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There is no Euler circuit. An Euler circuit must contain every ''edge'' in the graph. Theorem 1 says that there is an Euler circuit if and only if each vertex has an even degree. But in this graph, vertices b and c both have odd degrees (7 and 5, respectively).
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There is no Euler circuit. An Euler circuit must contain every ''edge'' in the graph. Theorem 1 says that there is an Euler circuit if and only if each vertex has an even degree. But in this graph, vertices b and c both have odd degrees (7 and 5, respectively).--[[User:Mkorb|Mkorb]] 19:21, 18 November 2008 (UTC)

Revision as of 14:21, 18 November 2008

The Euler Circuit should be : a -> b -> d -> c-> e-> f ->a.
But for Euler Path, I am still trying to figure out.
The closest I got was one of the path was not covered between C and B. This graph has 2 vertex with odd degree, it should have an Euler path.
-ngw

I agree with the Euler Circuit from ngw. There are others though, a > b > f > d > c > e > a for instance. --rtabchou


There is no Euler circuit. An Euler circuit must contain every edge in the graph. Theorem 1 says that there is an Euler circuit if and only if each vertex has an even degree. But in this graph, vertices b and c both have odd degrees (7 and 5, respectively).--Mkorb 19:21, 18 November 2008 (UTC)

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Abstract algebra continues the conceptual developments of linear algebra, on an even grander scale.

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