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Shahrooz
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This problem is so famous. For first trivial reference, you can see:link.

$\it{Bodendiek}$$\it{R. Bodendiek}$ and $\it{Burosch}$$\it{G. Burosch}$ studied this problem in a paper with name:

"Solution to the Antimagic 0,1,-1 Matrix Problem."

If there is solution for integer $n$, then we have:

$1)$ $n$ is even,

$2)$ The number in $\{-n,1-n,2-n,...,n\}$ that does not appear as a line sum is either $-n$ or $n$,

$3)$ Of the $n$ largest line sums, half are column sums and half are row sums.

Also, you can search about "Alternating sum matrix", for more information.

This problem is so famous. For first trivial reference, you can see:link.

$\it{Bodendiek}$ and $\it{Burosch}$ studied this problem in a paper with name:

"Solution to the Antimagic 0,1,-1 Matrix Problem."

Also, you can search about "Alternating sum matrix", for more information.

This problem is so famous. For first trivial reference, you can see:link.

$\it{R. Bodendiek}$ and $\it{G. Burosch}$ studied this problem in a paper with name:

"Solution to the Antimagic 0,1,-1 Matrix Problem."

If there is solution for integer $n$, then we have:

$1)$ $n$ is even,

$2)$ The number in $\{-n,1-n,2-n,...,n\}$ that does not appear as a line sum is either $-n$ or $n$,

$3)$ Of the $n$ largest line sums, half are column sums and half are row sums.

Also, you can search about "Alternating sum matrix", for more information.

Source Link
Shahrooz
  • 4.8k
  • 1
  • 24
  • 36

This problem is so famous. For first trivial reference, you can see:link.

$\it{Bodendiek}$ and $\it{Burosch}$ studied this problem in a paper with name:

"Solution to the Antimagic 0,1,-1 Matrix Problem."

Also, you can search about "Alternating sum matrix", for more information.