In ordinary arithmetic, the resulting value will be from an infinite set of values but in case modular arithmetic, resulting value will be from a finite set of values.
e.g. in ordinary arithmetic, the sum of two integers, the result will be an integer in the range {..., -3, -2, -1, 0, 1, 2, 3, ...}
for modular arithmetic, the sum of two integers
like (a+b)mod n will be in the range {0, 1, 2, ... n-1}
32 is equivalent to 96 when considering both numbers in the context of modular arithmetic. In modular arithmetic, two numbers are considered equivalent if they have the same remainder when divided by a specific modulus. In this case, if we consider the numbers 32 and 96 modulo 64 (32 mod 64 = 32 and 96 mod 64 = 32), they are equivalent.
1 + 1 = 0 in binary. Why does this happen?Note: Adding binary numbers is related to modulo 2 arithmetic.Let's review mod and modular arithmetic with addition.modulus 2 is the mathematical term that is the remainder from the quotient of any term and 2. For instance, if we have 3 mod 2, then we have 3 / 2 = 1 + ½. The remainder is 1. So 3 ≡ 1 mod 2.What if we want to add moduli?The general form is a mod n + b mod n ≡ (a + b) mod n.Now, for the given problem, 1 mod 2 + 1 mod 2 ≡ 2 mod 2. Then, 2 mod 2 ≡ 0 mod 2.Therefore, 1 + 1 = 0 in binary.
To find the last digit of a number raised to a power, we can use the concept of modular arithmetic. The last digit of 333 to the power of 444 can be determined by finding the remainder when 333 is divided by 10, which is 3. Since the last digit of 333 is 3, we need to find the remainder of 444 divided by 4, which is 0. Therefore, the last digit of 333 to the power of 444 is the same as the last digit of 3 to the power of 4, which is 1.
Difference between modular and non-modular bricks
given any positive integer n and any integer a , if we divide a by n, we get an integer quotient q and an integer remainder r that obey the following relationship where [x] is the largest integer less than or equal to x
additional ports can be added in modular routers.
According to Wikipedia, Carl Friedrich Gauss invented it. Quote Wikipedia,"Modular arithmetic was introduced by Carl Friedrich Gauss in his book Disquisitiones Arithmeticae, published in 1801."
Yes, because that is how remainder is defined. If the remainder was bigger, you would subtract one (or more) modular values until the remainder became smaller than the modulus.
On a basic level, the difference between mobile and modular homes is quality. Mobile homes have not been built since 1976 because of stricter standards enacted by the US Department of Housing and Development (HUD). Modular homes are movable, but like site-based homes, have strict codes and standards to meet before being made for sale to a prospective home owner.
It is impossible to make 23 from four 9's unless modular arithmetic is involved, in this case in mod 40, 57, 58, 59, 76, 697, 6538. I personally can't see any other way to obtain 23 other than modular arithmetic.
They are essentially equivelent in common usage, but technically, a pre-fab home has its components all built offsite and assembled at the building site while modular homes generally don't.
They are sets with a finite number of elements. For example the days of the week, or the 12 months of the year. Modular arithmetic is based on finite sets.
32 is equivalent to 96 when considering both numbers in the context of modular arithmetic. In modular arithmetic, two numbers are considered equivalent if they have the same remainder when divided by a specific modulus. In this case, if we consider the numbers 32 and 96 modulo 64 (32 mod 64 = 32 and 96 mod 64 = 32), they are equivalent.
One is built inside a factory and moved to the location in typically two pieces, the other is made in "sections" and moved and built onsite.
Louise Hoy Chin has written: 'Distributive and modular laws in the arithmetic of relation algebras' -- subject(s): Abstract Algebra, Algebra, Abstract