Partial ordering on a space of matrices
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I am wondering as how to define partial ordering on a space of matrices! The following is what i intuitively constructed:
If $M$ is a set all $n×n$ matrices with entries of each matrix are from an idempotent semiring then $M$ is also an idempptent semiring under the matrix addition and multiplication. Now, we can define a natural order on M as $Aleq B$ when $A+B=B$ for all $A, B$ in $M$, which is a partial order relation on $M$. Is this intuition correct?
matrices order-theory semiring
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add a comment |
$begingroup$
I am wondering as how to define partial ordering on a space of matrices! The following is what i intuitively constructed:
If $M$ is a set all $n×n$ matrices with entries of each matrix are from an idempotent semiring then $M$ is also an idempptent semiring under the matrix addition and multiplication. Now, we can define a natural order on M as $Aleq B$ when $A+B=B$ for all $A, B$ in $M$, which is a partial order relation on $M$. Is this intuition correct?
matrices order-theory semiring
$endgroup$
add a comment |
$begingroup$
I am wondering as how to define partial ordering on a space of matrices! The following is what i intuitively constructed:
If $M$ is a set all $n×n$ matrices with entries of each matrix are from an idempotent semiring then $M$ is also an idempptent semiring under the matrix addition and multiplication. Now, we can define a natural order on M as $Aleq B$ when $A+B=B$ for all $A, B$ in $M$, which is a partial order relation on $M$. Is this intuition correct?
matrices order-theory semiring
$endgroup$
I am wondering as how to define partial ordering on a space of matrices! The following is what i intuitively constructed:
If $M$ is a set all $n×n$ matrices with entries of each matrix are from an idempotent semiring then $M$ is also an idempptent semiring under the matrix addition and multiplication. Now, we can define a natural order on M as $Aleq B$ when $A+B=B$ for all $A, B$ in $M$, which is a partial order relation on $M$. Is this intuition correct?
matrices order-theory semiring
matrices order-theory semiring
edited Dec 17 '18 at 5:53
gete
asked Dec 16 '18 at 17:04
getegete
847
847
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$begingroup$
A semiring $R$ for all $ain R$, $a + a = a$ can be ordered by $a leq b$ when $a + b = b$.
In addition $leq$ produces a ring order. $a leq b$ implies $a + c leq a + c$, $ac leq bc$.
Have you worked out the details?
The same order can be imposed upon M except possibly for $A leq B$ implies $AC leq BC$, which I haven't looked into.
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$begingroup$
A semiring $R$ for all $ain R$, $a + a = a$ can be ordered by $a leq b$ when $a + b = b$.
In addition $leq$ produces a ring order. $a leq b$ implies $a + c leq a + c$, $ac leq bc$.
Have you worked out the details?
The same order can be imposed upon M except possibly for $A leq B$ implies $AC leq BC$, which I haven't looked into.
$endgroup$
add a comment |
$begingroup$
A semiring $R$ for all $ain R$, $a + a = a$ can be ordered by $a leq b$ when $a + b = b$.
In addition $leq$ produces a ring order. $a leq b$ implies $a + c leq a + c$, $ac leq bc$.
Have you worked out the details?
The same order can be imposed upon M except possibly for $A leq B$ implies $AC leq BC$, which I haven't looked into.
$endgroup$
add a comment |
$begingroup$
A semiring $R$ for all $ain R$, $a + a = a$ can be ordered by $a leq b$ when $a + b = b$.
In addition $leq$ produces a ring order. $a leq b$ implies $a + c leq a + c$, $ac leq bc$.
Have you worked out the details?
The same order can be imposed upon M except possibly for $A leq B$ implies $AC leq BC$, which I haven't looked into.
$endgroup$
A semiring $R$ for all $ain R$, $a + a = a$ can be ordered by $a leq b$ when $a + b = b$.
In addition $leq$ produces a ring order. $a leq b$ implies $a + c leq a + c$, $ac leq bc$.
Have you worked out the details?
The same order can be imposed upon M except possibly for $A leq B$ implies $AC leq BC$, which I haven't looked into.
edited Dec 17 '18 at 5:13
user10354138
7,4322925
7,4322925
answered Dec 17 '18 at 1:25
William ElliotWilliam Elliot
8,6672720
8,6672720
add a comment |
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