For each of the following networks, state a valid walk that crosses each vertex once:
State the definition of a path in regard to graph theory.
Consider the given network:
State whether the following are valid walks:
K, F, P, K
K, P, F, K, P
K, P, F, R, M
R, P, F, M, R
K, P, F, K
F, R, M, P, F
State whether the following are valid paths:
K, P, F, R, M
K, P, F, K, P
K, P, F, K
For each of the following graphs, state whether each list of vertices defines a valid path:
List all valid paths:
Determine the number of unique paths from B \text{ to } D.
Determine the number of unique paths from A to D.
State a path that satisfies the given information for each of the following networks:
The path starts at B and ends at X.
The path starts at H, goes through 4 other vertices, and then ends at B.
The path starts at Q, has length 3, and ends at P.
The path starts at P and ends at Q
Define the following terms in relation to graph theory:
Loop
Connected graph
Trail
Cycle
For each of the following lists, select the odd one out and explain your choice:
Walk
Path
Cycle
Trail
Path
Closed walk
Cycle
Closed trail
State whether each of the following graphs is connected:
Consider the following graph:
How many edges are connected to vertex \\A?
List the vertices adjacent to vertex E.
State the vertex directly connected to all other vertices.
Which vertex is not directly connected to vertex A?
Consider the following graph:
Which vertex is isolated?
How many edges are there in the network?
How many vertices are there?
Which vertex is the loop connected to?
For each of the given networks, determine if the listed vertices define a valid circuit:
C, B, A, E, D, C
B, A, E, C, D, B
B, C, A, E, D, C
D, C, B, A, E, D
C, E, F, D, B, A, C, G
C, E, F, G, H, D, C
A, B, D, H, G, C, A
E, F, G, H, D, B, E
F, C, D, B, E, G, F
E, B, A, C, D, G
G, D, C, F, E, B, G
A, B, D, C, F, A