CCIE Routing & Switching Advanced Technologies Class

Transcript

1	Introduction	0h 43m
2	Using the Cisco Documentation	0h 52m
3	Ethernet Overview, Layer 2 Switchports, Trunking, ISL, 802.1q, DTP	0h 47m
4	VTP, VTP Authentication, VTP Pruning	1h 02m
5	VTP Prune Eligible List, VTP Transparent, VTP Troubleshooting, Trunk Allowed List, Extended VLANs	0h 48m
6	VLAN and VTP Review	0h 19m
7	SVIs, Native Routed Interfaces, Router-on-a-Stick	0h 46m
8	Layer 2 EtherChannel, EtherChannel Load Balancing, Layer 3 EtherChannel	0h 57m
9	802.1q Tunneling, Layer 2 Protocol Tunneling, EtherChannel over 802.1q Tunneling	1h 03m
10	STP Root Bridge Election, STP Root Port Election, STP Designated Port Election, STP Priority, STP Cost, STP Port-Priority	1h 46m
11	STP Review	0h 12m
12	STP Timers, STP PortFast	0h 34m
13	STP UplinkFast	0h 11m
14	STP BackboneFast	0h 12m
15	STP BPDU Filter	0h 13m
16	STP BPDU Guard	0h 11m
17	STP Root Guard	0h 11m
18	STP Loop Guard, Unidirectional Link Detection (UDLD)	0h 11m
19	Multiple Spanning-Tree Protocol (MST)	0h 40m
20	Rapid Spanning-Tree Protocol (RSTP), Rapid-PVST	0h 18m
21	MST with Multiple Regions	0h 33m
22	Flex Links	0h 16m
23	Frame Relay	0h 39m
24	Frame Relay Configuration Part 1	0h 34m
25	Frame Relay Configuration Part 2	0h 41m
26	Frame Relay Switching	0h 27m
27	Back-to-Back Frame Relay	0h 08m
28	Frame-Relay End-to-End Keepalives	0h 18m
29	PPP, PPP PAP Authentication, PPP CHAP Authentication	0h 59m
30	PPPoFR, PPPoE	0h 40m
31	Transparent Bridging, IRB	0h 32m
32	Fallback Bridging	0h 14m
33	IP Routing Overview, Switching Paths, Static Routing	0h 42m
34	Static Routing Examples	0h 25m
35	IP Default-Gateway, IP Default-Network	0h 14m
36	On-Demand Routing (ODR)	0h 07m
37	Floating Static Routes	0h 10m
38	Backup Interface	0h 29m
39	Enhanced Object Tracking, IP SLA, Reliable Static Routing	0h 21m
40	Policy Routing	0h 43m
41	GRE Tunneling, GRE Recursive Routing Errors	0h 27m
42	Reliable Backup Interface with GRE	0h 25m
43	RIP Overview, RIP Versions, RIP Auto-Summary	0h 48m
44	RIP Split-Horizon, RIP Timers	0h 22m
45	RIP Broadcast Updates, IP Directed Broadcast, IP Broadcast-Address, Smurf Attacks, Fraggle Attacks	0h 16m
46	RIP Unicast Updates	0h 03m
47	RIP Offset-List	0h 18m
48	RIP Authentication	0h 11m
49	RIP Summarization	0h 10m
50	Prefix-Lists, RIP Distribute-List Filtering, RIP Administrative Distance Filtering	0h 48m
51	RIP Default Routing, RIP Conditional Default Routing	0h 18m
52	RIP Triggered, RIP Validate Update Source,	0h 12m
53	EIGRP Overview	0h 29m
54	EIGRP Auto-Summary	0h 07m
55	EIGRP Split-Horizon	0h 11m
56	EIGRP Update Types, EIGRP Neighbor, EIGRP Passive-Interface	0h 24m
57	EIGRP Hello-Interval, EIGRP Hold-Time	0h 05m
58	EIGRP Authentication	0h 11m
59	EIGRP Time Based Authentication	0h 25m
60	EIGRP Path Selection, EIGRP Metric Weights, EIGRP Traffic Engineering	0h 47m
61	EIGRP Unequal Cost Load Balancing, EIGRP Variance	0h 19m
62	EIGRP QUERY, EIGRP Summarization, EIGRP Leak-Map	0h 28m
63	EIGRP Stub Router Advertisement	0h 22m
64	EIGRP Default Routing	0h 13m
65	EIGRP Route Filtering	0h 11m
66	EIGRP Router-ID	0h 07m
67	Miscellaneous EIGRP Features	0h 02m
68	OSPF Overview	0h 27m
69	Establishing OSPF Adjacencies, Understanding the OSPF Database	0h 43m
70	OSPF Network Type Broadcast, OSPF DR/BDR Election, OSPF over NBMA, OSPF Network Type Non-Broadcast and Point-to-Multipoint	0h 56m
71	OSPF Network Type Point-to-Point, OSPF Network Type Mismatch	0h 13m
72	OSPF Network Type Point-to-Multipoint Non-Broadcast, OSPF Per Neighbor Cost	0h 17m
73	OSPF Network Type Loopback	0h 02m
74	OSPF Path Selection	0h 27m
75	OSPF Convergence Timers	0h 09m
76	OSPF Authentication	0h 12m
77	OSPF Summarization	0h 32m
78	OSPF Stub Areas, OSPF Totally Stubby Areas, OSPF NSSAs, OSPF Totally NSSAs	0h 40m
79	Controlling OSPF NSSA Redistribution	0h 02m
80	OSPF Type 7 to 5 Translator Election, OSPF LSA Type 3 Filter, OSPF Forwarding Address Suppression	0h 24m
81	Route Redistribution Overview	0h 36m
82	Route Redistribution Configuration & Verification, Connected Redistribution	0h 22m
83	OSPF External Path Selection, TCL PING Scripting	0h 33m
84	Routing Loops Overview, EIGRP Route Loop Prevention	0h 55m
85	Metric Based Routing Loops, Route Tagging	0h 46m
86	Administrative Distance Based Routing Loops, Debug IP Routing, IP Route Profile	0h 58m
87	BGP Overview, BGP Peering Types	0h 51m
88	Establishing BGP Peerings, EBGP Multihop, BGP Neighbor Disable Connected Check, BGP TTL Security	0h 49m
89	BGP 4-Byte ASNs	0h 20m
90	BGP Local AS, BGP Peer Groups	0h 30m
91	BGP Next-Hop Self, BGP Next-Hop Processing	0h 30m
92	BGP Route Reflectors	0h 37m
93	Large Scale BGP Route Reflectors with Clusters	0h 34m
94	BGP Confederation	0h 37m
95	BGP NLRI Advertisements, BGP Network Statement, BGP Redistribution	0h 43m
96	BGP Aggregation, BGP Aggregation & Summary-Only, BGP Aggregation & Unsuppress-Map	0h 46m
97	BGP Origin, BGP Aggregation & AS-Set, BGP Aggregation & Advertise-Map	0h 22m
98	BGP Conditional Route Injection	0h 21m
99	BGP Bestpath Selection, BGP Multipath, BGP Weight	0h 53m
100	BGP Local Preference, BGP Local Preference and Communities, BGP AS-Path Prepending,	0h 30m
101	BGP MED, BGP MED Missing As Worst, BGP Deterministic MED	0h 34m
102	BGP Communites, BGP Regular Expressions	0h 43m
103	BGP Filtering, BGP Convergence Timers, BGP Default Routing, Miscellaneous BGP Features	0h 24m
104	MPLS Overview, MPLS Label Distribution Protocol (LDP)	1h 05m
105	MPLS Tunnels, MPLS Penultimate Hop Popping (PHP)	0h 40m
106	MPLS Layer 3 VPNs Overview, VRF Lite	0h 36m
107	MPLS Layer 3 VPNs and VPNv4 BGP	1h 08m
108	MPLS Layer 3 VPN Verification & Troubleshooting	0h 49m
109	MPLS Layer 3 VPN OSPF PE-CE Routing Overview	0h 06m
110	MPLS Layer 3 VPN OSPF PE-CE Routing Path Selection & Sham-Links	2h 01m
111	MPLS Layer 3 VPN OSPF PE-CE Routing Loop Prevention & Down-Bit, OSPF Capability VRF-Lite	0h 40m
112	IPv6 Overview, IPv6 ICMPv6 ND, IPv6 over NBMA	0h 44m
113	IPv6 Routing Overview, IPv6 Static Routing	0h 28m
114	IPv6 RIPng	0h 20m
115	IPv6 EIGRPv6	0h 09m
116	IPv6 OSPFv3	0h 31m
117	MP-BGP for IPv6	0h 26m
118	IPv6 Tunneling	1h 13m
119	Multicast Overview, IGMP	0h 34m
120	PIM Overview	0h 18m
121	PIM Dense Mode	1h 03m
122	PIM Sparse Mode	0h 30m
123	PIM Sparse Mode Configuration	0h 36m
124	PIM Sparse Mode RPF & RP Troubleshooting	0h 27m
125	Auto-RP, Multicast over GRE Tunnels	0h 53m
126	Bootstrap Router (BSR), Bidirectional PIM, Source Specific Multicast (SSM)	0h 40m
127	MSDP, Anycast RP	0h 27m
128	IPv6 Multicast Routing	0h 24m
129	QoS Overview, IntServ QoS, DiffServ QoS, IP Precedence, DSCP, MQC, HQF	0h 41m
130	MQC Classification	0h 44m
131	FIFO, FQ, WFQ, CBWFQ, HQF	0h 50m
132	LLQ	0h 23m
133	WRED	0h 31m
134	Traffic Shaping, Traffic Policing	0h 40m
135	Frame Relay Traffic Shaping (FRTS)	0h 33m
136	RSVP	0h 07m
137	Catalyst 3560 QoS	1h 00m
138	IOS Security Overview, Access Lists (ACLs)	0h 58m
139	Time Based ACLs, Dynamic ACLs	0h 33m
140	Reflexive ACLs	0h 21m
141	TCP Intercept, Content Based Access Control (CBAC)	0h 34m
142	Zone Based Policy Firewall (ZBPF)	1h 09m
143	AAA, Local Authentication, Local Authorization, Role Based CLI Access	0h 43m
144	Port Security, Static CAM Entries, Storm Control, 802.1X Authentication, PACLs, RACLs, VLAN Access Maps (VACLs)	0h 48m
145	DHCP Snooping, Dynamic ARP Inspection (DAI), IP Source Guard	0h 12m
146	Protected Ports, Private VLANs	0h 25m
147	IP Services Overview, HSRP	1h 10m
148	VRRP, GLBP	0h 28m
149	NAT	0h 42m
150	DHCP, DNS	0h 30m
151	NetFlow	0h 09m
152	WCCP, Miscellaneous IP Services	0h 06m
153	System Management Overview, NTP, NTP Authentication	0h 24m
154	SNMP, RMON	0h 38m
155	Syslog, Telnet, SSH, Banners	0h 21m
156	EEM Scripting, Miscellaneous System Management	0h 26m
Total Duration		81h 59m

Slides - Diagrams

Slides - Introduction

Slides - Ethernet Switching

Slides - Advanced Ethernet Switching

Slides - Frame Relay

Slides - PPP

Slides - Transport Bridging

Slides - Redistribution

Slides - IOS Security

Slides - Layer 2 Security

Slides - IP Services

Slides - System Management

0:00:13	In our next section here, we're going to look at RIP next generation
0:00:16	or RIPng for dynamic IPv6 routing.
0:00:21	Now just like RIP version 2 this is an open standards based
0:00:24	protocol. It's defined in RFC 2080 where the vast majority of the
0:00:29	majority of it is very similar to RIP version 2
0:00:33	so it is a distance factor protocol, still uses the same
0:00:36	principles of the hop count for the metric, the split-horizon
0:00:41	for preventing loops, it does have periodic updates.
0:00:45	The transport protocol is still using UDP, the difference
0:00:48	is that now it uses UDP port 521 as opposed to 520 where previously
0:00:54	it used multicast 224.0.0.9 in IPv4, now it's using FF02::9
0:01:02	so in IPv6, the multicast prefix
0:01:06	FF02 is the equivalent of IPv4's 244.0.0
0:01:12	so it is a link local multicast where FF02::1 would be
0:01:17	all hosts. Again, that's the equivalent of the all 255s
0:01:21	FF02::2 would be all routers equivalent of 224.0.0.2
0:01:28	we'll see with OSPF we use the FF02::5 and 6
0:01:33	RIP is using the 9, EIGRP is going to use A
0:01:37	which is the equivalent of 224.0.0.10
0:01:39	so a lot of the details behind the protocols will be very similar
0:01:43	between the version 4 and the version 6 implementations
0:01:48	so again, as long as you understand how IP version 4 works
0:01:51	you can learn most of this is just a comparison between
0:01:54	the new features of the protocols.
0:01:59	Now configuration wise, RIPng is very straightforward
0:02:02	the only thing we need to do is go to the link level
0:02:04	and turn the process on
0:02:07	so in IPv6 routing there is no network statement under the
0:02:10	routing processes, we're always enabling everything at the
0:02:13	per interface level where when we define the interface process
0:02:17	it is automatically going to enable the global process.
0:02:22	The only real caveat that is different between RIPng
0:02:25	and RIP version 2 is that split-horizon is on globally
0:02:29	under the process, so if we were to run RIPng
0:02:34	on our frame relay network from Router 5 down to the spokes
0:02:38	if Router 5 wanted to accept an update in from Router 2
0:02:42	and then send this back down to the other spokes
0:02:45	it would have to disable the split-horizon process globally.
0:02:49	So it's globally under the RIP process, it is not
0:02:52	at a per link level like it is in IP version 4
0:02:59	so up to this point, I have some basic IPv6 subnets
0:03:03	that are configured on the VLAN 8 of Switch 2
0:03:06	the transit link between Router 5 and Switch 2
0:03:10	Router 5's LAN segment
0:03:12	the frame relay between 1 and 5
0:03:14	the LAN between 1 and 6
0:03:16	the LAN between 6 and Switch 1
0:03:18	and then finally the VLAN 7 interface of Switch 1
0:03:24	So let's look at enabling RIP version 2 on some of these interfaces.
0:03:27	We'll start with the connections between Router 5 and Switch 2
0:03:30	And again, our configuration is very straightforward for this.
0:03:35	So we simply go to the link level in this case on Switch 2, this
0:03:38	is VLAN 8
0:03:40	we say ipv6 rip
0:03:42	give it a locally significant process ID, so this could be
0:03:46	a name or a number we could just say ipv6 rip 1
0:03:51	enable
0:03:56	we see the other interface level features
0:03:59	we could do summarization, we could advertise a default route
0:04:02	we could change the metric which is the same as the offset list
0:04:07	we say ipv6 rip
0:04:13	1 summary address
0:04:15	so any prefix that we have installed in the RIP database
0:04:18	we can then advertise a shorter match of it.
0:04:21	So if we had two /64s we could advertise this
0:04:25	as a /63
0:04:27	The summarization logic for IPv6 is going to be identical
0:04:30	to IPv4, the only difference is that you have more bits to
0:04:34	deal with so you have to be very careful about drawing the
0:04:37	or writing the address out in binary.
0:04:42	Now again, in the actual exam you will have access to the
0:04:45	Windows Calculator so you don't have to do the hex to
0:04:47	binary and binary to hex conversions manually.
0:04:51	You can write it out if you want to and then you can use the
0:04:54	calculator to double check your work.
0:05:00	So here on Switch 2 we have the VLAN 8 interface, then we have
0:05:03	VLAN 58, we'll simply say ipv6 rip 1 enable
0:05:09	we'll do this on Router 5's Fast Ethernet 0/0
0:05:13	this is the link that goes to Switch 2
0:05:17	we have the frame relay interface that goes to Router 1
0:05:22	Router 1 has the frame relay interface that goes to Router 5
0:05:26	the LAN interface that goes to Router 6
0:05:30	and then inbound on Router 6
0:05:34	Fast Ethernet 0/0.146
0:05:38	so ideally, if the updates are working
0:05:42	and on Router 6 let's also put this under the loopback.
0:05:45	We should be able to go to Switch 2
0:05:49	and be learning the loopback of Router 6
0:05:53	this would tell us if the transport from 6 to 1
0:05:56	from 1 to 5 and from 5 to Switch 2 is working.
0:05:59	Then just like IPv4 routing, just because I have a route to
0:06:04	you doesn't necessarily mean that you have a route back to me.
0:06:07	So we would need to check this bidirectionally.
0:06:14	So let's look now on Switch 2
0:06:17	look at the show ipv6 route rip
0:06:23	we are receiving 2001:155:28::/64
0:06:28	this is the frame relay interface that is between Router 1 and Router 5
0:06:33	but right now we're not receiving the link that is
0:06:37	behind Router 1
0:06:41	so let's see what is Router 1 receiving
0:06:43	if we show ipv6 route rip
0:06:49	we are learning the routes from Switch 2
0:06:54	so this is the VLAN 8 interface of Switch 2
0:06:59	we're also not learning the loopback of Router 6
0:07:03	so we may want to look at the LAN segment between Router 1
0:07:07	and Router 6, if we show run on Fast Ethernet 0/0
0:07:15	we do have the RIP process enabled.
0:07:20	On Router 6 if we look at our LAN interface
0:07:24	we do have RIP enabled. If we show ipv6 interface
0:07:28	Fast Ethernet 0/0.146
0:07:33	it says that the joined group addresses include FF02::9
0:07:40	this tells me that I am running the RIPng process
0:07:43	on the interface because the ::9 address, that is the
0:07:47	RIPng address.
0:07:49	So it may be just that the network is converging here
0:07:52	let's again look at the show ipv6 route rip
0:07:57	so we're not getting the update from 6 to Router 1
0:08:03	On Router 6 let's look at the show ipv6 route local
0:08:07	this is going to show all my connected interfaces.
0:08:12	The difference between this and the show ip route
0:08:14	connected is that the connected is going to show
0:08:17	the prefixes where the local is going to show the actual addresses.
0:08:22	So the local address on the Ethernet is 67::6
0:08:27	whereas the prefix on that link is 67::/64
0:08:36	so we should be sending these updates out.
0:08:38	There's really not that much complex configuration
0:08:41	that goes along with it.
0:08:42	If we look at these two...
0:08:48	two LAN interfaces, we should be sending RIP out.
0:08:50	If we look at the show run include ipv6, we would want to
0:08:54	make sure that IPv6 unicast routing is actually on
0:09:00	then let's check one more time at Router 1
0:09:02	show ipv6 route rip, so we're not receiving the prefix in.
0:09:05	Ok, next step that we would want to look at for troubleshooting
0:09:08	would be the debug for RIP to see if we're actually
0:09:11	advertising that out.
0:09:14	So on Router 6, let's say debug ipv6 rip
0:09:26	We should see the periodic updates coming in from Router 1
0:09:30	and then being sent outbound from Router 6
0:09:42	So Router 6 says that we are sending the multicast
0:09:45	update out to Fast Ethernet 0/0.146
0:09:56	we have received an update in. This was from Router 1
0:10:02	so let's look at the show ipv6 route
0:10:14	so we can see Router 6 is receiving the routes and actually
0:10:17	what I should have looked at on Router 1 I was looking at just the RIP routes
0:10:20	I may have the static route configured from before
0:10:25	which I do.
0:10:26	So the key is that just like in regular IPv4 routing
0:10:30	IPv6 is using the administrative distance to figure out which routes
0:10:33	are going to get installed in the table
0:10:36	then as we saw before for IPv4 RIP and IPv4 EIGRP
0:10:41	if the route is not installed in the routing table
0:10:45	it implies what?
0:10:52	If the route is not in the routing table, it also means that you
0:10:54	cannot advertise it.
0:10:56	So Router 1 has a static route configured for the loopback of Router 6
0:11:01	This is an equal longest match to the RIP route that we are
0:11:04	receiving in.
0:11:06	So when we receive the RIP route, it doesn't go into the
0:11:08	routing table which means then we can't advertise it.
0:11:11	So I simply need to remove those
0:11:16	static IPv6 routes on Router 1
0:11:33	Once these are removed, we can say clear ipv6
0:11:39	clear ipv6 rip 1
0:11:43	that's going to flush the routes out of the table.
0:11:45	Now if we show ipv6 route rip
0:11:49	We see now we're receiving the loopback in from Router 6
0:11:58	Now notice here in the routing table that when we are receiving
0:12:01	the updates, the next hop value is pointing at the
0:12:05	link local address of the remote neighbor.
0:12:09	Again, this is going to be true of all of the dynamic
0:12:12	protocols whether it's RIP, EIGRP, OSPF or BGP
0:12:16	Now BGP is a little bit more straightforward
0:12:18	because we can simply set the next hop value to whatever we want.
0:12:21	It's simply an attribute of the update.
0:12:25	But for IGP, this would then imply that we need Layer 3
0:12:29	to Layer 2 resolution for the remote link local address.
0:12:35	Now from Router 1's perspective, when we are trying to get to
0:12:38	the loopback of Router 6, this is not really an issue because we're
0:12:41	going over Ethernet.
0:12:43	So the ICMP neighbor discovery process is automatically going to take
0:12:46	care of this for us.
0:12:48	So from Router 1 if I were to ping this address here
0:12:54	we can see that we can send traffic to Router 6
0:12:57	but if I were to go behind the frame relay cloud
0:13:02	so let's say on Switch 2
0:13:05	we're now trying to send traffic all the way from Switch 2
0:13:10	this direction to Router 6's loopback.
0:13:15	Switch 2 does have the routes installed if we
0:13:18	show ipv6 route rip
0:13:20	so we do know the 6::6
0:13:26	but the problem is now going to be when the packet is
0:13:28	routed from Switch 2 to Router 5
0:13:31	Router 5 has the route, but when it does a lookup
0:13:35	for the next hop value
0:13:37	it points to the link local address of Router 1
0:13:41	on the multipoint frame relay interface.
0:13:52	So this would then imply from Router 5's perspective
0:13:55	when we look at the show ipv6 route rip
0:14:00	if we do not have a frame relay mapping for the
0:14:02	link local address of Router 1
0:14:06	we would not be properly -- we would not be able to properly
0:14:09	encapsulate any packet going towards this link local address.
0:14:15	So again, this is another reason why we would not want to
0:14:17	use multipoint non-broadcast interfaces
0:14:21	if we had separate point-to-point sub interfaces from the hub down to
0:14:25	the spoke, from the hub down to the spokes then we would never
0:14:28	run into this problem to begin with.
0:14:33	So it means now on Router 5 I need to add a frame relay map
0:14:37	for the link local address of Router 1
0:14:39	and tell it that this is reachable out circuit 501
0:14:50	so now we can see that we have connectivity from
0:14:53	Switch 2 all the way to Router 6's loopback.
0:14:58	Also when we look at the address that was used
0:15:00	on Router 5, it's kind of hard to keep track of exactly what
0:15:05	address this is relating to
0:15:08	so in this particular case, you'll see a lot of the examples
0:15:11	in the volume 1 workbook and the volume 2 workbook
0:15:14	where we change the link local address on the NBMA
0:15:17	interface. You can do this if you want to, you don't
0:15:21	necessarily have to.
0:15:23	It's just more for the clarity of the configuration that if
0:15:26	I were to go to Router 1's point-to-point serial
0:15:32	and say the ipv6 address FE80::1 is a link local address
0:15:40	it now means that when I advertise my RIP updates to
0:15:44	Router 5
0:15:46	and I show ipv6 route rip on Router 5
0:15:53	we see that these are now being received in through the next
0:15:57	hop FE80::1
0:16:00	so I can now just tell visually that that's
0:16:03	Router 1 that's advertising that route to me.
0:16:06	Then of course this would mean I would need to change the
0:16:09	frame relay mapping
0:16:11	to point FE80::1
0:16:14	towards circuit 501
0:16:27	so we're not going to spend a ton of time on the different
0:16:29	features for the IGPs
0:16:31	if under the RIP process globally, if we say ipv6
0:16:35	router rip 1
0:16:38	you see that there's not too many features that the protocol
0:16:40	has to begin with, so we could change the administrative distance
0:16:44	we could do a distribute list for filtering.
0:16:48	We can see that this only supports the prefix list for filtering
0:16:52	because IPv6 makes the distinction between a prefix
0:16:56	list being used for routing and an access list being used
0:17:00	for a traffic filter.
0:17:02	So it's a little more obvious as to which they apply to with IPv6
0:17:06	versus IPv4
0:17:12	We have maximum paths if we wanted to do equal cost load balancing
0:17:16	we could turn poison reverse on or disable it globally
0:17:20	and I believe this is on by default.
0:17:23	We could change the port number if we wanted to
0:17:25	I'm not a 100 percent sure why you would do that, but
0:17:27	you technically can, again, this defaults to 521
0:17:32	Redistribution in IPv6 is going to be same type of logic
0:17:36	as IPv4
0:17:38	One of the caveats we'll see with this when we say
0:17:42	redistribute another protocol let's say redistribute ospf 1
0:17:49	By default, it is not going to include the connected interfaces
0:17:54	that are in the OSPF process.
0:18:00	So as we talked about before with IP version 4 redistribution
0:18:04	there's two steps that happen automatically
0:18:07	the first is that the router looks in the routing table for
0:18:10	any routes installed as OSPF
0:18:14	then it looks for any connected interfaces that are running the
0:18:16	OSPF process.
0:18:20	In the case of IPv6, it's only that first step
0:18:23	it's only looking at what are the dynamic routes learned from OSPF
0:18:27	if we want to include the connected interfaces, we can
0:18:31	but we need to specifically tell the process to do that.
0:18:39	So this would mean that if we had the RIP domain
0:18:43	between these four devices, then we were running OSPF
0:18:48	between Switch 1 and Router 6
0:18:51	so we have redistribution of RIP into OSPF on Router 6
0:18:57	it would mean that by default, the OSPF domain
0:19:00	would not have a route to this LAN segment
0:19:03	and then likewise the RIP domain would not have a route
0:19:06	to this LAN segment.
0:19:10	We can configure it to do that, we just need to simply
0:19:12	add the include connected command onto the end of the redistribution statement.
0:19:19	Now documentation wise, you'll see that there's not as many
0:19:22	features available in IPv6 yet as there are
0:19:26	in IPv4
0:19:28	so if we go to the 12.4 T configuration guide
0:19:33	then down to IPv6
0:19:35	configuration guide
0:19:39	then we see the protocols
0:19:41	the routing protocols would be RIPng
0:19:45	OSPF
0:19:48	IS-to-IS
0:19:50	EIGRP, BGP, static routing and policy routing.
0:20:00	For the RIP configuration, even if you were to look at the command
0:20:02	reference, there's really not that much that you can do with this
0:20:06	so we can do distribute list filtering, we could do route tagging
0:20:10	during redistribution
0:20:15	customizing the RIP process probably this is things like
0:20:18	changing the timers
0:20:22	the number of maximum paths
0:20:24	default information
0:20:26	so most of this is self-explanatory, you just need to simply spend
0:20:28	some time reading through the configuration guide and looking at
0:20:31	the command reference.

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CCIE Routing & Switching Advanced Technologies Class
Title:	CCIE Routing & Switching Advanced Technologies Class
Duration:	81h 59m
The CCIE Routing & Switching Advanced Technologies Class is the first step in understanding CCIE level technologies and is a companion to the Advanced Technologies Lab Workbook. Each technology you need to know for the CCIE Routing & Switching lab will be described in detail using an instructor led hands on demonstration. The class consists of over 80 hours of in depth explanations and examples.
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IPv6 RIPng

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