vault backup: 2025-03-18 16:20:04
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@ -51,7 +51,9 @@ We now show that $\to$ is acyclic.
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- by contradiction, consider a shortest cycle
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- adjacent edges cannot belong to the same order (e.g. not both $\to_X$), otw. the cycle would be shortable, because of transitivity of the total order!
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- adjacent edges cannot belong to orders on different objects
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- this would mean that an operation is involved in both $\to_X$ and $\to_Y$
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- this would mean that an operation is involved in both $\to_X$ and $\to_Y$ but it is not possible of course
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- Hence, at least one $\to_X$ exists and it must be between two $\to_H$ i.e.: $$op1 \to_H op2 \to_X op3 \to_H op4$$
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- can this be a cycle?
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> [!PDF|red] class 6, p.6> we would have a cycle of length
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