All language subtitles for 17. EIGRP Overview & Basic Configuration

af Afrikaans
ak Akan
sq Albanian
am Amharic
ar Arabic
hy Armenian
az Azerbaijani
eu Basque
be Belarusian
bem Bemba
bn Bengali
bh Bihari
bs Bosnian
br Breton
bg Bulgarian
km Cambodian
ca Catalan
ceb Cebuano
chr Cherokee
ny Chichewa
zh-CN Chinese (Simplified)
zh-TW Chinese (Traditional)
co Corsican
hr Croatian
cs Czech
da Danish
nl Dutch
en English
eo Esperanto
et Estonian
ee Ewe
fo Faroese
tl Filipino
fi Finnish
fr French
fy Frisian
gaa Ga
gl Galician
ka Georgian
de German
el Greek
gn Guarani
gu Gujarati
ht Haitian Creole
ha Hausa
haw Hawaiian
iw Hebrew
hi Hindi
hmn Hmong
hu Hungarian
is Icelandic
ig Igbo
id Indonesian
ia Interlingua
ga Irish
it Italian
ja Japanese
jw Javanese
kn Kannada
kk Kazakh
rw Kinyarwanda
rn Kirundi
kg Kongo
ko Korean
kri Krio (Sierra Leone)
ku Kurdish
ckb Kurdish (Soranî)
ky Kyrgyz
lo Laothian
la Latin
lv Latvian
ln Lingala
lt Lithuanian
loz Lozi
lg Luganda
ach Luo
lb Luxembourgish
mk Macedonian
mg Malagasy
ms Malay
ml Malayalam
mt Maltese
mi Maori
mr Marathi
mfe Mauritian Creole
mo Moldavian
mn Mongolian
my Myanmar (Burmese)
sr-ME Montenegrin
ne Nepali
pcm Nigerian Pidgin
nso Northern Sotho
no Norwegian
nn Norwegian (Nynorsk)
oc Occitan
or Oriya
om Oromo
ps Pashto
fa Persian
pl Polish
pt-BR Portuguese (Brazil)
pt Portuguese (Portugal) Download
pa Punjabi
qu Quechua
ro Romanian
rm Romansh
nyn Runyakitara
ru Russian
sm Samoan
gd Scots Gaelic
sr Serbian
sh Serbo-Croatian
st Sesotho
tn Setswana
crs Seychellois Creole
sn Shona
sd Sindhi
si Sinhalese
sk Slovak
sl Slovenian
so Somali
es Spanish
es-419 Spanish (Latin American)
su Sundanese
sw Swahili
sv Swedish
tg Tajik
ta Tamil
tt Tatar
te Telugu
th Thai
ti Tigrinya
to Tonga
lua Tshiluba
tum Tumbuka
tr Turkish
tk Turkmen
tw Twi
ug Uighur
uk Ukrainian
ur Urdu
uz Uzbek
vi Vietnamese
cy Welsh
wo Wolof
xh Xhosa
yi Yiddish
yo Yoruba
zu Zulu
Would you like to inspect the original subtitles? These are the user uploaded subtitles that are being translated: 1 00:00:00,120 --> 00:00:06,050 Cwiek in our next section we're going to talk about the GOP protocol. 2 00:00:06,450 --> 00:00:09,600 Let's go ahead with the GOP overview. 3 00:00:11,170 --> 00:00:20,010 The GOP is an interview get the porticos suited for many different topologies and media in a well-designed 4 00:00:20,310 --> 00:00:21,170 network. 5 00:00:21,290 --> 00:00:30,180 Yet GOP scales well and provides extremely quick commercials time with minimal network traffic. 6 00:00:30,420 --> 00:00:39,920 Yeah GOP was proprietary until 2000 and 13 but it is industry standard now. 7 00:00:40,080 --> 00:00:49,440 Yeah GOP uses dule algorithm to find the best path and can make it cool or on cool load balancing and 8 00:00:49,710 --> 00:01:00,280 can provide summarization for each other and each interface with three types of tables that we see in 9 00:01:00,580 --> 00:01:10,390 GAAP terminology similar to OSPF and their neighbor topology and the running table neighbor table includes 10 00:01:10,480 --> 00:01:19,900 all neighbors that is directly connected to rather using Jappy topology table includes successor feasible 11 00:01:19,900 --> 00:01:28,750 successor and all other paths going to the target that work and the running table includes the best 12 00:01:28,750 --> 00:01:31,820 paths for the target network. 13 00:01:33,650 --> 00:01:37,810 We have five Pecka types in Europe and they are. 14 00:01:37,970 --> 00:01:38,830 Hello. 15 00:01:38,930 --> 00:01:43,830 Update Query reply and the EC knowledge. 16 00:01:44,030 --> 00:01:52,500 Hello Packards are used to discover the others which are using Jappy update records are sound. 17 00:01:52,520 --> 00:01:56,890 If only there is a change in our network topology. 18 00:01:56,930 --> 00:02:06,590 For example ifs if our link is down or if rather fails the query is the packet that asks if network 19 00:02:06,860 --> 00:02:10,540 cures on neighbor or not. 20 00:02:10,550 --> 00:02:20,070 Reply is the answer of course Packards and acknowledgement peccant acknowledge the query update and 21 00:02:20,100 --> 00:02:22,190 the reply packet's 22 00:02:24,840 --> 00:02:33,140 GOP uses different k values to determine the best path to each destination. 23 00:02:33,150 --> 00:02:36,870 The metric calculation is use 24 00:02:40,590 --> 00:02:42,270 by this formula. 25 00:02:42,300 --> 00:02:49,830 The metric calculation is made by using this formula actually and we have different all these as you 26 00:02:49,830 --> 00:02:58,990 can see these cables these are all numbers scale numbers in the metric curve calculation. 27 00:02:58,990 --> 00:03:11,450 K One is the bandwidth K-2 is the load K-3 is the delay K-4 is the reliability and K 5 is the anti-balaka 28 00:03:11,460 --> 00:03:25,050 you by default Kavan bandwidth is equal to K3 delay and they are wan and K to load is equal to K4 reliability 29 00:03:25,060 --> 00:03:35,070 and that is equal to K 5 and 2 and there are as soon as 0 and end result here is the formula of the 30 00:03:35,790 --> 00:03:39,390 metric calculation of the edge. 31 00:03:39,920 --> 00:03:42,600 This having the do logarithm. 32 00:03:42,780 --> 00:03:53,070 Yeah your P uses the fusing update algorithm to ensure that a new route is recalculated globally whenever 33 00:03:53,070 --> 00:03:56,400 it might cause a rounding loop. 34 00:03:56,400 --> 00:04:00,830 This algorithm provides Fest's cojones for yeah. 35 00:04:00,880 --> 00:04:07,550 Japie we have some terms that we are using for algorithm. 36 00:04:07,610 --> 00:04:17,380 The first term is the feasible distance feasible distance refers to Lovell's metric for the particle 37 00:04:17,380 --> 00:04:22,810 or destination and the second term is the advertised or report. 38 00:04:22,810 --> 00:04:33,440 The distance you force to the metric to a destination as advertised by a neighboring rather. 39 00:04:33,620 --> 00:04:37,280 OK let's go with another terms. 40 00:04:37,310 --> 00:04:46,460 The first term we're going to look at is the successor successor is the primary route guy's successor 41 00:04:46,460 --> 00:04:56,600 is the prime that is used for reaching 2 destination and defeasible successor is the next hope rather 42 00:04:56,600 --> 00:05:04,880 that is guaranteed not to be a part of a running loop for a particular destination and this condition 43 00:05:04,910 --> 00:05:18,810 is verified by testing administrative distance should be smaller than the feasible distance of the successor. 44 00:05:19,100 --> 00:05:25,480 All right let's take a look to do a good example for example. 45 00:05:26,140 --> 00:05:39,800 For B rather want two other three paths as you reach this network from rather one defeasible this is 46 00:05:41,210 --> 00:05:53,270 300 then one and the Edward taes this is is the distance of the neighbor and there is Tenez you can 47 00:05:53,270 --> 00:06:02,310 see it here for the path between rather 1 rather 4 which is here we can also get this network by using 48 00:06:02,310 --> 00:06:06,910 the here and four year advertised. 49 00:06:06,930 --> 00:06:12,250 This is 400 then 10 as you can see in here. 50 00:06:12,510 --> 00:06:20,280 And the answer to the feasible distance is for longer than 10 and the advertised distance this time 51 00:06:20,370 --> 00:06:36,840 is again Sam as you can see in here 300 Insan is smaller than 400 and 10 and this path are one and our 52 00:06:36,840 --> 00:06:45,660 two is the primary path for these particular destination. 53 00:06:46,020 --> 00:06:51,590 Okay let's go ahead with your periodic table and trees. 54 00:06:52,050 --> 00:06:53,030 Let's take a look. 55 00:06:53,030 --> 00:06:55,700 Sure why pure rot occiput offer. 56 00:06:55,820 --> 00:07:02,400 Are people running rather which is rather two for this scenario and we're tapping shoy route as you 57 00:07:02,400 --> 00:07:03,570 can see. 58 00:07:03,570 --> 00:07:10,750 And we have D in here as you can see which means edge. 59 00:07:11,090 --> 00:07:11,760 OK. 60 00:07:11,880 --> 00:07:14,690 It was 0 on or is there for others. 61 00:07:14,700 --> 00:07:23,060 If you're remembering this time it is D which means Japie we are running edger P and in here you're 62 00:07:23,100 --> 00:07:33,050 seeing the administrates you distance of Elijah peak which is 90 and you can see these swollen Naxa 63 00:07:33,180 --> 00:07:44,400 administrative distance and this is the feasible distance valy you and you can see the next slope in 64 00:07:44,400 --> 00:07:45,120 here. 65 00:07:45,120 --> 00:07:51,230 66 10:41 1 one which is the successor DeWyze. 67 00:07:51,250 --> 00:07:52,130 OK. 68 00:07:52,290 --> 00:07:57,400 Let's go ahead with the larger topology table entries this time. 69 00:07:57,540 --> 00:08:03,880 Here you can see on rather of three we are typing the show IP IP topology command. 70 00:08:04,320 --> 00:08:16,000 And as you can see here for example for this network 5.0 network with no one's successor with a favorable 71 00:08:16,000 --> 00:08:29,500 distance of three thousand and seventy two which means this guy says zero thirty five that five is the 72 00:08:30,050 --> 00:08:44,170 successor for the work and because of the eight minutes through distance of this that is smaller then 73 00:08:44,710 --> 00:08:49,580 the feasible distance in here the path. 74 00:08:49,650 --> 00:08:53,720 Edward why have tens zero or 34. 75 00:08:53,740 --> 00:09:01,210 That four will be the feasible successor. 76 00:09:04,760 --> 00:09:14,200 Let's go with the basic year GAAP IPV for configuration to configure any E.A.G. or Puna rather we are 77 00:09:14,200 --> 00:09:24,370 typing rather as GAAP and an X number and we're also using in year the network commands as you can see 78 00:09:24,370 --> 00:09:34,870 in Network Command enables you to GAAP on the interfaces that matched with the IP address and the wildcard 79 00:09:35,140 --> 00:09:37,030 mask as you can see. 80 00:09:37,330 --> 00:09:45,910 And each year we are also a passive interface command passive interface Gieger 0 1 that enables the 81 00:09:46,150 --> 00:09:54,580 suppression of running updates over some interfaces while it allows updates to be exchanged normally. 82 00:09:54,620 --> 00:09:56,770 Over other interface 83 00:09:59,700 --> 00:10:06,410 285 the year your peak configuration we can use the choice of porticos command. 84 00:10:07,060 --> 00:10:16,540 We can use the IP European neighbors command and church check the information about our neighbors and 85 00:10:16,570 --> 00:10:24,700 we can check the interfaces that we are using reaching our neighbor and we can see up time of the neighbor 86 00:10:24,700 --> 00:10:25,420 ship. 87 00:10:25,570 --> 00:10:34,630 And please keep in mind that we have a Maline here which is cute count that there should be zero if 88 00:10:34,630 --> 00:10:38,750 there is no problem in Jappy neighbors ship. 89 00:10:38,770 --> 00:10:42,630 Q count zero means everything is good. 90 00:10:45,370 --> 00:10:52,740 OK to where the GOP because we are also showing people what common as you know and we are eggs mind 91 00:10:52,880 --> 00:10:56,400 this out on our previous slides. 92 00:10:56,840 --> 00:11:06,560 And let's go have the basic Elijah or P IPV 6 configuration to country during the year GOP IP version 93 00:11:06,560 --> 00:11:10,770 6 rather ID is required. 94 00:11:11,000 --> 00:11:17,890 So the first thing we are going to do is typing the IP version 6 unicast to our command again. 95 00:11:18,200 --> 00:11:28,130 Then we are typing I PVC's rather Elijah P and the S number again then we are defining our rather right 96 00:11:28,130 --> 00:11:35,030 in here as you can see after we are doing the same thing with the oil spill. 97 00:11:35,050 --> 00:11:44,030 And we are getting into the interface mode and typing IPV 6 year GAAP and the S number and that is we 98 00:11:44,030 --> 00:11:53,640 are just enabling the edge Arpey under the related interface and fool for with Kishan we can use again 99 00:11:53,940 --> 00:12:05,370 short Peavey's six protocols sure why six GOP neighbors and meteor's sure IPV six route commands. 10613

Can't find what you're looking for?
Get subtitles in any language from opensubtitles.com, and translate them here.