The Generalized Weierstrass Approximation Theorem
By M. Stone. 1948
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
- Patrick T. Komiske
- E. Metodiev
- Shimon Whiteson
- Guang Hao Low
- Pengtao Xie
- Kamil Andrzej Ciosek
- J. Urgen Schmidhuber
- Isaac L. Chuang
Citations in the corpus
- Crypto-Nets: Neural Networks over Encrypted Data (2014, methodology): “Since N is a continuous function over a compact space and since the set of polynomials is an Algebra that separates points it follows from the Stone-Weierstrass theorem (Stone, 1948) that there exists a polynomial P such that sup x ∈ X N ( x ) − P ( x ) (cid:107) (cid:15) .”
- Approximation rates for neural networks with general activation functions (2019, background): “By Weierstrass’s Theorem [22] it follows that Σd(σ) containsC(K) for each compact K ⊂ R.”
- Methodology of Resonant Equiangular Composite Quantum Gates (2016, background): “The famous Stone-Weierstrass theorem [36] assures us that AðxÞ of sufficiently large degree L can”
- New upper bounds on sphere packings II (2001, background): “By Theorem 18 of [17], f̃ can be uniformly approximated on [0,∞) by g̃ with g a polynomial.”
- Korovkin-type Theorems and Approximation by Positive Linear Operators (2010, methodology): “Before stating the Stone approximation theorem, we recall that a subset M of C0(X) is said to separate strongly the points of X if it separates the points of X and if for every x ∈ X there exists f ∈ M such that f(x) 6= 0.”
- Adaptive cooperative tracking control of higher-order nonlinear systems with unknown dynamics (2012, background): “By Stone–Weierstrass approximation theorem (Stone, 1948), in the compact set Ω , given any positive number εi, there exists a large enough positive integer v∗i , such that for any vi ≥ v∗i , one can always find an ideal weight vector Wi and a suitable basis set φi(·), which makes (10) satisfy the…”
- A survey on the Weierstrass approximation theorem (2006, background): “It is also necessary to mention here the Kakutani-Stone theorem on the closure of a lattice of functions real-valued and Stone-Weierstrass theorem on the closure of an algebra of functions continuous complex-valued (see [28], [18]).”
- Energy flow polynomials: a complete linear basis for jet substructure (2017, methodology): “In cases without a Taylor expansion, the Stone-Weierstrass theorem [76] still guarantees that the observable can be approximated over some bounded energy range by polynomials in the energies.”
- Cooperative adaptive control for synchronization of second‐order systems with unknown nonlinearities (2011, methodology): “According to the Weierstrass higher order approximation theorem [37] a polynomial basis set suffices to approximate f i ( x i ) as well as its derivatives, when they exist, and moreover, the approximation error ε i → 0 uniformly as i →∞ .”
- Variance reduction properties of the reparameterization trick (2018, methodology): “Despite many log-joint density functions not being polynomials, we can find a reasonable polynomial approximation over the sampling region using the Stone-Weierstrass theorem (Stone, 1948).”
- Least squares moving particle semi-implicit method (2014, background): “sion [84,88,89], for a fixed point x̄ ∈ Ω̄ , one should always be able to approximate f (x) by a polynomial series locally.”
- Holomorphic Approximation: The Legacy of Weierstrass, Runge, Oka–Weil, and Mergelyan (2018, unknown): “Stone in 1937, [154, 155].”
- New upper bounds on sphere packings I (2001, unknown): “or all mand all gsuch that ˜g∈ L∞([0,∞),xα dx), ||σmg||∞ ≤ C||˜g||∞, where ||· ||∞ denotes the norm on L∞([0,∞),xα dx). We can then imitate the proof of Theorem 2 in [P]. Let ε>0. By Theorem 18 of [Sto], f˜can be uniformly approximated on [0,∞) by ˜gwith ga polynomial. Choose gso that f˜− ˜g ∞ &l”
- Distributed adaptive control for synchronization of unknown nonlinear networked systems (2010, unknown): “That is ∀ξ > 0 there exist ν̄i, i = 1,N such that νi > ν̄i, ∀i implies supx∈Ω ‖ε(x)‖ ξ (Stone, 1948).”
- Expected Policy Gradients for Reinforcement Learning (2018, background): “This result is significant since polynomials can approximate any continuous function on a bounded interval with arbitrary accuracy (Weierstrass, 1885; Stone, 1948).”
- Networks and the best approximation property (1990, methodology): “The proof is a simple application of the Stone-Weierstrass theorem, which is the generalization given by Stone of the Weierstrass approximation theorem ( Stone 1937, 1948 ).”
- Energy flow networks: deep sets for particle jets (2018, methodology): “[63], makes use of the Stone-Weierstrass polynomial approximation theorem [92], which applies for compact spaces.”