5.06-2. Bellman Ford Algorithm (3, part 2). Consider the grid network shown below. All links have a cost of 1. Let's focus on the distance vector (DV) in node L. [Note: You can find more examples of problems similar to this here.] Suppose that the DV algorithm is operating synchronously (although this isn't a requirement). Initially all nodes exchange their initial DV with their direct neighbors, and vice versa. Following this exchange of initial DVs and re-computation of its local DV components, what are the DV entries in node L for destinations G, H, and 1? Enter these components of L's initial DV,below by matching a DV entry to its value in the pull-down menu. O DL(G) 1. infinity DL(H) 2.3 3.1 O DL(1I) 4.5 5.2

5.06-2. Bellman Ford Algorithm (3, part 2). Consider the grid network shown below. All links have a cost of 1. Let's focus on the distance vector (DV) in node L. [Note: You can find more examples of problems similar to this here.] Suppose that the DV algorithm is operating synchronously (although this isn't a requirement). Initially all nodes exchange their initial DV with their direct neighbors, and vice versa. Following this exchange of initial DVs and re-computation of its local DV components, what are the DV entries in node L for destinations G, H, and 1? Enter these components of L's initial DV,below by matching a DV entry to its value in the pull-down menu. O DL(G) 1. infinity DL(H) 2.3 3.1 O DL(1I) 4.5 5.2

C++ for Engineers and Scientists

4th Edition

ISBN:9781133187844

Author:Bronson, Gary J.

Publisher:Bronson, Gary J.

Chapter13: Structures

Section: Chapter Questions

Problem 4PP

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give an example of a network with no more than 6 nodes and define all the data structure used by a distence vector and a link state algorithm. perform one iteration for both the algorithm families and show the aforementioned structires are uptaded
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