Difference between revisions of "Multiple"

m (ditto my last few edits)
 
(One intermediate revision by one other user not shown)
Line 1: Line 1:
 +
What are multiples and diVisors: https://youtu.be/ij5_vWBxZoU
 +
 
A '''multiple''' of a given [[integer]] is the product of that integer with some other integer. Thus <math>k</math> is a multiple of <math>m</math> only if <math>k</math> can be written in the form <math>mn</math>, where <math>m</math> and <math>n</math> are integers. (In this case, <math>k</math> is a multiple of <math>n</math>, as well).   
 
A '''multiple''' of a given [[integer]] is the product of that integer with some other integer. Thus <math>k</math> is a multiple of <math>m</math> only if <math>k</math> can be written in the form <math>mn</math>, where <math>m</math> and <math>n</math> are integers. (In this case, <math>k</math> is a multiple of <math>n</math>, as well).   
  
Line 4: Line 6:
  
 
An equivalent phrasing is that <math>k</math> is a multiple of <math>m</math> exactly when <math>k</math> is [[divisibility | divisble by]] <math>m</math>.
 
An equivalent phrasing is that <math>k</math> is a multiple of <math>m</math> exactly when <math>k</math> is [[divisibility | divisble by]] <math>m</math>.
 +
 +
In Modular Arithmetic, multiples of the modulus, are congruent to 0
  
 
== See also ==
 
== See also ==

Latest revision as of 21:51, 26 January 2021

What are multiples and diVisors: https://youtu.be/ij5_vWBxZoU

A multiple of a given integer is the product of that integer with some other integer. Thus $k$ is a multiple of $m$ only if $k$ can be written in the form $mn$, where $m$ and $n$ are integers. (In this case, $k$ is a multiple of $n$, as well).

Every nonzero integer has an infinite number of multiples. As an example, some of the multiples of 15 are 15, 30, 45, 60, and 75.

An equivalent phrasing is that $k$ is a multiple of $m$ exactly when $k$ is divisble by $m$.

In Modular Arithmetic, multiples of the modulus, are congruent to 0

See also