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Wireless routing protocol Project examples using omnet++

Wireless Routing Protocols that can implement and simulate using OMNeT++ program topic ideas are discussed in his page, stay update by connecting with us. Once you contact us we share with you best ideas and implementation results for your research area. The given below are some project examples involving wireless routing protocols that can implement and simulate using OMNeT++:

  1. Performance Comparison of Wireless Routing Protocols (AODV, DSR, and OLSR)
  • Description:
    • Execute and compare the performance of popular wireless routing protocols such as AODV (Ad hoc On-Demand Distance Vector), DSR (Dynamic Source Routing), and OLSR (Optimized Link State Routing) in a wireless network environment using OMNeT++.
  • Objectives:
    • Evaluate packet delivery ratio: Evaluate the success rate of packet delivery for each protocol in changing network conditions.
    • Analyse end-to-end delay: Compare the latency established by each protocol in scenarios with numerous node mobility and network sizes.
    • Assess routing overhead: Compute and compare the control message overhead that creates by each protocol.
  • Possible Extensions:
    • Execute the scenarios with high node mobility to validate the robustness of each protocol.
    • To emulate the networks with changing node densities to measure the scalability.
  1. Energy-Efficient Routing in Wireless Sensor Networks (WSNs)
  • Description:
    • Improve and execute an energy-efficient routing protocol for Wireless Sensor Networks (WSNs) to extend the network lifetime.
  • Objectives:
    • Measure energy consumption: Evaluate how the protocol reduces the energy usage during communication and route discovery.
    • Evaluate network lifetime: Compare the overall network lifetime with that of standard protocols such as LEACH (Low-Energy Adaptive Clustering Hierarchy).
    • Test data delivery reliability: Make sure that the protocol supports the  reliable data delivery while optimizing energy usage.
  • Possible Extensions:
    • Execute sleep scheduling mechanisms to extra conserve energy.
    • Emulate the scenarios with changing sensor node distributions to validate protocol adaptability.
  1. QoS-Aware Routing Protocol for Multimedia Traffic in Wireless Networks
  • Description:
    • Develop a routing protocol that select Quality of Service (QoS) for multimedia traffic in wireless networks.
  • Objectives:
    • Analyse delay and jitter: Assess the protocol’s ability to reduce delay and jitter for real-time traffic such as video and VoIP.
    • Evaluate packet loss: Test how well the protocol makes sure the packet delivery in changing network loads.
    • Assess throughput: Compare the throughput achieved by the QoS-aware protocol with that of standard wireless routing protocols.
  • Possible Extensions:
    • Execute adaptive mechanisms to strongly adapt the QoS parameters based on network conditions.
    • Validate the protocol’s performance in networks with mixed traffic types like multimedia and data traffic.
  1. Scalability Analysis of Routing Protocols in Large-Scale MANETs
  • Description:
    • Execute and emulate the performance of wireless routing protocols such as AODV, DSR, and OLSR in large-scale Mobile Ad Hoc Networks (MANETs).
  • Objectives:
    • Evaluate protocol scalability: Validate how each protocol scales as the number of nodes and network size increases.
    • Analyse routing efficiency: Assess the effectiveness of route discovery and maintenance in large networks.
    • Assess protocol overhead: Compare the routing control overhead in large-scale networks.
  • Possible Extensions:
    • Establish node mobility and measure its effects on protocol scalability.
    • Execute hierarchical routing approaches to improve scalability.
  1. Security Enhancements for Wireless Routing Protocols
  • Description:
    • Execute security features for wireless routing protocols such as AODV to secure against common attacks like black hole, wormhole, and Sybil attacks.
  • Objectives:
    • Evaluate attack detection: Assess the efficiency of the security enhancements in detecting and preventing the attacks.
    • Analyse impact on performance: Evaluate the trade-offs among the security and performance like increased latency or routing overhead.
    • Test under attack scenarios: To mimic the numerous attack scenarios and monitor how the security-enhanced protocol responds.
  • Possible Extensions:
    • Execute the additional security mechanisms like encryption and authentication, to further improve the security.
    • Emulate networks with changing levels of threat intensity to validate the protocol’s robustness.
  1. Cross-Layer Routing Protocol Design for Wireless Networks
  • Description:
    • Improve a cross-layer routing protocol that controls the data from the MAC layer like link quality, signal strength to enhance the routing decisions.
  • Objectives:
    • Evaluate routing accuracy: evaluate how the cross-layer approach enhances the route selection accuracy and reliability.
    • Analyse protocol overhead: Compare the control message overhead with that of traditional routing protocols.
    • Test adaptability: To mimic the numerous network conditions like high mobility, varying node densities and observe how the protocol adapts.
  • Possible Extensions:
    • Execute and compare numerous cross-layer optimization approaches.
    • Validate the protocol’s performance in both static and dynamic wireless network environments.
  1. Implementation of Geographic Routing Protocols in Wireless Networks
  • Description:
    • Execute and emulate the geographic routing protocols like Greedy Perimeter Stateless Routing (GPSR), that use node locations for routing decisions.
  • Objectives:
    • Measure routing efficiency: evaluate how effectively the protocol transmit the packets based on geographic information.
    • Evaluate packet delivery ratio: Validate the success rate of packet delivery, particularly in scenarios with obstacles or changing node densities.
    • Analyse protocol overhead: Compare the control message overhead with that of traditional distance-vector or link-state routing protocols.
  • Possible Extensions:
    • Execute the improvements to manage the scenarios in which the direct geographic routing is not possible like dead-ends or voids.
    • To mimic the protocol in a 3D environment to validate its efficiency in more complex terrains.
  1. Adaptive Routing in Dynamic Wireless Mesh Networks
  • Description:
    • Build an adaptive routing protocol for wireless mesh networks that adapts to changing network conditions like node mobility and changing link quality.
  • Objectives:
    • Analyse route stability: evaluate how the protocol supports the stable routes despite dynamic changes in the network.
    • Evaluate throughput and delay: Compare the throughput and delay with that of non-adaptive protocols in dynamic environments.
    • Test protocol adaptability: Emulate the changing levels of node mobility and link variations to detect the protocol’s adaptability.
  • Possible Extensions:
    • Execute the mechanisms to predict and pre-emptively adapts the routes based on probable network changes.
    • Validate the protocol’s performance in heterogeneous mesh networks with nodes of changing capabilities.
  1. Opportunistic Routing Protocols in Wireless Networks
  • Description:
    • Execute and emulate the opportunistic routing protocols that influence multiple potential forwarding nodes to enhance the routing reliability in wireless networks.
  • Objectives:
    • Evaluate packet delivery ratio: Evaluate the enhancement in packet delivery because of the opportunistic forwarding approach.
    • Analyse delay and throughput: Compare the delay and throughput with that of traditional deterministic routing protocols.
    • Test in varying network conditions: To emulate the scenarios with high node mobility and varying link quality to measure the protocol’s efficiency.
  • Possible Extensions:
    • Execute and compare numerous opportunistic routing strategies like ExOR, MORE.
    • Validate the protocol’s performance in numerous kinds of wireless networks, like MANETs, WSNs, and VANETs.
  1. Simulation of VANET (Vehicular Ad Hoc Network) Routing Protocols
  • Description:
    • Execute and emulate the routing protocols that particularly intended for VANETs, like GPSR or AODV extensions for vehicular networks.
  • Objectives:
    • Evaluate protocol performance in urban and highway scenarios: Evaluate how well the protocol manages the distinct issues of VANETs like high mobility and frequent topology changes.
    • Analyse safety and traffic efficiency: validate the protocol’s ability to help the safety applications like collision avoidance and the effective traffic management.
    • Assess scalability: To mimic the VANETs of changing sizes to measure the scalability of the protocol.
  • Possible Extensions:
    • Execute and validate the protocols that support vehicle-to-infrastructure (V2I) along with vehicle-to-vehicle (V2V) communication.
    • To emulate the effect of network congestion and changing traffic densities on routing performance.

In the demonstration we provide the sample a project that relates to the wireless routing protocol in different scenarios that were executes in the tool of OMNET++. If you need more information regarding the wireless routing protocol we will offered it.

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