5.04-1. Bellman Ford Algorithm (1, part 1). Consider the scenario shown below, where at t=1, node e receives distance vectors from neighboring nodes d, b, h and f. The (old) distance vector at e (the node at the center of the network) is also shown, before receiving the new distance vector from its neighbors. Indicate which of the components of new distance vector at e below have a value of 1 after e has received the distance vectors from its neighbors and updated its own distance vector.
5.04-1. Bellman Ford Algorithm (1, part 1). Consider the scenario shown below, where at t=1, node e receives distance vectors from neighboring nodes d, b, h and f. The (old) distance vector at e (the node at the center of the network) is also shown, before receiving the new distance vector from its neighbors. Indicate which of the components of new distance vector at e below have a value of 1 after e has received the distance vectors from its neighbors and updated its own distance vector.
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5.04-1. Bellman Ford Algorithm (1, part 1). Consider the scenario shown below, where at t=1, node e receives distance

Transcribed Image Text:## Distance Vector Routing Example at Time t=1
### Scenario:
At time \( t=1 \), node \( e \) receives distance vectors (DVs) from nodes \( b, d, f, \) and \( h \).
### Objective:
Determine the new distance vector (DV) computed at node \( e \) at \( t=1 \).
### Node Connections and Costs:
- **Node Connections:**
- \( a \) is connected to \( b \) (cost 8).
- \( b \) is connected to \( c \) (cost 1).
- \( b \) is connected to \( e \) (cost 1).
- \( d \) is connected to \( e \) (cost 1).
- \( d \) is connected to \( f \) (cost 1).
- \( f \) is connected to \( e \) (cost 1).
- \( g \) is connected to \( h \) (cost 1).
- \( h \) is connected to \( i \) (cost 1).
### Received Distance Vectors:
- **From Node \( b \):**
- \( D_b(a) = 8 \)
- \( D_b(c) = 1 \)
- \( D_b(d) = \infty \)
- \( D_b(e) = 0 \)
- \( D_b(f) = \infty \)
- \( D_b(g) = \infty \)
- \( D_b(h) = \infty \)
- \( D_b(i) = \infty \)
- **From Node \( d \):**
- \( D_d(a) = 1 \)
- \( D_d(b) = \infty \)
- \( D_d(c) = \infty \)
- \( D_d(e) = 1 \)
- \( D_d(f) = 1 \)
- \( D_d(g) = \infty \)
- \( D_d(h) = 1 \)
- \( D_d(i) = \infty \)
- **From Node \( f \):**
- \( D_f(a) = \infty \)
- \( D_f(b) = \infty \)
- \( D_f(c) = \
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