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Distance vector This algorithm is the most common type of routing logic used today Distance vector routing is sometimes called "routing by rumor" Basically, a distance vector protocol yells out to all directly connected neighbors, "Hey guys, I know about all of these networks!" The neighbors go, "Great, let me add that to my table And, by the way, I know about all of these networks!" and so on None of the routers actually know about these networks (unless, of course, they are directly connected), they just think they know about all of the networks If one router has bad information, it passes this invalid information on to all other routers without realizing that it is wrong For this reason, distance vector protocols require complex algorithms to "doubt" any updates they hear to prevent large-scale routing loops Distance vector protocols covered in this book include Routing Information Protocol (RIP) and Interior Gateway Routing Protocol (IGRP) I also consider Enhanced IGRP (EIGRP) to be a distance vector protocol (albeit, one on steroids), but Cisco classifies it as a "balanced hybrid" (probably because distance vector has such a bad rap) Link state Link state routing logic operates on the Dykstra Shortest Path First (SPF) algorithm, and it operates a bit differently than distance vector Basically, link state protocols build a "map" of the network, so they inherently have a better idea of where everything is located than distance vector protocols do This advantage makes link state protocols much more graceful and sophisticated, but it also makes them harder to understand and implement properly Very few routing protocols use the link state logic, and the only one this book covers is Open Shortest Path First (OSPF) Balanced hybrid This algorithm is Cisco's term for EIGRP's routing logic Personally, I think Cisco just made this designation up for marketing purposes; but because they did classify it this way, I will cover it in this manner The idea behind the balanced hybrid designation is that it includes features of both distance vector and link state algorithms For instance, the core logic behind EIGRP is basically distance vector, but EIGRP transmits additional topology information in order to "map" the network, like link state The only balanced hybrid protocol discussed in this book is EIGRP.

Tunnel adapter Local Area Connection* 6: Media State : Media disconnected Connection-specific DNS Suffix :

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To assign a value to a bit-field, simply use the form you would use for any other type of structure element For example, this code fragment clears the ring field:

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Here's a quick analogy to help describe the difference in these routing logic types Pretend your routing protocol is a traveler lost in the desert, wandering in circles looking for water, and it comes across a fork in the path If it were a distance vector protocol, it would read the sign that says "water over here" and follow that path, not realizing that some kids were having fun and switched the sign If it were link state, it would take the time to look at its meticulously drawn map, and (eventually) figure out the correct path If it were balanced hybrid, it would ask for directions In addition to being classified by logic type, routing protocols are also classified by their intended use: either as an interior gateway protocol (IGP) or an exterior gateway protocol (EGP) IGPs are typically limited in the size of networks they can adequately support (although, with a little tweaking, some of them can support rather large networks); and they are, therefore, usually a bit simpler than EGPs IGPs are designed to route within autonomous systems (ASs) An AS is a fancy way of saying a network controlled by a single administrative entity LANs are a single AS, and so are most corporate WANs The Internet, however, is a collection of several ASs The AS concept is examined in more detail in later chapters EGPs are built to support huge networks An EGP's primary purpose is to route between ASs Due to the complexities involved with EGPs, they will not be covered in this book Now let's take a look at a technique to deal with the common problem of having a router make routing decisions based on information from multiple dynamic routing protocols The technique used by Cisco to combat this issue is called administrative distance, and it is described in the next section.

And here s a sample IFCONFIG output:

Administrative distance is an additional metric placed on each route to describe the "trustworthiness" of that route Because of the differences in logic and metrics among the routing protocols, if you have more than one routing protocol in use, how is a router to know which one is giving it the most correct information Cisco deals with this issue by assigning an administrative distance to each routing protocol and using that as the primary decision maker, with metric taken into account only after administrative distance has been examined To see the usefulness of this feature, let's take a look at an example both with and without the use of administrative distance Take a look at Figure 22-13 and walk through the route determination process without the use of administrative distance

statusring = 0;

eth0 Link encap:Ethernet HWaddr 00:02:b3:8a:7d:ae inet addr:192168419 Bcast:1921684255 Mask:2552552550 inet6 addr: 2001:470:bf88:1:202:b3ff:fe8a:7dae/64 Scope:Global inet6 addr: fe80::202:b3ff:fe8a:7dae/64 Scope:Link UP BROADCAST RUNNING MULTICAST MTU:1500 Metric:1 RX packets:2206320 errors:0 dropped:0 overruns:0 frame:0 TX packets:925034 errors:0 dropped:0 overruns:0 carrier:0 collisions:0 txqueuelen:1000 RX bytes:292522698 (2925 MB) TX bytes:132985596 (1329 MB) Link encap:Local Loopback inet addr:127001 Mask:255000 inet6 addr: ::1/128 Scope:Host

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