How to Start Distance Vector Routing Projects Using NS2
To create a Distance Vector Routing project using NS2 (Network Simulator 2), you should follow for this step by step procedures for this implementation:
Steps to Start Distance Vector Routing Projects Using NS2
Step 1: Setup NS2 Environment
- Install NS2:
- Download and install NS2 from NS2 Official Website or use precompiled packages.
- Enable the all dependencies are installed for sample Tcl/Tk, OTcl, and NAM.
- Validate the installation using:
ns -version
- Familiarize with NS2:
- Analysis the essential architecture for NS2 scripts written in Tcl.
- Examine the samples are offers in the ns-allinone-2.x/examples/ directory.
Step 2: Understand Distance Vector Routing
- Distance Vector Routing Protocols (e.g., RIP):
- Routers can modify the distance vectors by neighbours periodically.
- Every router has measured the minimum path for the destination terms on the received vectors.
- Execute the protocol logic as per your project necessary.
Step 3: Design the Network Topology
- Describe the network by nodes such as routers in the replication script:
set ns [new Simulator]
# Create nodes
set n1 [$ns node]
set n2 [$ns node]
set n3 [$ns node]
# Create links
$ns duplex-link $n1 $n2 1Mb 10ms DropTail
$ns duplex-link $n2 $n3 1Mb 10ms DropTail
- Signify the routers and interconnections utilized their nodes and connection.
Step 4: Implement Distance Vector Routing
- Modify Routing Logic:
- NS2 used the static routing through default. Execute the dynamic distance vector routing through generating or alter the routing agents.
- Used the modify routing logic in C++ for agent development or Tcl for simpler logic.
- Sample Implementation:
- Build a new routing agent through encompass the previous Agent class in NS2.
- Bring up-to-date routing tables are dynamically according to the distance vectors.
Sample in Tcl for basic setup:
Agent/DistanceVector instproc recv {pkt} {
# Logic for processing incoming packets and updating the distance table
}
- Routing Updates:
- Replicate the periodic modify for routing tables.
- Bring up-to-date the replication for script to reflect the route changes dynamically.
Step 5: Simulation and Testing
- Define Traffic Flow:
- Enhance the UDP or TCP congestion we replicate a real-world network activity.
- Example:
set udp [new Agent/UDP]
$ns attach-agent $n1 $udp
set sink [new Agent/Null]
$ns attach-agent $n3 $sink
$ns connect $udp $sink
set cbr [new Application/Traffic/CBR]
$cbr attach-agent $udp
$cbr set packetSize_ 512
$cbr set interval_ 0.05
$ns at 1.0 “$cbr start”
- Run the Simulation:
- Save the Tcl script such as distance_vector.tcl.
- Estimate using:
ns distance_vector.tcl
- Analyze Results:
- Used the NAM (Network Animator) for visualization.
- Checked the suggestion files for performance parameter for sample packet delivery ratio, delay.
Step 6: Extend the Project
- Add advanced features like:
- They divide the horizon by poison reverse.
- The route invalidation for the timers.
- Adaptive routing according to the network conditions.
- Associates the performance through other routing protocols such as Link-State Routing.
From the entire page, we had collected the most essential information that will very helpful to simulate the distance vector routing projects in ns2 tool. Additional clarification will be provided in a different document.
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