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Mar 12, 2018 6.4.3.3 Packet Tracer – Connect a Router to a LAN Packet Tracer – Connect a Router to a LAN (Answer Version) Answer Note: Red font color or gray highlights indicate text that appears in the Answer copy only. Topology Addressing Table Device Interface IP Address Subnet Mask Default Gateway R1 G0/0 192.168.10.1 255.255.255.0 N/A Continue reading. Free Ebooks In PDF Format PACKET TRACER NETWORK SIMULATOR CISCO PACKET TRACER FOR BEGINNERS BMW' '6 4 3 4 Packet Tracer Configuring Basic EIGRP With IPv6 June 21st, 2018 - CCNA 3 Lab 6 4 3 4 Packet Tracer Configuring Basic EIGRP With IPv6 Routing Instructions Answers Completed Free Download Pka File Completed'. Part 1: Verify Network Documentation. 6.4.3.4 Packet Tracer – Troubleshooting Default Gateway Issues Packet Tracer – Troubleshooting Default Gateway Issues (Answer Version) Answer Note: Red font color or gray highlights indicate text that appears in the Answer copy only. 6.4.3.4 Packet Tracer – Troubleshooting Default Gateway Issues.

6.4.3.4 Packet Tracer – Troubleshooting Default Gateway Issues

Packet Tracer – Troubleshooting Default Gateway Issues (Answer Version)

Answer Note: Red font color or gray highlights indicate text that appears in the Answer copy only.

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Topology

6.4.3.4 Packet Tracer – Troubleshooting Default Gateway Issues

Addressing Table

DeviceInterfaceIP AddressSubnet MaskDefault Gateway
R1G0/0192.168.10.1255.255.255.0N/A
G0/1192.168.11.1255.255.255.0N/A
S1VLAN 1192.168.10.2255.255.255.0192.168.10.1
S2VLAN 1192.168.11.2255.255.255.0192.168.11.1
PC1NIC192.168.10.10255.255.255.0192.168.10.1
PC2NIC192.168.10.11255.255.255.0192.168.10.1
PC3NIC192.168.11.10255.255.255.0192.168.11.1
PC4NIC192.168.11.11255.255.255.0192.168.11.1

Objectives

Part 1: Verify Network Documentation and Isolate Problems

Part 2: Implement, Verify, and Document Solutions

Background

For a device to communicate across multiple networks, it must be configured with an IP address, subnet mask, and a default gateway. The default gateway is used when the host wants to send a packet to a device on another network. The default gateway address is generally the router interface address attached to the local network to which the host is connected. In this activity, you will finish documenting the network. You will then verify the network documentation by testing end-to-end connectivity and troubleshooting issues. The troubleshooting method you will use consists of the following steps:

  1. Verify the network documentation and use tests to isolate problems.
  2. Determine an appropriate solution for a given problem.
  3. Implement the solution.
  4. Test to verify the problem is resolved.
  5. Document the solution.

Throughout your CCNA studies, you will encounter different descriptions of the troubleshooting method, as well as different ways to test and document issues and solutions. This is intentional. There is no set standard or template for troubleshooting. Each organization develops unique processes and documentation standards (even if that process is “we don’t have one”). However, all effective troubleshooting methodologies generally include the above steps.

Note: If you are proficient with default gateway configurations, this activity might seem more involved than it should be. You can, most likely, quickly discover and solve all the connectivity issues faster than following these procedures. However, as you proceed in your studies, the networks and problems you encounter will become increasingly more complex. In such situations, the only effective way to isolate and solve issues is to use a methodical approach such as the one used in this activity.

Part 1: Verify Network Documentation and Isolate Problems

In Part 1 of this activity, complete the documentation and perform connectivity tests to discover issues. In addition, you will determine an appropriate solution for implementation in Part 2.

Step 1: Verify the network documentation and isolate any problems.

  1. Before you can effectively test a network, you must have complete documentation. Notice in the Addressing Table that some information is missing. Complete the Addressing Table by filling in the missing default gateway information for the switches and the PCs.
  2. Test connectivity to devices on the same network. By isolating and correcting any local access issues, you can better test remote connectivity with the confidence that local connectivity is operational.

A verification plan can be as simple as a list of connectivity tests. Use the following tests to verify local connectivity and isolate any access issues. The first issue is already documented, but you must implement and verify the solution during Part 2.

Testing and Verification Documentation

TestSuccessful?IssuesSolutionVerified
PC1 to PC2NoIP address on PC1Change PC1 IP address
PC1 to S1
PC1 to R1

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Note: The table is an example; you must create your own document. You can use paper and pencil to draw a table, or you can use a text editor or spreadsheet. Consult your Answer if you need further guidance.

c. Test connectivity to remote devices (such as from PC1 to PC4) and document any problems. This is frequently referred to as end-to-end connectivity. This means that all devices in a network have the full connectivity allowed by the network policy.

Note: Remote connectivity testing may not be possible yet, because you must first resolve local connectivity issues. After you have solved those issues, return to this step and test connectivity between networks.

Step 2: Determine an appropriate solution for the problem.

  1. Using your knowledge of the way networks operate and your device configuration skills, search for the cause of the problem. For example, S1 is not the cause of the connectivity issue between PC1 and PC2. The link lights are green and no configuration on S1 would cause traffic to not pass between PC1 and PC2. So the problem must be with PC1, PC2, or both.
  2. Verify the device addressing to ensure it matches the network documentation. For example, the IP address for PC1 is incorrect as verified with the ipconfig command.
  3. Suggest a solution that you think will resolve the problem and document it. For example, change the IP address for PC1 to match the documentation.

Note: Often there is more than one solution. However, it is a troubleshooting best practice to implement one solution at a time. Implementing more than one solution could introduce additional issues in a more complex scenario.

Part 2: Implement, Verify, and Document Solutions

In Part 2 of this activity, you will implement the solutions you identified in Part 1. You will then verify the solution worked. You may need to return to Part 1 to finish isolating all the problems.

Step 1: Implement solutions to connectivity problems.

Refer to your documentation in Part 1. Choose the first issue and implement your suggested solution. For example, correct the IP address on PC1.

Step 2: Verify that the problem is now resolved.

  1. Verify your solution has solved the problem by performing the test you used to identify the problem. For example, can PC1 now ping PC2?
  2. If the problem is resolved, indicate so in your documentation. For example, in the table above, a simple checkmark would suffice in the “Verified” column.

Stpe 3: Verify that all issues are resolved.

  1. If you still have an outstanding issue with a solution that has not yet been implemented, return to Part 2, Step 1.
  2. If all your current issues are resolved, have you also resolved any remote connectivity issues (such as can PC1 ping PC4)? If the answer is no, return to Part 1, Step 1c to test remote connectivity.
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Issues

  • PC1 cannot ping PC2 because PC1 has an IP address that does not belong to the network PC1 is attached to.
  • Devices cannot ping S2 and S2 cannot ping any device because S2 is missing an IP address.
  • Remote devices cannot ping PC4 because PC4 has the wrong default gateway configured.
  • Remote devices cannot ping S1 because S1 is missing a default gateway configuration.

Suggested Scoring Rubric

TaskPossible PointsEarned Points
Complete Network Documentation20
Document Issues and Solutions45
Packet Tracer Score (Issues Resolved)35
Total Score100

Last Updated on April 21, 2018 by

6.4.3.4 Packet Tracer – Configuring Basic EIGRP with IPv6 Routing

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Packet Tracer – Configuring Basic EIGRP with IPv6 (Answer Version)

Answer Note: Red font color or Gray highlights indicate text that appears in the Answer copy only.

Topology

6.4.3.4 Packet Tracer – Configuring Basic EIGRP with IPv6 Routing

Addressing Table

DeviceInterfaceIPv6 AddressDefault Gateway
R1G0/02001:DB8:CAFE:1::1/64N/A
S0/0/02001:DB8:CAFE:A001::1/64N/A
S0/0/12001:DB8:CAFE:A003::1/64N/A
Link-localFE80::1N/A
R2G0/02001:DB8:CAFE:2::1/64N/A
S0/0/02001:DB8:CAFE:A001::2/64N/A
S0/0/12001:DB8:CAFE:A002::1/64N/A
Link-localFE80::2N/A
R3G0/02001:DB8:CAFE:3::1/64N/A
S0/0/02001:DB8:CAFE:A003::2/64N/A
S0/0/12001:DB8:CAFE:A002::2/64N/A
Link-localFE80::3N/A
PC1NIC2001:DB8:CAFE:1::3/64Fe80::1
PC2NIC2001:DB8:CAFE:2::3/64Fe80::2
PC3NIC2001:DB8:CAFE:3::3/64Fe80::3

Objectives

Part 1: Configure EIGRP for IPv6 Routing

Jadeveon clowney net worth. Part 2: Verify IPv6 EIGRP for IPv6 Routing

Scenario

In this activity, you will configure the network with EIGRP routing for IPv6. You will also assign router IDs, configure passive interfaces, verify the network is fully converged, and display routing information using show commands.

EIGRP for IPv6 has the same overall operation and features as EIGRP for IPv4. There are a few major differences between them:

  • EIGRP for IPv6 is configured directly on the router interfaces.
  • With EIGRP for IPv6, a router-id is required on each router or the routing process will not start.
  • The EIGRP for IPv6 routing process uses a “shutdown” feature.

Part 1: Configure EIGRP for IPv6 Routing

Step 1: Enable IPv6 routing on each router.

Step 2: Enable EIGRP for IPv6 routing on each router.

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The IPv6 routing process is shutdown by default. Issue a command that will enable EIGRP for IPv6 routing in R1, R2 and R3.

Enable the EIGRP process on all routers and use 1 as the Autonomous System number.

Step 3: Assign a router ID to each router.

The router IDs are as follows:

  • R1: 1.1.1.1
  • R2: 2.2.2.2
  • R3: 3.3.3.3

Step 4: Using AS 1, configure EIGRP for IPv6 on each interface.

Part 2: Verify EIGRP for IPv6 Routing

Step 1: Examine neighbor adjacencies.

Use the command show ipv6 eigrp neighbors to verify that the adjacency has been established with its neighboring routers. The link-local addresses of the neighboring routers are displayed in the adjacency table.

Step 2: Examine the IPv6 EIGRP routing table.

Use the show ipv6 route command to display the IPv6 routing table on all routers. EIGRP for IPv6 routes are denoted in the routing table with a D.

Step 3: Verify the parameters and current state of the active IPv6 routing protocol processes.

Use the command show ipv6 protocols to verify the configured parameter.

Step 4: Verify end-to-end connectivity.

PC1, PC2, and PC3 should now be able to ping each other. If not, troubleshoot your EIGRP configurations.