IJERT-Distribution of Dynamic Routing Protocols (Is-Is, EIGRP, OSPF) in IPv6 Network and Their Performance Analysis (original) (raw)

Comparative Analysis of Two Prominent Routing Protocols in IPv6 Network: OSPFv3 & EIGRPv6

Due to the huge demand of Internet, computer network has been transited from IPv4 to IPv6 environment. New routing protocols are also needed in IPv6 network. Among them two are very prominent: IETF's OSPF and Cisco's EIGRP. In IPv6 network, they are known as OSPFv3 and EIGRPv6 respectively. Though several researchers have worked in these area, but this paper have analyzed the comparisons between these two routing protocols more intensively. In this paper, packet loss, routing convergence speed and end to end delay have been considered as the parameters of the comparisons. The comparisons have been evaluated in Cisco's simulation environment; Packet Tracer.

Performance Analysis of Dynamic Routing Protocol EIGRP and OSPF in IPv4 and IPv6 Network

—OSPF (Open Shortest Path First) and EIGRP (Enhanced Interior Gateway Protocol) are routing protocol which is a member of IGP (Interior Gateway Protocol). OSPF and EIGRP will distribute routing information between routers in the same autonomous system. This research will find how routing protocol works and compare those dynamic routing protocols in IPv4 and IPv6 network. This research will simulate some network topology and shows that EIGRP are much better than OSPF in many different topology.

IRJET- Redistribution of Dynamic Routing Protocol in Ipv6 Network and their Analysis

IRJET, 2020

Dynamic routing, also called adaptive routing, describes the capability of a system, through which routes are characterized by their destination. This method is used in data networking to describe the capability of a network to 'route around' damage, such as loss of a node or a connection between nodes, so long as other path choices are available. The protocols used to achieve this are OSPF, EIGRP and IS-IS. A routing instance is a collection of routing tables, interfaces, and routing protocol parameters. The set of interfaces belongs to the routing tables, and the routing protocol parameters control the information in the routing tables. Routing protocol parameters and options control the information in the routing tables and analyses the performance metrics of the interconnected routers. The project deals with an approach in which the outcome of deployment of the various dynamic protocols on the ipv6 network is explored on the variation of parameters such as packet loss, convergence time, throughput and latency. Results manifest that the proposed approach yields better performance improvement over the existing strategies.

Performance Evaluation of Routing Protocols RIPng, OSPFv3, and EIGRP in an IPv6 Network

A Routing Protocol is a rule that determines how routers can communicate with each other. The development of modern computer networks such as the Internet makes routing protocols increasingly required to find the best and efficient route. This study examined the performance of routing protocols RIPng, OSPFv3, and EIGRP in an IPv6 network by using GNS3 based on parameters of throughput, jitter and packet loss. Throughput is the actual speed of a network, the higher the throughput then the faster the data transfer can be completed. Jitter is the difference in the arrival time interval between packets at the destination node. To get a better value of QoS (Quality of Service), the value of jitter must be kept to a minimum. Packet loss is the number of lost data packets during the data transmission process. To get a better QoS value, the value of packet loss must also be kept to a minimum. The results of this research indicate that the RIPng routing protocol has the highest throughput value, whilst a combination of OSPFv3-EIGRP routing protocols has the smallest jitter value. Lastly, the RIPng routing protocol has the smallest value for packet loss

Performance Evaluation of IPv4 and IPv6 Routing Protocols on Wired, Wireless and Hybrid Networks

– A routing protocol is used to determine the optimal path to forward the packets from source to destination. A separate set of protocols is designed for IPv4 & IPv6 network such as RIP, OSPF-v2, RIPng, OSPF-v3, and AODV. IPv4 is replaced by IPv6 (next generation internet protocol), but both the protocols are not suitable for each other, due to this they need to coexist for a long time. In this paper, the performance is evaluated for different routing protocols for IPv4 and IPv6 over wired, wireless and the hybrid network. Simulations are carried out on EXata/Cyber 2.1 Simulator/Emulator. The performance of routing protocols is measured on the basis of throughput, jitter, end-to-end delay and packet delivery ratio (PDR). By the simulation, on the basis of throughput and PDR performance of AODV (IPv4) is very good as compared with other routing protocols. It has been observed that due to the size of the IPv6 header, which is larger than IPv4 header the performance of routing protocols downgrades.

Performance Comparison of OSPFV3 and EIGRP with IPv6 Network

Asian Journal of Research in Computer Science, 2021

A collection of interconnected devices that deal with communication protocols that are common to share resources provided by nodes of a network over digital interconnections is a computer network. The process of determining the most efficient route from a source to a given target is called routing. Cisco's Enriched Internal Routing Gateway Protocol for IPv6 and the IETF's OSPFv3 (First Version 3 of Open Shortest Path) are two of the most frequently studied IPv6 routing protocols among researchers (EIGRPv6). As a result of the popularity of EIGRPv6 and OSPFv3, it is necessary to undertake a thorough contrast of the two protocols once working inside a minor enterprise network on IPv6. Thus, the study analysed the performance comparison of OSPFV3 and EIGRP with IPv6 networks with regards to convergence time, end-to-end delay, and packet loss. Packet Tracer 6.2.2 was used to compare the performance of routing protocols of different kinds. In the simulation, Cisco routers, switch...

Performance Evaluation of Enhanced Interior Gateway Routing Protocol in IPv6 Network

International Journal of Computer Applications, 2013

With the explosive growth in communication and network technologies, there is a great demand of IPv6 addressing scheme. However, the modern operating systems has option for this and with the development of IPv6 which removes the limitations imposed by IPv4 and provides the large number of address space. In this paper, authors have considered the Enhanced Interior Gateway Routing Protocol and presented a scenario for its performance evaluation in IPv6 networks and obtained results are highly considerable for the short distance of communication and don't represent any problem of performance degradation while sending or receiving the data.

Proposal of Study on Performance Analysis of OSPFV3 and EIGRP Applications in IPV6

Asian Journal of Research in Computer Science

The internet protocols are increasingly imposed in recent times, there is a need to propose a study on the performance analysis on OSPFV3 and EIGRP in IPV6 application. IP is currently involved in sensitive areas of internet protocols, remote sensing, telepresence, computer networks and so on. The IP exists in two versions (IPv4 and IPv6), the difference between these two protocols is distinguished in terms of features, operation, and performance. In this study, measuring and evaluation on the performance of the two IPv4 and IPv6 protocols in the networks of communicating companies are proposed for further studies based on the literature gaps identified. The study should be performed by varying the routing protocols RIP, RIPnG, OSPF, OSPFv3, IS-IS and ISIS v6. Further studies should conduct simulation on performance analysis of OSPFV3 and EIGRP in IPV6 applications. The gaps identified after reviewing a number of literature on OSPFV3 and EIGRP with IPV6 network needs to be done sinc...

A Comparative Study on Routing Protocols: RIPng, OSPFv3 and EIGRPv6 and Their Analysis Using GNS-3

Eswar Publications , 2023

Routing of data packets is a critical process on the internet, and routing protocols play a vital role in enabling routers to connect to internetworks using Internet protocols. Internet applications use various routing protocols, such as RIPng, OSPFv3, EIGRPv6, etc., each with its own approach to routing packets. This study presents a basic comparative analysis of as RIPng, OSPFv3, EIGRPv6 protocols. RIPng is an IPv6 routing protocol that allows routers to exchange routing information and calculate the shortest path to a destination based on the number of hops required. OSPFv3 is an IPv6 routing protocol that allows routers to exchange routing information and calculate the shortest path to a destination based on the state of the network links and EIGRPv6 is an IPv6 routing protocol that allows routers to exchange routing information and calculate the shortest path to a destination using both distance-vector and link-state algorithms. The paper "A Comparative Study on Routing Protocols: RIPng, OSPFv3 and EIGRPv6 and Their Analysis Using GNS-3" presents a comparative study on the performance of RIPng, OSPFv3, and EIGRPv6, which are the IPv6 routing protocols equivalent to RIP, OSPF, and EIGRP in IPv4 networks.

Performance Evaluation Of OSPFv3 Routing Protocol On IPv6 Heterogeneous Network

2018

IPv6 also known as next generation protocol has abundant address space and various advance features to meet varying demands of present and future networks. Once migrated to IPv6, OSPFv3 an IPv6 based Routing Protocol will be first choice among various users to replace its predecessor IPv4 based OSPv2 Routing Protocol. Internet protocol (IP) traffic follows rules established by routing protocols, such as open shortest path first (OSPF). Each router computes shortest paths using weights assigned by the network operator, and creates destination tables used to direct each IP packet to the next router on the path to its final destination. Furthermore, the routing protocol is used to establish procedures to be taken in case of a failure in the network. In this paper, a new genetic algorithm for designing a network with minimal total link capacity is introduced which is necessary to route without overload in case of any single edge or node failure. The real time environment approaches a lo...