r3(N) ≪ (log logN) (logN)2/3 N.”
- On Roth's theorem on progressions (2010, background): “ot address ourselves to a comprehensive history here. The previous best bound was of the above shape with the power of 3/4 instead of 1 which comes from a refinement [San10] of an argument of Bourgain [Bou08]. The methods of this paper, however, are largely unrelated to those refinements. There are tw”
- The structure theory of set addition revisited (2012, background): “(See, for example, [Cha02] or the appendix to [Bou08] for the torsion-free case, and [GT09b] for the bounded exponent case.”
- On certain other sets of integers (2010, methodology): “n of (3.5) and we find that for A ⊂ G of density α we have (3.10) T(1A,1A,1A) > exp(−Oe(τ −2k 1α−1 +k +τ2α−2)). Of course τ ∈ [Ω(α), √ α] so we can optimise with k = α−3/2 to get the main result in [Bou08]. 3.5. Relaxing the dissociation. To get the density increment from (3.8) we used the fact th”
- On the Bogolyubov–Ruzsa lemma (2010, methodology): “Following [Bou08] we use a slight generalization of the traditional notion of Bohr set, letting the width parameter vary according to the character.”
- Breaking the logarithmic barrier in Roth's theorem on arithmetic progressions. (2020, unknown): “These are known as Bohr sets, which were first used in this context by Bourgain [6].”