In [6] the first author proved that for any β ∈ (1, βKL) every x ∈ (0, 1/(β − 1)) has a simply normal β-expansion, where βKL ≈ 1.78723 is the Komornik–Loreti constant. This result is complemented by an observation made in [22], where it was shown that whenever β ∈ (βT, 2] there exists an x ∈ (0, 1/(β − 1)) with a unique β-expansion, and this expansion is not simply normal. Here βT ≈ 1.80194 is the unique zero in (1, 2] of the polynomial x3 − x2 − 2x + 1. This leaves a gap in our understanding within the interval [βKL, βT]. In this paper we fill this gap and prove that for any β ∈ (1, βT], every x ∈ (0, 1/(β − 1)) has a simply normal β-expansion. For completion, we provide a proof that for any β ∈ (1, 2), Lebesgue almost every x has a simply...
Abstract. We study rational numbers with purely periodic Rényi β-expansions. For bases β satisfying ...
We study properties of β-numeration systems, where β > 1 is the real root of the pol...
Abstract. Let β> 1 be a non-integer. We consider expansions of the form � ∞ i=1 d i β i, where th...
In [6] the first author proved that for any β ∈ (1, βKL) every x ∈ (0, 1/(β − 1)) has a simply norma...
AbstractFor any real number β>1, let ε(1,β)=(ε1(1),ε2(1),…,εn(1),…) be the infinite β-expansion of 1...
Let 1<β<2. Given any x∈[0,(β−1)−1], a sequence (an)∈{0,1}N is called a β-expansion of x if x=∑∞n=1an...
Abstract. Given a number β>1, the beta-transformation T = Tβ is defined for x ∈ [0,1] by Tx: = βx...
For an integer b ≥ 2 a real number α is b -normal if, for all m > 0, every m-long string of digits i...
Glendinning and Sidorov discovered an important feature of the Komornik–Loreti constant q′≈ 1.78723 ...
We study properties of β-numeration systems, where β > 1 is the real root of the polynomial x3 - mx2...
Abstract. If β> 1, then every non-negative number x has a β-expansion, i.e., x = 0(x)
There have been quite a few generalizations of the usual continued fraction expansions over the last...
In a recent paper of Feng and Sidorov they show that for β∈(1,(1+5√)/2) the set of β-expansions grow...
We propose a theory to explain random behavior for the digits in the expansions of fundamental mathe...
Abstract. Let β> 1 and let m> β be an integer. Each x ∈ Iβ: = [0, m−1β−1] can be represented i...
Abstract. We study rational numbers with purely periodic Rényi β-expansions. For bases β satisfying ...
We study properties of β-numeration systems, where β > 1 is the real root of the pol...
Abstract. Let β> 1 be a non-integer. We consider expansions of the form � ∞ i=1 d i β i, where th...
In [6] the first author proved that for any β ∈ (1, βKL) every x ∈ (0, 1/(β − 1)) has a simply norma...
AbstractFor any real number β>1, let ε(1,β)=(ε1(1),ε2(1),…,εn(1),…) be the infinite β-expansion of 1...
Let 1<β<2. Given any x∈[0,(β−1)−1], a sequence (an)∈{0,1}N is called a β-expansion of x if x=∑∞n=1an...
Abstract. Given a number β>1, the beta-transformation T = Tβ is defined for x ∈ [0,1] by Tx: = βx...
For an integer b ≥ 2 a real number α is b -normal if, for all m > 0, every m-long string of digits i...
Glendinning and Sidorov discovered an important feature of the Komornik–Loreti constant q′≈ 1.78723 ...
We study properties of β-numeration systems, where β > 1 is the real root of the polynomial x3 - mx2...
Abstract. If β> 1, then every non-negative number x has a β-expansion, i.e., x = 0(x)
There have been quite a few generalizations of the usual continued fraction expansions over the last...
In a recent paper of Feng and Sidorov they show that for β∈(1,(1+5√)/2) the set of β-expansions grow...
We propose a theory to explain random behavior for the digits in the expansions of fundamental mathe...
Abstract. Let β> 1 and let m> β be an integer. Each x ∈ Iβ: = [0, m−1β−1] can be represented i...
Abstract. We study rational numbers with purely periodic Rényi β-expansions. For bases β satisfying ...
We study properties of β-numeration systems, where β > 1 is the real root of the pol...
Abstract. Let β> 1 be a non-integer. We consider expansions of the form � ∞ i=1 d i β i, where th...