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Gaussian integers
A Gaussian integer is a complex number of the form a + bi, where a and b are integers. It is a commutative ring of all complex numbers of the form a + bi, where a and b are integers, with the usual operations. The arithmetic in the ring of Gaussian integers is intimately connected with Gaussian integers.From: Distributed Sensor Networks [2019], Remainder and quotient without polynomial long division
[2021], Sums of Squares of Integers [2019]
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Gaussian integers are complex numbers of the form γ = x + iy where x and y are integers and i2 = −1. The set of Gaussian integers is usually denoted by Z[i]. A Gaussian integer γ is said to be an even Gaussian integer if γ is divisible by 1 + i and otherwise is called an odd Gaussian integer. The norm on Z[i] is defined as d(x + iy) = x2 + y2. One can easily see that the only units of Z[i] are ±1, ± i. The associates of Gaussian integer γ are unit multiples of γ. In Z[i], two Gaussian integers are relatively prime if their common divisors are the only units of Z[i]. A Gaussian integer γ is said to be a prime Gaussian integer if and only if ±1, ± i, ± γ, ± iγ are the only divisors of γ.
Pseudo-Random Pixel Rearrangement Algorithm Based on Gaussian Integers for Image Watermarking
A Gaussian integer is a complex number: Z[i] = {a + bi : a, b ∈ ℤ}, where both a and b are integers. Gaussian integers, with ordinary addition and multiplication of complex numbers, form an integral domain. The norm of a Gaussian integer is a natural number, defined as |a + bi| = a2 + b2.
Remainder and quotient without polynomial long division
Let be the commutative ring of Gaussian integers (i.e. the ring of all complex numbers of the form a + bi, where a, and , with the usual operations). We want to determine the remainder and the quotient of
Using the previous code, we can check that r = 0, and .