Determine if the structure is a lattice
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Given $X =$ $1, 2, 3, 4$ and $S = $ 1, 2, 2, â , 3, 4, X the
ordered set through the relation of inclusion $âÂÂ$.
(a) Draw the corresponding Hasse diagram of $S$.
(b) Determine if $S$ is a lattice.
The hasse diagaram would start from the $âÂÂ
$ element then connected to $1,2,3,4$
all connecting together to make $X$ with inter-connections between them if I am not wrong. But how to determine the lattice exactly?
abstract-algebra group-theory lattice-orders
 |Â
show 1 more comment
up vote
0
down vote
favorite
Given $X =$ $1, 2, 3, 4$ and $S = $ 1, 2, 2, â , 3, 4, X the
ordered set through the relation of inclusion $âÂÂ$.
(a) Draw the corresponding Hasse diagram of $S$.
(b) Determine if $S$ is a lattice.
The hasse diagaram would start from the $âÂÂ
$ element then connected to $1,2,3,4$
all connecting together to make $X$ with inter-connections between them if I am not wrong. But how to determine the lattice exactly?
abstract-algebra group-theory lattice-orders
Look at the axioms for a lattice and check them. Do all the necessary upper bounds exist?
â Ethan Bolker
Jul 16 at 15:55
I think the upper bound will be unique and it will be $X$ if I am not wrong right?
â CptPackage
Jul 16 at 15:58
If you look at the inclusion connections between the sets in $S$, you'll see that the Hasse diagram is that of the pentagon, $mathbf N_5$, as in this question, with $C=3,4$, $B=2$ and $A=1,2$. Of course I'm supposing that $X=1,2,3,4$ or a bigger set.
â amrsa
Jul 16 at 17:19
@amrsa Shouldn't it be more like this?
â CptPackage
Jul 16 at 19:15
How could it be like that if $|S|=5$? The diagram you have in that link has 8 nodes.
â amrsa
Jul 16 at 21:57
 |Â
show 1 more comment
up vote
0
down vote
favorite
up vote
0
down vote
favorite
Given $X =$ $1, 2, 3, 4$ and $S = $ 1, 2, 2, â , 3, 4, X the
ordered set through the relation of inclusion $âÂÂ$.
(a) Draw the corresponding Hasse diagram of $S$.
(b) Determine if $S$ is a lattice.
The hasse diagaram would start from the $âÂÂ
$ element then connected to $1,2,3,4$
all connecting together to make $X$ with inter-connections between them if I am not wrong. But how to determine the lattice exactly?
abstract-algebra group-theory lattice-orders
Given $X =$ $1, 2, 3, 4$ and $S = $ 1, 2, 2, â , 3, 4, X the
ordered set through the relation of inclusion $âÂÂ$.
(a) Draw the corresponding Hasse diagram of $S$.
(b) Determine if $S$ is a lattice.
The hasse diagaram would start from the $âÂÂ
$ element then connected to $1,2,3,4$
all connecting together to make $X$ with inter-connections between them if I am not wrong. But how to determine the lattice exactly?
abstract-algebra group-theory lattice-orders
asked Jul 16 at 15:53
CptPackage
417
417
Look at the axioms for a lattice and check them. Do all the necessary upper bounds exist?
â Ethan Bolker
Jul 16 at 15:55
I think the upper bound will be unique and it will be $X$ if I am not wrong right?
â CptPackage
Jul 16 at 15:58
If you look at the inclusion connections between the sets in $S$, you'll see that the Hasse diagram is that of the pentagon, $mathbf N_5$, as in this question, with $C=3,4$, $B=2$ and $A=1,2$. Of course I'm supposing that $X=1,2,3,4$ or a bigger set.
â amrsa
Jul 16 at 17:19
@amrsa Shouldn't it be more like this?
â CptPackage
Jul 16 at 19:15
How could it be like that if $|S|=5$? The diagram you have in that link has 8 nodes.
â amrsa
Jul 16 at 21:57
 |Â
show 1 more comment
Look at the axioms for a lattice and check them. Do all the necessary upper bounds exist?
â Ethan Bolker
Jul 16 at 15:55
I think the upper bound will be unique and it will be $X$ if I am not wrong right?
â CptPackage
Jul 16 at 15:58
If you look at the inclusion connections between the sets in $S$, you'll see that the Hasse diagram is that of the pentagon, $mathbf N_5$, as in this question, with $C=3,4$, $B=2$ and $A=1,2$. Of course I'm supposing that $X=1,2,3,4$ or a bigger set.
â amrsa
Jul 16 at 17:19
@amrsa Shouldn't it be more like this?
â CptPackage
Jul 16 at 19:15
How could it be like that if $|S|=5$? The diagram you have in that link has 8 nodes.
â amrsa
Jul 16 at 21:57
Look at the axioms for a lattice and check them. Do all the necessary upper bounds exist?
â Ethan Bolker
Jul 16 at 15:55
Look at the axioms for a lattice and check them. Do all the necessary upper bounds exist?
â Ethan Bolker
Jul 16 at 15:55
I think the upper bound will be unique and it will be $X$ if I am not wrong right?
â CptPackage
Jul 16 at 15:58
I think the upper bound will be unique and it will be $X$ if I am not wrong right?
â CptPackage
Jul 16 at 15:58
If you look at the inclusion connections between the sets in $S$, you'll see that the Hasse diagram is that of the pentagon, $mathbf N_5$, as in this question, with $C=3,4$, $B=2$ and $A=1,2$. Of course I'm supposing that $X=1,2,3,4$ or a bigger set.
â amrsa
Jul 16 at 17:19
If you look at the inclusion connections between the sets in $S$, you'll see that the Hasse diagram is that of the pentagon, $mathbf N_5$, as in this question, with $C=3,4$, $B=2$ and $A=1,2$. Of course I'm supposing that $X=1,2,3,4$ or a bigger set.
â amrsa
Jul 16 at 17:19
@amrsa Shouldn't it be more like this?
â CptPackage
Jul 16 at 19:15
@amrsa Shouldn't it be more like this?
â CptPackage
Jul 16 at 19:15
How could it be like that if $|S|=5$? The diagram you have in that link has 8 nodes.
â amrsa
Jul 16 at 21:57
How could it be like that if $|S|=5$? The diagram you have in that link has 8 nodes.
â amrsa
Jul 16 at 21:57
 |Â
show 1 more comment
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Look at the axioms for a lattice and check them. Do all the necessary upper bounds exist?
â Ethan Bolker
Jul 16 at 15:55
I think the upper bound will be unique and it will be $X$ if I am not wrong right?
â CptPackage
Jul 16 at 15:58
If you look at the inclusion connections between the sets in $S$, you'll see that the Hasse diagram is that of the pentagon, $mathbf N_5$, as in this question, with $C=3,4$, $B=2$ and $A=1,2$. Of course I'm supposing that $X=1,2,3,4$ or a bigger set.
â amrsa
Jul 16 at 17:19
@amrsa Shouldn't it be more like this?
â CptPackage
Jul 16 at 19:15
How could it be like that if $|S|=5$? The diagram you have in that link has 8 nodes.
â amrsa
Jul 16 at 21:57