About: Structured program theorem is a research topic. Over the lifetime, 707 publications have been published within this topic receiving 8735 citations. The topic is also known as: Böhm-Jacopini theorem & Dijkstra's theorem.
TL;DR: In this article, the authors present a structure theorem for C(CJA,Ir, (T)k) (resp. c()A, r)) 3.1.
Abstract: Introduction ? 0. Notation and conventions ? 1. Arbitrary fields 1.1. Duality 1.2. Splitting fields 1.3. Isogenies 1.4. Raising the field of definition 1.5. A structure theorem 1.6. Differential forms ? 2. Local fields 2.1. Maximal compact groups 2.2. Isogenies 2.3. Reduction modulo p ? 3. Fields of dimension 1 3.1. Adelization 3.2. Haar measures 3.3. Canonical correcting factors 3.4. The number p(X, K/k) 3.5. Definition of z(T) 3.6. Isogenies 3.7. Definition of r(a) 3.8. Explicit formula for C(CJA,Ir, (T)k) (resp. c()A, r)) 3.9. Explicit formula for r(cr) 3.10. Main theorem References
TL;DR: In this paper, a new treatment of the theory of mean convex flows with surgery is presented, based on the noncollapsing result of Andrews and Huisken-Sinestrari.
TL;DR: In this paper, a graph-theoretic approach is used to characterize matrices with the consecutive 1's property in terms of forbidden submatrices, and graphs whose adjacency matrix has this property are also characterized.
TL;DR: In this paper, a general structure theorem for the singular part of A-free Radon measures, where A is a linear PDE operator, was established and applied to suitably chosen differential operators.
Abstract: We establish a general structure theorem for the singular part of A-free Radon measures, where A is a linear PDE operator. By applying the theorem to suitably chosen differential operators A, we obtain a simple proof of Alberti’s rank-one theorem and, for the first time, its extensions to functions of bounded deformation (BD). We also prove a structure theorem for the singular part of a finite family of normal currents. The latter result implies that the Rademacher theorem on the differentiability of Lipschitz functions can hold only for absolutely continuous measures and that every top-dimensional Ambrosio–Kirchheim metric current in Rd is a Federer–Fleming flat chain.
TL;DR: In a recent survey as discussed by the authors, the authors make a much more elaborate appeal to the link between exchangeable laws and dense (directed) hypergraphs and establish various results in property testing.
Abstract: De Finetti’s classical result of [18] identifying the law of an
exchangeable family of random variables as a mixture of i.i.d. laws was
extended to structure theorems for more complex notions of exchangeability
by Aldous [1, 2, 3], Hoover [41, 42], Kallenberg [44] and Kingman [47]. On
the other hand, such exchangeable laws were first related to questions from
combinatorics in an independent analysis by Fremlin and Talagrand [29],
and again more recently in Tao [62], where they appear as a natural proxy
for the ‘leading order statistics’ of colourings of large graphs or hypergraphs. Moreover, this relation appears implicitly in the study of various
more bespoke formalisms for handling ‘limit objects’ of sequences of dense
graphs or hypergraphs in a number of recent works, including Lovasz and
Szegedy [52], Borgs, Chayes, Lovasz, Sos, Szegedy and Vesztergombi [17],
Elek and Szegedy [24] and Razborov [54, 55]. However, the connection between these works and the earlier probabilistic structural results seems to
have gone largely unappreciated.
In this survey we recall the basic results of the theory of exchangeable
laws, and then explain the probabilistic versions of various interesting questions from graph and hypergraph theory that their connection motivates
(particularly extremal questions on the testability of properties for graphs
and hypergraphs).
We also locate the notions of exchangeability of interest to us in the
context of other classes of probability measures subject to various symmetries, in particular contrasting the methods employed to analyze exchangeable laws with related structural results in ergodic theory, particular the Furstenberg-Zimmer structure theorem for probability-preserving
ℤ-systems, which underpins Furstenberg’s ergodic-theoretic proof of Szemeredi’s Theorem.
The forthcoming paper [10] will make a much more elaborate appeal to
the link between exchangeable laws and dense (directed) hypergraphs to
establish various results in property testing.