Implement Spanning Tree Protocols LAN Switching and Wireless   – Chapter 5
Objectives Explain the role of redundancy in a converged network Summarize how STP works to eliminate Layer 2 loops in a converged network  Explain how the STP algorithm uses three steps to converge on a loop-free topology Implement rapid per VLAN spanning tree (rapid PVST+) in a LAN to prevent loops between redundant switches.
Explain the Role of  Redundancy  in a Converged Switched Network Describe the role redundancy in a hierarchical network
Explain the Role of  Redundancy  in a Converged Switched Network Describe how redundancy can disable a hierarchical network
Explain the Role of  Redundancy  in a Converged Switched Network Explain how Layer 2 loops occur in well managed networks
Summarize How STP works to Eliminate Layer 2 Loops in a Converged Network  Describe the STP algorithm
Summarize How STP works to Eliminate Layer 2 Loops in a Converged Network  Explain the role of the BPDU in STP
Summarize How STP works to Eliminate Layer 2 Loops in a Converged Network  Explain the role of the BID in STP
Summarize How STP works to Eliminate Layer 2 Loops in a Converged Network  Describe the how port roles support the operation of STP
Summarize How STP works to Eliminate Layer 2 Loops in a Converged Network  Describe the role of STP port states and BPDU timers in the operation of STP
Explain How the STP Algorithm Uses Three Steps to Converge on a Loop-Free Topology   Define convergence for a switched network and summarize the 3 step process STP uses to create a loop free topology
Explain How the STP Algorithm Uses Three Steps to Converge on a Loop-Free Topology   Explain the STP decision sequence is used to elect a root bridge for a network
Explain How the STP Algorithm Uses Three Steps to Converge on a Loop-Free Topology   Describe the process of electing a root port on a switch
Explain How the STP Algorithm Uses Three Steps to Converge on a Loop-Free Topology   Describe the process of electing designated ports and non-designated ports on a switch
Implement Rapid per VLAN Spanning Tree (rapid PVST+) in a LAN Summarize the features of the PVST+, RSTP and rapid PVST+ variants of STP
Implement Rapid per VLAN Spanning Tree (rapid PVST+) in a LAN Describe the features of PVST+
Implement Rapid per VLAN Spanning Tree (rapid PVST+) in a LAN Describe the features of RSTP
Implement Rapid per VLAN Spanning Tree (rapid PVST+) in a LAN Describe RSTP edge ports
Implement Rapid per VLAN Spanning Tree (rapid PVST+) in a LAN Describe the RSTP link types
Implement Rapid per VLAN Spanning Tree (rapid PVST+) in a LAN Describe the RSTP port states and port roles
Implement Rapid per VLAN Spanning Tree (rapid PVST+) in a LAN Describe how to configure rapid PVST+
Implement Rapid per VLAN Spanning Tree (rapid PVST+) in a LAN Describe how to design STP to avoid problems
Implement Rapid per VLAN Spanning Tree (rapid PVST+) in a LAN Describe how to identify and solve the key STP configuration issues
Summary Spanning Tree Protocol (STP) is used to prevent loops from being formed  on redundant networks STP uses different port states & timers to logically prevent loops There is at least one switch in a network that serves as the root bridge Root bridge is elected using information found in BPDU frames Root ports are determined by the spanning tree algorithm and are closest to the root bridge
Summary STP lengthy convergence time (50 seconds) facilitated the development of: RSTP convergence time is slightly over 6 seconds Rapid PVST+ adds VLAN support to RSTP is the preferred spanning-tree protocol on a Cisco switch  netowrk
 

Exploration lan switching_chapter5

  • 1.
    Implement Spanning TreeProtocols LAN Switching and Wireless – Chapter 5
  • 2.
    Objectives Explain therole of redundancy in a converged network Summarize how STP works to eliminate Layer 2 loops in a converged network Explain how the STP algorithm uses three steps to converge on a loop-free topology Implement rapid per VLAN spanning tree (rapid PVST+) in a LAN to prevent loops between redundant switches.
  • 3.
    Explain the Roleof Redundancy in a Converged Switched Network Describe the role redundancy in a hierarchical network
  • 4.
    Explain the Roleof Redundancy in a Converged Switched Network Describe how redundancy can disable a hierarchical network
  • 5.
    Explain the Roleof Redundancy in a Converged Switched Network Explain how Layer 2 loops occur in well managed networks
  • 6.
    Summarize How STPworks to Eliminate Layer 2 Loops in a Converged Network Describe the STP algorithm
  • 7.
    Summarize How STPworks to Eliminate Layer 2 Loops in a Converged Network Explain the role of the BPDU in STP
  • 8.
    Summarize How STPworks to Eliminate Layer 2 Loops in a Converged Network Explain the role of the BID in STP
  • 9.
    Summarize How STPworks to Eliminate Layer 2 Loops in a Converged Network Describe the how port roles support the operation of STP
  • 10.
    Summarize How STPworks to Eliminate Layer 2 Loops in a Converged Network Describe the role of STP port states and BPDU timers in the operation of STP
  • 11.
    Explain How theSTP Algorithm Uses Three Steps to Converge on a Loop-Free Topology Define convergence for a switched network and summarize the 3 step process STP uses to create a loop free topology
  • 12.
    Explain How theSTP Algorithm Uses Three Steps to Converge on a Loop-Free Topology Explain the STP decision sequence is used to elect a root bridge for a network
  • 13.
    Explain How theSTP Algorithm Uses Three Steps to Converge on a Loop-Free Topology Describe the process of electing a root port on a switch
  • 14.
    Explain How theSTP Algorithm Uses Three Steps to Converge on a Loop-Free Topology Describe the process of electing designated ports and non-designated ports on a switch
  • 15.
    Implement Rapid perVLAN Spanning Tree (rapid PVST+) in a LAN Summarize the features of the PVST+, RSTP and rapid PVST+ variants of STP
  • 16.
    Implement Rapid perVLAN Spanning Tree (rapid PVST+) in a LAN Describe the features of PVST+
  • 17.
    Implement Rapid perVLAN Spanning Tree (rapid PVST+) in a LAN Describe the features of RSTP
  • 18.
    Implement Rapid perVLAN Spanning Tree (rapid PVST+) in a LAN Describe RSTP edge ports
  • 19.
    Implement Rapid perVLAN Spanning Tree (rapid PVST+) in a LAN Describe the RSTP link types
  • 20.
    Implement Rapid perVLAN Spanning Tree (rapid PVST+) in a LAN Describe the RSTP port states and port roles
  • 21.
    Implement Rapid perVLAN Spanning Tree (rapid PVST+) in a LAN Describe how to configure rapid PVST+
  • 22.
    Implement Rapid perVLAN Spanning Tree (rapid PVST+) in a LAN Describe how to design STP to avoid problems
  • 23.
    Implement Rapid perVLAN Spanning Tree (rapid PVST+) in a LAN Describe how to identify and solve the key STP configuration issues
  • 24.
    Summary Spanning TreeProtocol (STP) is used to prevent loops from being formed on redundant networks STP uses different port states & timers to logically prevent loops There is at least one switch in a network that serves as the root bridge Root bridge is elected using information found in BPDU frames Root ports are determined by the spanning tree algorithm and are closest to the root bridge
  • 25.
    Summary STP lengthyconvergence time (50 seconds) facilitated the development of: RSTP convergence time is slightly over 6 seconds Rapid PVST+ adds VLAN support to RSTP is the preferred spanning-tree protocol on a Cisco switch netowrk
  • 26.

Editor's Notes

  • #4 Graphic 5.1.1.2
  • #5 Graphics 5.1.3.1 & 5.1.3.2
  • #6 Graphic 5.2.1.1
  • #7 Graphic 5.2.1.2
  • #8 Graphic 5.2.2.1
  • #9 Graphic 5.2.3.1
  • #10 Graphic 5.2.4.1
  • #11 Graphic 5.2.5.2
  • #12 Objective for the slide: Define convergence for a switched network and summarize the 3 step process STP uses to create a loop free topology Graphic 5.3.1.1
  • #13 Graphic 5.3.2.1
  • #14 Graphic 5.3.3.1
  • #15 Graphic 5.3.4.1 – try to put in as many of the steps as you can
  • #16 Graphic 5.4.1.1
  • #17 Graphic 5.4.2.1 & 5.4.2.2
  • #18 Graphic 5.4.3.1 (characteristics)
  • #19 Graphic 5.4.4.1
  • #20 Graphic 5.4.5.1
  • #21 Graphic 5.4.6.1 try to use all 3 but if you can’t then use the description graphic
  • #22 Graphic 5.4.7.1 try to use both the configuration commands and the example configuration. If you can’t then use the example.
  • #23 Graphic 5.4.8.4
  • #24 Graphic 5.4.9.2