How is this property called for mod?Solution(s) for the largest remainder?For any integer $a,b$ let $N_{a,b}$...
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How is this property called for mod?
Solution(s) for the largest remainder?For any integer $a,b$ let $N_{a,b}$ denote the number of positive integer $x<1000$ satisfying $x= a( mod;27)$ and $x=b(mod;37)$. ThenIs there a quick parity test for integers expressed with odd radicies?What is this pattern called?$n=a^2-b^2$ iff $n notequiv 2(mathrm{mod }4)$Product Rule for the mod operatorHow would I prove the following problem on discrete structures?How can I solve a problem using the Chinese remainder theorem and how does mod operator is understood correctly?x≡a (mod m) and x≡a(mod n) implies x≡a (mod mn)Is Modular Arithmetic Notation Good?
$begingroup$
We have a name for the property of integers to be $0$ or $1$ $mathrm{mod} 2$ - parity.
Is there any similar name for the remainder for any other base? Like a generalization of parity? Could I use parity in a broader sense, just to name the remainder $mathrm{mod} n$?
elementary-number-theory soft-question integers
$endgroup$
add a comment |
$begingroup$
We have a name for the property of integers to be $0$ or $1$ $mathrm{mod} 2$ - parity.
Is there any similar name for the remainder for any other base? Like a generalization of parity? Could I use parity in a broader sense, just to name the remainder $mathrm{mod} n$?
elementary-number-theory soft-question integers
$endgroup$
3
$begingroup$
How about congruence?
$endgroup$
– Umberto P.
2 hours ago
$begingroup$
So should I say (variable)'s congruence class or value?
$endgroup$
– dEmigOd
2 hours ago
add a comment |
$begingroup$
We have a name for the property of integers to be $0$ or $1$ $mathrm{mod} 2$ - parity.
Is there any similar name for the remainder for any other base? Like a generalization of parity? Could I use parity in a broader sense, just to name the remainder $mathrm{mod} n$?
elementary-number-theory soft-question integers
$endgroup$
We have a name for the property of integers to be $0$ or $1$ $mathrm{mod} 2$ - parity.
Is there any similar name for the remainder for any other base? Like a generalization of parity? Could I use parity in a broader sense, just to name the remainder $mathrm{mod} n$?
elementary-number-theory soft-question integers
elementary-number-theory soft-question integers
asked 2 hours ago
dEmigOddEmigOd
1,5001612
1,5001612
3
$begingroup$
How about congruence?
$endgroup$
– Umberto P.
2 hours ago
$begingroup$
So should I say (variable)'s congruence class or value?
$endgroup$
– dEmigOd
2 hours ago
add a comment |
3
$begingroup$
How about congruence?
$endgroup$
– Umberto P.
2 hours ago
$begingroup$
So should I say (variable)'s congruence class or value?
$endgroup$
– dEmigOd
2 hours ago
3
3
$begingroup$
How about congruence?
$endgroup$
– Umberto P.
2 hours ago
$begingroup$
How about congruence?
$endgroup$
– Umberto P.
2 hours ago
$begingroup$
So should I say (variable)'s congruence class or value?
$endgroup$
– dEmigOd
2 hours ago
$begingroup$
So should I say (variable)'s congruence class or value?
$endgroup$
– dEmigOd
2 hours ago
add a comment |
3 Answers
3
active
oldest
votes
$begingroup$
Simply say "congruent to $a$ modulo $m$" to read "$equiv a pmod{m}$".
$endgroup$
add a comment |
$begingroup$
In a broader sense, when you are dealing with congruences you are dealing with an equivalence relation and its equivalence classes.
The basic idea of an equivalence relation is to collect elements that are different but behave in the same manner with respect to some property of interest.
In modular arithmetic this property is having the same rest when divided by a prescribed integer
If $a=bbmod m$ or $aequiv_m b$ you essentially say that $a$ and $b$ are in the same equivalence class whith respect to the equivalence relation $equiv_m$.
So you could say that "$a$ and $b$ are in the same equivalence class when we look at the remainder upon dividing by $m$", which definitely longer and more cumbersome to say "$a$ congruent to $b$ modulo $m$" but nonetheless another way to exrpess the same concept.
$endgroup$
add a comment |
$begingroup$
Either AlessioDV's good answer, or you could say: "of the form $nq+r$". as a representation of $equiv r pmod n$ for example a number $N$ with $$Nequiv 1pmod 3$$ has property $N=3q+1$.
$endgroup$
add a comment |
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3 Answers
3
active
oldest
votes
3 Answers
3
active
oldest
votes
active
oldest
votes
active
oldest
votes
$begingroup$
Simply say "congruent to $a$ modulo $m$" to read "$equiv a pmod{m}$".
$endgroup$
add a comment |
$begingroup$
Simply say "congruent to $a$ modulo $m$" to read "$equiv a pmod{m}$".
$endgroup$
add a comment |
$begingroup$
Simply say "congruent to $a$ modulo $m$" to read "$equiv a pmod{m}$".
$endgroup$
Simply say "congruent to $a$ modulo $m$" to read "$equiv a pmod{m}$".
answered 2 hours ago
AlessioDVAlessioDV
43413
43413
add a comment |
add a comment |
$begingroup$
In a broader sense, when you are dealing with congruences you are dealing with an equivalence relation and its equivalence classes.
The basic idea of an equivalence relation is to collect elements that are different but behave in the same manner with respect to some property of interest.
In modular arithmetic this property is having the same rest when divided by a prescribed integer
If $a=bbmod m$ or $aequiv_m b$ you essentially say that $a$ and $b$ are in the same equivalence class whith respect to the equivalence relation $equiv_m$.
So you could say that "$a$ and $b$ are in the same equivalence class when we look at the remainder upon dividing by $m$", which definitely longer and more cumbersome to say "$a$ congruent to $b$ modulo $m$" but nonetheless another way to exrpess the same concept.
$endgroup$
add a comment |
$begingroup$
In a broader sense, when you are dealing with congruences you are dealing with an equivalence relation and its equivalence classes.
The basic idea of an equivalence relation is to collect elements that are different but behave in the same manner with respect to some property of interest.
In modular arithmetic this property is having the same rest when divided by a prescribed integer
If $a=bbmod m$ or $aequiv_m b$ you essentially say that $a$ and $b$ are in the same equivalence class whith respect to the equivalence relation $equiv_m$.
So you could say that "$a$ and $b$ are in the same equivalence class when we look at the remainder upon dividing by $m$", which definitely longer and more cumbersome to say "$a$ congruent to $b$ modulo $m$" but nonetheless another way to exrpess the same concept.
$endgroup$
add a comment |
$begingroup$
In a broader sense, when you are dealing with congruences you are dealing with an equivalence relation and its equivalence classes.
The basic idea of an equivalence relation is to collect elements that are different but behave in the same manner with respect to some property of interest.
In modular arithmetic this property is having the same rest when divided by a prescribed integer
If $a=bbmod m$ or $aequiv_m b$ you essentially say that $a$ and $b$ are in the same equivalence class whith respect to the equivalence relation $equiv_m$.
So you could say that "$a$ and $b$ are in the same equivalence class when we look at the remainder upon dividing by $m$", which definitely longer and more cumbersome to say "$a$ congruent to $b$ modulo $m$" but nonetheless another way to exrpess the same concept.
$endgroup$
In a broader sense, when you are dealing with congruences you are dealing with an equivalence relation and its equivalence classes.
The basic idea of an equivalence relation is to collect elements that are different but behave in the same manner with respect to some property of interest.
In modular arithmetic this property is having the same rest when divided by a prescribed integer
If $a=bbmod m$ or $aequiv_m b$ you essentially say that $a$ and $b$ are in the same equivalence class whith respect to the equivalence relation $equiv_m$.
So you could say that "$a$ and $b$ are in the same equivalence class when we look at the remainder upon dividing by $m$", which definitely longer and more cumbersome to say "$a$ congruent to $b$ modulo $m$" but nonetheless another way to exrpess the same concept.
answered 1 hour ago
Vinyl_coat_jawaVinyl_coat_jawa
3,0001131
3,0001131
add a comment |
add a comment |
$begingroup$
Either AlessioDV's good answer, or you could say: "of the form $nq+r$". as a representation of $equiv r pmod n$ for example a number $N$ with $$Nequiv 1pmod 3$$ has property $N=3q+1$.
$endgroup$
add a comment |
$begingroup$
Either AlessioDV's good answer, or you could say: "of the form $nq+r$". as a representation of $equiv r pmod n$ for example a number $N$ with $$Nequiv 1pmod 3$$ has property $N=3q+1$.
$endgroup$
add a comment |
$begingroup$
Either AlessioDV's good answer, or you could say: "of the form $nq+r$". as a representation of $equiv r pmod n$ for example a number $N$ with $$Nequiv 1pmod 3$$ has property $N=3q+1$.
$endgroup$
Either AlessioDV's good answer, or you could say: "of the form $nq+r$". as a representation of $equiv r pmod n$ for example a number $N$ with $$Nequiv 1pmod 3$$ has property $N=3q+1$.
answered 1 hour ago
Rhys HughesRhys Hughes
6,9031530
6,9031530
add a comment |
add a comment |
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3
$begingroup$
How about congruence?
$endgroup$
– Umberto P.
2 hours ago
$begingroup$
So should I say (variable)'s congruence class or value?
$endgroup$
– dEmigOd
2 hours ago