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GPSR: Greedy Perimeter Stateless Routing for Wireless Networks
GPSR: Greedy Perimeter Stateless Routing for Wireless Networks

... Greedy forwarding’s great advantage is its reliance only on knowledge of the forwarding node’s immediate neighbors. The state required is negligible, and dependent on the density of nodes in the wireless network, not the total number of destinations in the network.1 On networks where multi-hop routi ...
GPSR: Greedy Perimeter Stateless Routing for Wireless Networks
GPSR: Greedy Perimeter Stateless Routing for Wireless Networks

... address) and position. We encode position as two four-byte floatingpoint quantities, for x and y coordinate values. To avoid synchronization of neighbors’ beacons, as observed by Floyd and Jacobson [8], we jitter each beacon’s transmission by 50% of the interval B between beacons, such that the mean ...
slides - Inria
slides - Inria

... Dijkstra  link-state routing (e.g., OSPF and IS-IS) ...
PPT
PPT

... • Very few LANs have close to 64K hosts • For electrical/LAN limitations, performance or administrative reasons ...
Every Node Is Born Equal - Academic Server| Cleveland State
Every Node Is Born Equal - Academic Server| Cleveland State

... itself to all possible destinations and they collectively constitute all-pairs shortest paths. Practically, each node keeps a subset of the paths in different forms based on the underlying routing algorithm. In AODV, each node keeps the next hop node and the number of hops to the destination. And in ...
ppt
ppt

... • Send packets from source to destination by hopping through networks • Router forms bridge from one network to another • Different packets may take different routes Lecture 9: 2-10-04 ...
Distance-vector and RIP
Distance-vector and RIP

... interfaces not next-hop routers. Why? Consider a router A, a next-hop C and a destination D and A and C connected by a broadcast network N. No other routers (eg B) on N need to know that D is reachable via A since this would give an indirection and possibly a loop. -> A applies split horizon + poiso ...
Follow this link to Chapter 10
Follow this link to Chapter 10

...  Interface between station and network node Connection oriented [External Virtual Circuit Service] Station requests logical connection (virtual circuit) All packets identified as belonging to that connection & sequentially ...
Chapter 1
Chapter 1

Document
Document

... Routing in Ad Hoc Networks  Ad Hoc Network = routers are mobile o No fixed topologies o No fixed or known neighbors o Valid paths can disappear at any time o Node = router + host o Routing quite different from routing in wired networks ...
HZ3313741379
HZ3313741379

... control algorithm using dynamically creates a new path with help of virtual routing topologies. According to our evaluation with real network topologies and traffic traces, the proposed system is able to cope almost optimally with unpredicted traffic dynamics and, as such, it constitutes a new propo ...
AZ26337342
AZ26337342

... AODV is a simple, efficient, and effective routing protocol for Mobile Ad-hoc Net-works which do not have fixed topology. AODV is a distributed algorithm using distance vector algorithms, such as the Bellman Ford algorithm. Routes are created on Demand but maintained in tables. only the routing info ...
4th Edition: Chapter 1
4th Edition: Chapter 1

Distance vector routing updates
Distance vector routing updates

... When an interface goes down, all static routes pointing out that interface are removed from the IP routing table. Likewise, when the software can no longer find a valid next hop for the address specified in the static route, then the static route is removed from the IP routing table. ...
3.3 Link spoofing attack
3.3 Link spoofing attack

... the number of hops to each destination are recorded. Each entry is marked with a sequence number assigned by the destination node. The sequence numbers enable the mobile nodes to distinguish stale routes from new ones, thereby avoiding the formation of routing loops. Routing table updates are period ...
RARP: Reverse Address Resolution Protocol
RARP: Reverse Address Resolution Protocol

... path because file transfer delays depend on the bandwidth available between the sender and the receiver. A detailed description of the TOS fields appears in Section 7.7.2 of Comer. 4. Total length (16 bits): The 16-bit total length field indicates the total number of bytes in the packet. An IP pack ...
Routing in packet switching networks
Routing in packet switching networks

Chapter 4 Routing Protocols - National Tsing Hua University
Chapter 4 Routing Protocols - National Tsing Hua University

...  Each node only needs to know its one-hop neighbors  Significantly reduce energy consumption compared to flooding Cons  Data advertisement cannot guarantee the delivery of data  If the node interested in the data are far from the source, data will not be delivered  Not good for applications req ...
Document
Document

...  Each node only needs to know its one-hop neighbors  Significantly reduce energy consumption compared to flooding Cons  Data advertisement cannot guarantee the delivery of data  If the node interested in the data are far from the source, data will not be delivered  Not good for applications req ...
Title Subtitle - School of Computing and Engineering
Title Subtitle - School of Computing and Engineering

... Between Layer 2 and Layer 3 Headers (other technologies use different approaches) ...
bgp header
bgp header

... forward information received from one AS to another AS • The entire Internet can use your network as a transit AS ...
ex2-4-o-can
ex2-4-o-can

... • Routing Information Protocol (RIP): • Metric: Hop count. • A hop count greater than 15 means that the network is unreachable. • Periodic routing updates. • Entire routing table is broadcast every 30 seconds. • Enhanced Interior Gateway Routing Protocol (EIGRP): • Cisco proprietary. • Composite met ...
Document
Document

paper template (word format) for sample
paper template (word format) for sample

Introduction
Introduction

... higher BER and losses power-constraints infrastructure-less Scale Continuous change of location (addressing?) [wired is physically based] – Connectivity function of relative positions, radio power. May be asymmetric. (spatial vs. relational graph) – other?... ...
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Routing

Routing is the process of selecting best paths in a network. In the past, the term routing also meant forwarding network traffic among networks. However, that latter function is better described as forwarding. Routing is performed for many kinds of networks, including the telephone network (circuit switching), electronic data networks (such as the Internet), and transportation networks. This article is concerned primarily with routing in electronic data networks using packet switching technology.In packet switching networks, routing directs packet forwarding (the transit of logically addressed network packets from their source toward their ultimate destination) through intermediate nodes. Intermediate nodes are typically network hardware devices such as routers, bridges, gateways, firewalls, or switches. General-purpose computers can also forward packets and perform routing, though they are not specialized hardware and may suffer from limited performance. The routing process usually directs forwarding on the basis of routing tables, which maintain a record of the routes to various network destinations. Thus, constructing routing tables, which are held in the router's memory, is very important for efficient routing. Most routing algorithms use only one network path at a time. Multipath routing techniques enable the use of multiple alternative paths.In case of overlapping/equal routes, algorithms consider the following elements to decide which routes to install into the routing table (sorted by priority):Prefix-Length: where longer subnet masks are preferred (independent of whether it is within a routing protocol or over different routing protocol)Metric: where a lower metric/cost is preferred (only valid within one and the same routing protocol)Administrative distance: where a route learned from a more reliable routing protocol is preferred (only valid between different routing protocols)Routing, in a more narrow sense of the term, is often contrasted with bridging in its assumption that network addresses are structured and that similar addresses imply proximity within the network. Structured addresses allow a single routing table entry to represent the route to a group of devices. In large networks, structured addressing (routing, in the narrow sense) outperforms unstructured addressing (bridging). Routing has become the dominant form of addressing on the Internet. Bridging is still widely used within localized environments.
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