# Number Theory

## 1804 Submissions

 viXra:1804.0492 [pdf] submitted on 2018-04-30 18:32:49

### Prime Nimber Formula

Authors: Nazihkhelifa

Prime Number Formula
Category: Number Theory

 viXra:1804.0474 [pdf] replaced on 2019-02-26 17:17:24

### Goldbach’s Conjecture Proof

Authors: Elizabeth Gatton-Robey

Through the application of my algorithm, Goldbach's Conjecture is proven true. This paper explains the algorithm then applies the algorithm with examples. The final section of the paper proves Goldbach's Conjecture
Category: Number Theory

 viXra:1804.0470 [pdf] submitted on 2018-04-28 18:44:49

Authors: Colin James III

The distribution is confirmed as random and refuted as not clumped as in claims by various theoretical methods.
Category: Number Theory

 viXra:1804.0416 [pdf] replaced on 2018-07-02 20:34:06

### Statistical Bias in the Distribution of Prime Pairs and Isolated Primes

Authors: Waldemar Puszkarz
Comments: 7 Pages. Last version submitted to viXra. First version submitted to arXiv.

Computer experiments reveal that twin primes tend to center on nonsquarefree multiples of 6 more often than on squarefree multiples of 6 compared to what should be expected from the ratio of the number of nonsquarefree multiples of 6 to the number of squarefree multiples of 6 equal $\pi^2/3-1$, or ca 2.290. For multiples of 6 surrounded by twin primes, this ratio is 2.427, a relative difference of ca $6.0\%$ measured against the expected value. A deviation from the expected value of this ratio, ca $1.9\%$, exists also for isolated primes. This shows that the distribution of primes is biased towards nonsquarefree numbers, a phenomenon most likely previously unknown. For twins, this leads to nonsquarefree numbers gaining an excess of $1.2\%$ of the total number of twins. In the case of isolated primes, this excess for nonsquarefree numbers amounts to $0.4\%$ of the total number of such primes. The above numbers are for the first $10^{10}$ primes, with the bias showing a tendency to grow, at least for isolated primes.
Category: Number Theory

 viXra:1804.0409 [pdf] replaced on 2018-06-27 04:06:28

### Proof of Riemann Hypothesis

Authors: Andrey B. Skrypnik

Now there is a formula for calculating all primes
Category: Number Theory

 viXra:1804.0385 [pdf] submitted on 2018-04-25 21:32:26

### Q-Analogues for Ramanujan-Type Series

Authors: Bing He, Hongcun Zhai
Comments: 7 Pages. This is a joint work with Dr. Zhai.

From a very-well-poised _{6}\phi_{5} series formula we deduce a general series expansion formula involving the q-gamma function. With this formula we can give q-analogues of many Ramanujan-type series.
Category: Number Theory

 viXra:1804.0376 [pdf] submitted on 2018-04-26 06:38:20

### The Strong Goldbach Conjecture, Klein Bottle And Möbius Strip

Authors: Angel Garcés Doz

This modest article shows the connection between the strong Goldbach conjecture and the topological properties of the Klein bottle and the Möbius strip. This connection is established by functions derived from the number of divisors of the two odd integers whose sum is an even number.
Category: Number Theory

 viXra:1804.0366 [pdf] submitted on 2018-04-24 16:44:53

### A New Sieve for the Twin Primes ( How the Number of Twin Primes is Related to the Number of Primes)

Authors: H.L. Mitchell

We introduce a sieve for the number of twin primes less than n by sieving through the set {k ∊ ℤ+ | 6k < n}. We derive formula accordingly using the Euler product and the Brun Sieve. We then use the Prime Number Theorem and Mertens’ Theorem. The main results are: 1) A sieve for the twin primes similar to the sieve of Eratosthenes for primes involving only the values of k, the indices of the multiples of 6, ranging over k = p ,5 ≤ p <√n.It shows the uniform distribution of the pairs (6k-1,6k+1) that are not twin primes and the decreasing frequency of multiples of p as p increases. 2) A formula for the approximate number of twin primes less than N in terms of the number of primes less than n 3) The asymptotic formula for the number of twin primes less than n verifying the Hardy Littlewood Conjecture.
Category: Number Theory

 viXra:1804.0337 [pdf] submitted on 2018-04-23 23:50:14

### Modular Real Number LIne

Authors: Walter Gress

This work expounds upon a theory of peripheral-integers and peripheral-reals, integers and reals that in a modular number line mirror their counterparts. It illustrates the properties of these numbers in hopes to breathe life into research of numbers that go beyond infinity
Category: Number Theory

 viXra:1804.0291 [pdf] submitted on 2018-04-20 19:53:17

### Prime Number Explanation

Authors: Sergey A. Lazarev

Prime number. Its nature, appearance, types, movement, prediction.
Category: Number Theory

 viXra:1804.0289 [pdf] submitted on 2018-04-20 22:09:15

### Difference Sieve

Authors: Walter Gress

A Sieve that extracts various properties of numerical sequences, demonstrating patterns in different types of sequences, rational, and irrational numbers.
Category: Number Theory

 viXra:1804.0267 [pdf] replaced on 2018-06-06 04:30:05

### Intuitive Explanation of the Riemann Hypothesis

Authors: John Atwell Moody

Let \alpha be the unique \Gamma(2) invariant form on H with a pole of residue 1 at i\infty and one of residue -1 at 1. The ratio [\alpha: i\pi dtau] tends to 1 at the upper limit of [0,i\infty). Let \mu_{pm}:TxH->H be the action of multiplying by \sqrt{g} and {1\over{\sqrt{g}} for g in the connected real multiplicative group T. For each real c in (0,1) and each unitary character \omega, the form g^{2-2c}\omega(g)\mu_+^*(\alpha-\pi d\tau)\wedge \mu_-^*)\alpha-i\pi d\tau is exact if and only if \zeta(c+i\omega_0)=0 where \omega_0 is chosen such that \omega(g)=g^{i\omega_0}. The rate of change of the magnitude is given by an integral involving a unitary character. Conjecturally the rate seminegative on the region 0 The form descends to the real projective line, it is locally meromorphic there with one pole and integrates to \pi e^{i\pi ({3\over 2}s + 1}. The value \zeta(s)=0 if and only if the integral along the arc from 0 to \infty not passing 1 is zero. This implies the arc passing through 1 equals a residue. We begin to relate the equality with the condition Re(s)=1/2.
Category: Number Theory

 viXra:1804.0262 [pdf] submitted on 2018-04-20 09:02:41

### Formula to Find Prime Numbers and Composite Numbers with Termination 1

Authors: Zeolla Gabriel Martín

The prime numbers greater than 5 have 4 terminations in their unit to infinity (1,3,7,9) and the composite numbers divisible by numbers greater than 3 have 5 terminations in their unit to infinity, these are (1,3,5,7,9). This paper develops an expression to calculate the prime numbers and composite numbers with ending 1.
Category: Number Theory

 viXra:1804.0224 [pdf] submitted on 2018-04-16 07:57:36

### Malmsten's Integral

Authors: Edgar Valdebenito

This note presents some formulas related with Malmsten's integral.
Category: Number Theory

 viXra:1804.0223 [pdf] submitted on 2018-04-16 07:59:39

### Question 449: Some Definite Integrals

Authors: Edgar Valdebenito

This note presents some definite integrals.
Category: Number Theory

 viXra:1804.0216 [pdf] submitted on 2018-04-16 14:06:25

Authors: Colin James III

The definition of the imaginary number is not tautologous and hence refuted. The definition as rendered is contingent, the value for falsity. While the definition can be coerced to be non-contingent, the value for truthity, it is still not tautologous.
Category: Number Theory

 viXra:1804.0192 [pdf] submitted on 2018-04-14 14:31:44

### Infinite Product for Inverse Trigonometric Functions

Authors: Mendzina Essomba François

I propose in this article the first infinite products of history for inverse sinusoidal functions
Category: Number Theory

 viXra:1804.0183 [pdf] submitted on 2018-04-13 18:31:14

### Formula to Get Twin Prime Numbers.

Authors: Zeolla Gabriel Martín

This paper develops a modified an old and well-known expression for calculating and obtaining all twin prime numbers greater than three. The conditioning (n) will be the key to make the formula work.
Category: Number Theory

 viXra:1804.0182 [pdf] submitted on 2018-04-13 21:56:20

### Related to Fermat’s Last Theorem: the Quadratic Formula of the Equation X^(n-1) ∓ X^(n-2)y + X^(n-3)y^(n-2) ∓ … + Y^(n-1)= Z^n(nZ^n) in the Cases N = 3, 5 and 7.

Authors: Quang Nguyen Van

We give some quadratic formulas (including Euler's and Dirichlet's formula) of the equation X^(n-1) ∓ X^(n-2)Y + X^(n-3)Y^(n-2) ∓ … + Y^(n-1) = Z^n(nZ^n) in the cases n = 3, 5 and 7 for finding a solution in integer.
Category: Number Theory

 viXra:1804.0052 [pdf] submitted on 2018-04-03 07:58:59

### Crivello di Eratostene Elaborato

Authors: Raffaele Cogoni
Comments: 20 Pages. Testo di n° 20 pagine in lingua Italiana

Nel presente lavoro viene descritto un algoritmo per determinare la successione dei numeri primi, esso si presenta come una rielaborazione del noto Crivello di Eratostene.
Category: Number Theory

 viXra:1804.0037 [pdf] submitted on 2018-04-02 16:53:15

### The Product of the Prime Numbers.

Authors: Zeolla Gabriel Martin

This paper shows that the product of the prime numbers adding and subtracting one is always Simple Prime numbers.
Category: Number Theory

 viXra:1804.0036 [pdf] replaced on 2018-04-12 23:10:20

### Goldbach's Conjectures

Comments: 10 Pages. Apart from small technical and obvious language corrections, there is no difference between this and previously submitted version of the Goldbach’s Conjectures paper.

Abstract: The prime numbers set is the three primes addition closed; each prime is the sum of three not necessarily distinct primes. All natural numbers are created on the set of all prime numbers according to the laws of the weak and strong Goldbach's conjectures. Thus all natural numbers are the Goldbach's numbers.
Category: Number Theory

 viXra:1804.0016 [pdf] submitted on 2018-04-02 07:49:27

### Catalan's Constant and Some Integration Questions

Authors: Edgar Valdebenito

This note presents some formulas for Catalan's constant.
Category: Number Theory

 viXra:1804.0008 [pdf] submitted on 2018-04-02 12:49:21

### Fermat's Last Theorem. Proof of P. Fermat?

Authors: Victor Sorokine