Implementing Layer 2 Technologies
; s0 o" e$ a+ A1 c5 dConfiguring and Troubleshooting Layer 2 Technologies
+ B' G9 D3 h/ w' f7 ^1.01 Frame Relay4 }% r; I9 d# v+ U% p$ @
1.01.1 Frame Relay Multipoint Links on a Physical Interface Using Inverse ARP5 ?& o0 d8 A! @* n
1.01.2 Frame Relay Multipoint Links on a Physical Interface Without Using Inverse ARP! g; `+ C- _! ~7 D8 ?/ O
1.01.3. Frame Relay Multipoint Link on a Subinterface Using Inverse ARP% ?% x& ?; B" d, {4 c
1.01.4. Frame Relay Multipoint Link on a Subinterface Without Using Inverse ARP
j0 i) ~( T& Z. R$ P9 Z5 ?1.01.5. Frame Relay Point-to-Point Subinterfaces5 {6 p" t) v' A
1.01.6. PVC with a Multipoint Interface on One Side and a Subinterface on the Other Side# O7 ]4 `3 n2 ?. n' r( r, M
1.01.7. Authentication on a Frame Relay Link Using PPP
0 l# t8 h8 Z/ R* `6 Y3 y1.2 Catalyst Configuration4 m0 ~3 l+ p9 H5 r
1.2.01. Trunks Using an Industry-Standard Encapsulation
$ z7 |4 u D( W7 S1.2.02. Trunks Using a Cisco Proprietary Encapsulation, }1 |+ E; W6 D$ G
1.2.03. Creating, Deleting, and Editing VLANs
5 N7 p& S% a+ { X! r4 G1.2.04. VTP in Client/Server Mode
0 g( l5 z4 [# Z. l1.2.05. VTP in Transparent Mode
8 j0 A. h9 v* U; G+ k1.2.06. VTP Authentication9 T' _; S7 H) e3 V$ j6 g- `
1.2.07. VTP Pruning
: q) H) v) D8 d1.2.08. Controlling VLANs That Cross a Trunk$ N2 E5 E6 O8 d
1.2.09. Optimizing STP by STP Timers
$ e' d9 |! ~& D# b# B, u/ t1.2.10. PortFast0 l2 U4 P2 D- i8 u, d
1.2.11. Loop Guard/ S: ]' [/ K5 i. N
1.2.12. BPDU Guard# l0 W2 J! B/ d2 b& M$ w# \! i
1.2.13. BPDU Filters" t. t8 ^/ H5 o: A& t4 H
1.2.14. UplinkFast4 B3 d' g. S4 D& ?3 z- i
1.2.15. BackboneFast0 ~% v5 Y$ x9 v. f
1.2.16. MSTP
7 s! g& `; @2 ]8 M( C) Q1.2.17. Selecting the Root Bridge for VLANs in a PVST Environment
: a- j- ^& d8 `* w! w; X: }+ @1.2.18. Selecting the Root Bridge for an MST Instance in an MST Environment
. P; J# I9 v, U9 F7 _: |1.2.19. Setting the Port Priority to Designate the Forwarding Ports
2 B( J3 l3 L' f: g3 m1.2.20. EtherChannel Using an Industry-Standard Protocol
) A- E" H1 h6 h8 D( `1.2.21. EtherChannel Using a Cisco Proprietary Protocol
% ` W# s5 z* ~1 Y4 ?1.2.22. Disabling Protocols on the EtherChannel
S- B2 L7 ?3 P$ M1 |8 i8 E1.2.23. Load-Balancing Type on the EtherChannel
9 V8 F5 @1 t& _2 n2 P5 @, B9 _1.2.24. SNMP Management on the Switch% k0 |2 `6 o D" e( H3 r
1.2.25. Telnet and SSH Management on the Switch
* o$ q" r0 K* r) o. ~, {3 s1.2.26. Controlling Inbound and Outbound Telnet on the Switch" ~5 M& R: ^" q0 L- Z8 Q4 ?
1.2.27. Regular and Smart Macros" C& U* u8 s0 w6 ?( X/ E1 t* z
1.2.28. Switch Banners
- i. y: Z9 a1 a# @; h1.2.29. UDLD+ j4 Q/ M. x3 w6 E
1.2.30. Switch Virtual Interfaces (SVIs) for IP Routing
# o5 z" K% Y- M |# ^: o1.2.31. Router on a Stick- w2 r$ _4 j% e: W( F
1.2.32. SPAN
# A# m- l; J$ t+ S2 ~! E1.2.33. RSPAN
2 ]! {: ^& Y, a$ S3 V; R1.2.34. IP Routing on the Switch Using RIPv2, EIGRP, OSPF, and BGP+ U- y" x: U% E" G
1.2.35. IP Phones to Connect to the Catalyst Switch
1 h4 [( t# D! |2 p0 l6 l. ?: G1.2.36. Dot1q Tunneling
3 b0 o g+ W5 P3 e6 ?1.3 Other Layer 2 Technologies
9 @! o/ n* J( }+ M; b; n% G8 U1.3.1. HDLC
+ J, m( c9 n( w6 J) P! @1.3.2. PPP; {4 W* F' W; _* q) C3 ` }( X
1.3.3. PPP over Ethernet! s' l) O( C+ k7 W' @: J% ?- J
2.0 Implementing IPv4
! Q* p- m/ v; [Configuring and Troubleshooting IPv4, v2 {- M0 m" V+ g5 ?5 t
2.1. IPv4 Addressing
_! R: g# F" O" o8 b2.1.1. IPv4 Addressing9 b. ~2 e7 ?/ i H2 R! _+ o
2.1.2. IPv4 Subnetting
2 F' Y) k8 E* ?, S9 k/ ]1 k2.1.3. IPv4 VLSM* E; `. ?1 E! v- x _% D
2.2. OSPFv2# B0 z+ H9 t2 y
2.2.01. OSPF on a Broadcast Multicast Access Network (Ethernet)# N- o9 ?. k. n p* j
2.2.02. OSPF over a Frame Relay Multipoint Network by Changing Network Types2 D+ @ S9 x) p- Q5 J1 @/ s& ]+ N E ^1 x
2.2.03. OSPF over a Frame Relay Multipoint Network by Using the neighbor Command
- W, d& C7 E2 I! N2.2.04. OSPF over a Frame Relay Point-to-Point Network
, U5 K6 r+ {7 |' |, v' i2.2.05. Virtual Links
! Z8 i$ E2 d7 j4 C. b& |2.2.06. Stub Areas
% n6 ^, t0 w% H' m$ q! W2.2.07. Totally Stubby Areas
8 U/ w1 u2 {% l2 Q7 T v2.2.08. NSSA Areas& q+ r R8 t+ d' p
2.2.09. NSSA and Stub Areas' ]/ G3 Z8 Q- N: O' r
2.2.10. NSSA and Totally Stubby Areas5 O' O5 a* g/ v" j
2.3. EIGRP# C0 b4 q% p$ n$ W+ h0 G! Z8 X" Q
2.3.1. Basic EIGRP
5 k7 {# f* W) H! o+ U3 ?2.3.2. Passive Interfaces
3 W- _! R2 l8 e! e$ Z) q. d* B; N( b2.3.3. EIGRP Stub on Routers and Switches. t% [$ R; M5 C% z f* ?& @- e
2.3.4. EIGRP Update—Bandwidth Control- Q2 Q4 g" d* L0 e4 r
2.3.5. Changing the Administrative Distance of EIGRP
6 M3 C: D' \$ d) d. V2.3.6. Unequal-Cost Load Balancing for EIGRP
& }5 o( e, Y# z1 I! j2.4. Filtering, Redistribution, and Summarization
0 V* y$ Q( Z6 S, r2.4.01. Route Filtering for OSPF Within the Area Using a Distribute List with an ACL and Prefix Lists
6 G& B" d8 G, C. v' @& N- [, x2.4.02. Route Filtering for OSPF Between Areas; j/ ^# A8 _8 z
2.4.03. Summarization of OSPF Routes Between Areas5 K* I' E; T8 `5 b6 R- ]
2.4.04. Summarization of External Routers Within OSPF' i* n* ]! H0 W. J, K
2.4.05. Filtering with a Distribute List Using an ACL and Prefix Lists7 X+ {7 W' m5 y- T5 @3 w
2.4.06. Using Advanced ACLs and a Prefix List for Filtering Routes& p. b1 n! D" q4 I+ @9 S B4 m
2.4.07. Summarizing Routes with EIGRP
X( o9 A& P- M2 `" T( {) k$ ~4 L2.4.08. Route Summarization for RIP9 c4 @, T# \' e% c, M0 O" Z
2.4.09. Redistribution Between OSPF and EIGRP
# E: Y; W3 e% i9 l2.4.10. Redistribution Between RIP and EIGRP
I4 M# [. Z7 S9 N2.4.11. Redistribution of Directly Connected Routes% o' I3 Q0 c/ t" D2 C
2.4.12. Redistribution of Static Routes) c* {: v' H9 B0 F' l7 b" L5 p
2.4.13. Redistribution with Filtering Using ACLs and Prefix Lists
( T# Q& S3 r- @! l( ^2.4.14. Redistribution with Filtering Using Route Tagging
/ f9 x! P4 ^7 r; X* s6 S4 c2.5. IBGP
* \& i" G* G3 N) s1 C8 c# d2.5.1. IBGP Peering- e1 h! ?0 ^8 n: [$ b: u7 Z$ B
2.5.2. Advertising Routes in BGP
. Q( T4 Q* l# b- e6 \9 R2.5.3. Next-Hop Attribute
0 ]6 l0 z1 e9 ~3 v2.5.4. Route Reflectors
' T2 R& _4 n: j$ J( M/ Q) q5 u2.5.5. Redundancy by Neighbor Relationships Based on Loopbacks( q" {7 G2 b! s- w
2.6. EBGP6 T/ R: }; Y9 c9 E2 u
2.6.1. EBGP Peering5 {- y1 `5 E, ]0 K
2.6.2. EBGP Peering Based on Loopbacks+ ^8 c) i3 z4 `1 M- y: D
2.7. BGP Advanced Features# [* Y' I9 _3 V6 g
2.7.01. Filtering Using ACLs
& o% I. _) _% b% t2.7.02. Filtering Using Prefix Lists; L) A* J% r* \' `# }
2.7.03. Filtering Using AS Path Filters
" R' M% i1 W6 C0 f: `. l2.7.04. Redistributing Connected Routes into BGP
9 w1 p& T U$ H) N: v2.7.05. Redistributing Dynamic Routing Protocols into BGP4 d% K0 P3 [3 Y' m0 ?7 Z: w- o( j1 ?
2.7.06. BGP Aggregation) v; C9 {% o6 V8 E
2.7.07. BGP Aggregation with the Summary Only Parameter4 a0 U0 P7 t5 {3 B% ]
2.7.08. BGP Aggregation with Suppress Maps
1 o. k, z5 ^, J$ y% @. h h3 g- ~2.7.09. BGP Aggregation with Unsuppress Maps. l' z" G. ]& b$ @' B
2.7.10. BGP Best-Path Selection – Weight
( W' V) p; J% A; X: U$ {2.7.11. BGP Best-Path Selection – Local Preference
* R( n3 _' \, \, Y; q9 N2.7.12. BGP Best-Path Selection – MED
1 g6 Y4 o }( c/ I6 g0 u* V0 N7 @2.7.13. BGP Communities – No-Export
$ I% g, D1 q5 P6 i# A: _0 w2.7.14. BGP Communities – No-Advertise3 N# ?- ]: z3 q& z3 s7 I+ e+ C; N
2.7.15. BGP Confederation& H- A2 u, W* h/ Q
2.7.16. BGP Local AS
% D8 h4 n" W5 n: M) ]% f2.7.17. Working with Private AS Numbers
4 T& r/ a; f7 h9 S; e& U2.7.18. Route Dampening+ t1 x4 p( }. T: }7 |
2.7.19. Conditional Advertising) W- `" R3 N2 M( D- ]
2.7.20. Peer Groups
g' F8 n" s0 t4 K& B& u3.0 Implementing IPv6/ Y( b t9 F8 I* {+ [. B$ }3 D
Configuring and Troubleshooting IPv6
+ |, f2 S W- ^4 x0 A! B3.1. IPv6" f! K- ?2 }* e3 r7 ]* i/ O A
3.1.1. IPv6 Addresses) r2 J/ F9 z: ?1 G4 R% d1 m
3.1.2. OSPFv34 c! x6 ^2 x4 b4 ~8 n3 s
3.1.3. EIGRPv6
% i$ d* j+ u. m8 @- P$ E( Y! H3 A3.1.4. IPv6 Tunneling
/ k* W# F" P: a4 ?- C3.1.5. IPv6 on a Frame Relay Network – Multipoint
4 k# l- j4 M, a- H1 p: ?3.1.6. IPv6 on a Frame Relay Network – Point-to-Point5 w1 O' f! j! r G0 ?. j" Z2 t
3.1.7. Route Filtering with a Distribute List Using an ACL and Prefix Lists
: B2 l7 _7 H$ n3 G$ E* m. r5 R: G3.1.8. Route Redistribution Between OSPFv3 and EIGRPv6
% J$ D8 _; J2 M- [4 a; G8 |4.0 Implementing MPLS. [6 K. [0 d% Z% m
Configuring and Troubleshooting MPLS8 |5 Y. s7 k& [* d( y. T; N$ `
4.1. MPLS Unicast Routing) n. G" L; Q, Y( B& L( `3 L
4.1.1. MPLS Unicast Routing Using LDP
( h/ j& V! \5 ^8 o) g4.1.2. Controlling Label Distribution
, v* v. }0 H7 F9 I' J% B9 w @7 ]4.2. MPLS VPN- y: O3 ?7 u0 [
4.2.1. MPLS VPN Using Static Routing Between PE-CE
9 g/ J) a3 D# w1 d- c; L/ W4.2.2. MPLS VPN Using EIGRP as the PE-CE Routing Protocol
' {- a {9 n1 K9 o: S Y( j. q+ p. I4.2.3. MPLS VPN Using OSPF as the PE-CE Routing Protocol
; g$ [: _' p- \& R; u5 u" Z4.2.4. MPLS VPN Using EBGP as the PE-CE Routing Protocol
( ?) b# p) O9 E3 \' K4.2.5. Controlling Route Propagation Using the Route Target with Import and Export Maps" T- ]/ l! b( s# A, j6 _$ X
4.3. VRF-Lite
7 c: D5 r! G) _9 S& o: l4.3.1. VRFs at the Customer Sites Using VRF-Lite
6 T! b5 }+ g) V- W" Y) O5.0 Implementing IP Multicast q4 Z& w2 ]1 R: \2 R4 m ~
Configuring and Troubleshooting IP Multicast* w4 ~: |# b. B1 n* B U l! q
5.1. PIM and Bidirectional PIM
/ D* t3 k6 d% K3 U ?2 V5.1.1. PIM Dense Mode& A% q5 [1 Q* L0 q, e5 A& a
5.1.2. PIM on an NMBA Network
4 ?+ ], I) k6 F( ~& q7 u5.1.3. PIM Sparse Mode – Static Rendezvous Point
" Q4 P) h# p1 h3 A5.1.4. PIM Sparse Mode – Multiple Static Rendezvous Points9 N* @% i2 a0 I* p/ c6 J* @# t
5.1.5. PIM Sparse Mode – Auto Rendezvous Point
- S" E' F: |8 G6 }+ u, J5.1.6. PIM Sparse Mode with Multiple Rendezvous Points Using the Auto Rendezvous Point
( H/ R' u, @: K5.1.7. Bidirectional PIM% l/ `& p2 `3 i, }9 b
5.2. MSDP
( w8 ]! K U5 o! ? e3 h5.2.1. MSDP
, p3 Z0 `* U5 e& E5.2.2. MSDP to an Anycast Rendezvous Point4 B' V# x% h3 r
5.3. Multicast Tools
8 ?. y; v9 a& ]- q8 q5.3.1. Multicast Rate Limiting) Y0 [2 |, \2 ?- l( r9 v e9 F2 p
5.3.2. IGMP Filtering on the Switch
; X4 L6 R2 p& ~5.3.3. Use of the Switch to Block Multicast Traffic
3 G8 e; W3 z- l7 @5.3.4. Multicasting Through a GRE Tunnel
# N. ~7 B- G M( B2 C/ w5.3.5. Multicast Helper Address
! p: _, F) [8 [% Q! ?5.4. IPv6 Multicast" x! i9 r# f$ Q
5.4.1. IPv6 Multicast Routing Using PIM
4 |# W8 g; }0 ^) O7 k5.4.2. IPv6 Multicast Listener Discovery (MLD) Protocol
8 Y2 J& j, j, R9 L, s8 d8 C6.0 Implementing Network Security& Y8 ~5 g9 q: R% w* L: {
Configuring and Troubleshooting Network Security3 \3 V# T' I6 f: Z/ _; y* j
6.1. AAA and Security Server Protocols
8 I; o6 l5 I" q' z8 c6.1.1. Use of a Router to Authenticate Against a AAA Server Using TACACS+, y/ H/ S6 S+ ^1 p2 t& k' z* N9 u
6.1.2. Use of a Router to Authenticate Against a AAA Server Using RADIUS
0 y: F/ m6 O8 P" f4 s2 W* e6.1.3. Local Privilege Authorization+ s. S. N1 U% C3 O6 F% ^
6.1.4. Accounting to a AAA Server Using TACACS+' E! U- ]0 P: o7 u" A1 `1 K. `
6.1.5. Accounting to a AAA Server Using RADIUS5 q$ Z! ]/ ]! c$ t* s3 U/ j
6.2. Access Lists& V7 b4 [% x6 ?9 ]
6.2.1. Standard Access Lists
. E9 b5 K$ [7 d! e" _, G, M6.2.2. Extended Access Lists
% ~5 T9 n) C# B- g$ n+ `( J4 q( r6.2.3. Time-Based Access Lists# G3 R1 a$ F; Q4 k: Q
6.2.4. Reflexive Access Lists. V9 ^, R- m9 X: \8 Y9 f- g
6.3. Routing Protocol Security
+ W- Y+ M; q& B2 r$ G& l2 k: r( D6.3.1. Routing Protocol Authentication for EIGRP
" k. w2 ~$ y+ d* j) Z3 ~6.3.2. Routing Protocol Authentication for OSPF – Area-Wide* [% D6 _ g# s
6.3.3. Routing Protocol Authentication for OSPF – Interface-Specific
' J8 K) ]' e0 l2 j5 U$ Y6.3.4. Routing Protocol Authentication for OSPF Virtual Links0 |7 [1 _9 C) N
6.3.5. Routing Protocol Authentication for BGP7 Z/ i% R4 N; i+ J* `0 n$ \
/ i2 F* o4 \* E, _ b |
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