11.7.5 Packet Tracer – Subnetting Scenario Answers Full 100% 2023 2024

This is Cisco 11.7.5 Packet Tracer – Subnetting Scenario Answers Full 100% 2023 2024 for Cisco CCNA 1 v7 ITN v7.02.

   CCNA 1 v7 & ITN 7.02   
Final Exam Answers
CCNA 1 7.02 - Modules 11 - 13
Modules 11 - 13 Exam Answers Online Test
CCNA 1 7.02 - Modules 14 - 15
Modules 14 - 15 Exam Answers Online Test
CCNA 1 ITN v7.02 - Packet Tracer Activities Answers & Solutions
11.5.5 Packet Tracer – Subnet an IPv4 Network Answers
11.7.5 Packet Tracer – Subnetting Scenario Answers
11.9.3 Packet Tracer – VLSM Design and Implementation Practice Answers
11.10.1 Packet Tracer – Design and Implement a VLSM Addressing Scheme Answers
11.10.2 Packet Tracer – Design and Implement a VLSM Addressing Scheme – Physical Mode
12.6.6 Packet Tracer – Configure IPv6 Addressing Answers
12.9.1 Packet Tracer – Implement a Subnetted IPv6 Addressing Scheme Answers
12.9.2 Packet Tracer – Configure IPv6 Addresses on Network Devices – Physical Mode Answers
13.2.6 Packet Tracer – Verify IPv4 and IPv6 Addressing Answers
13.2.7 Packet Tracer – Use Ping and Traceroute to Test Network Connectivity Answers
13.3.1 Packet Tracer – Use ICMP to Test and Correct Network Connectivity Answers
13.3.2 Packet Tracer – Use Ping and Traceroute to Test Network Connectivity – Physical Mode Answers
CCNA 1 ITN v7.02 - Student Lab Answers & Solutions
11.6.6 Lab – Calculate IPv4 Subnets Answers
11.10.2 Lab – Design and Implement a VLSM Addressing Scheme Answers
12.7.4 Lab – Identify IPv6 Addresses Answers
12.9.2 Lab – Configure IPv6 Addresses on Network Devices Answers
13.3.2 Lab – Use Ping and Traceroute to Test Network Connectivity Answers

Packet Tracer – Subnetting Scenario (Answers Version)

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

Addressing Table

Device

Interface

IP Address

Subnet Mask

Default Gateway

R1

G0/0

192.168.100.1

255.255.255.224

N/A

R1

G0/1

192.168.100.33

255.255.255.224

N/A

R1

S0/0/0

192.168.100.129

255.255.255.224

N/A

R2

G0/0

192.168.100.65

255.255.255.224

N/A

R2

G0/1

192.168.100.97

255.255.255.224

N/A

R2

S0/0/0

192.168.100.158

255.255.255.224

N/A

S1

VLAN 1

192.168.100.2

255.255.255.224

192.168.100.1

S2

VLAN 1

192.168.100.34

255.255.255.224

192.168.100.33

S3

VLAN 1

192.168.100.66

255.255.255.224

192.168.100.65

S4

VLAN 1

192.168.100.98

255.255.255.224

192.168.100.97

PC1

NIC

192.168.100.30

255.255.255.224

192.168.100.1

PC2

NIC

192.168.100.62

255.255.255.224

192.168.100.33

PC3

NIC

192.168.100.94

255.255.255.224

192.168.100.65

PC4

NIC

192.168.100.126

255.255.255.224

192.168.100.97

Objectives

Part 1: Design an IP Addressing Scheme

Part 2: Assign IP Addresses to Network Devices and Verify Connectivity

Scenario

In this activity, you are given the network address of 192.168.100.0/24 to subnet and provide the IP addressing for the Packet Tracer network. Each LAN in the network requires at least 25 addresses for end devices, the switch and the router. The connection between R1 to R2 will require an IP address for each end of the link.

Instructions

Part 1:  Design an IP Addressing Scheme

Step 1:  Subnet the 192.168.100.0/24 network into the appropriate number of subnets.

Questions:

  1. Based on the topology, how many subnets are needed?

5 Four for the LANs, and one for the link between the routers.

  1. How many bits must be borrowed to support the number of subnets in the topology table?

3

  1. How many subnets does this create?

8

  1. How many usable hosts does this create per subnet?

30

Note: If your answer is less than the 25 hosts required, then you borrowed too many bits.

  1. Calculate the binary value for the first five subnets. The first two subnets have been done for you.

Subnet

Network Address

Bit 7

Bit 6

Bit 5

Bit 4

Bit 3

Bit 2

Bit 1

Bit 0

0

192.168.100.

0

0

0

0

0

0

0

0

1

192.168.100.

0

0

1

0

0

0

0

0

2

192.168.100.

0

1

0

0

0

0

0

0

3

192.168.100.

0

1

1

0

0

0

0

0

4

192.168.100.

1

0

0

0

0

0

0

0

  1. Calculate the binary and decimal value of the new subnet mask.

First Octet

Second Octet

Third Octet

Mask Bit 7

Mask Bit 6

Mask Bit 5

Mask Bit 4

Mask Bit 3

Mask Bit 2

Mask Bit 1

Mask Bit 0

11111111

11111111

11111111

1

1

1

0

0

0

0

0

First Decimal Octet

Second Decimal Octet

Third Decimal Octet

Fourth Decimal Octet

255.

255.

255.

224

  1. Fill in the Subnet Table, listing the decimal value of all available subnets, the first and last usable host address, and the broadcast address. Repeat until all addresses are listed.

Note: You may not need to use all rows.

Subnet Table

Subnet Number

Subnet Address

First Usable Host Address

Last Usable Host Address

Broadcast Address

0

192.168.100.0

192.168.100.1

192.168.100.30

192.168.100.31

1

192.168.100.32

192.168.100.33

192.168.100.62

192.168.100.63

2

192.168.100.64

192.168.100.65

192.168.100.94

192.168.100.95

3

192.168.100.96

192.168.100.97

192.168.100.126

192.168.100.127

4

192.168.100.128

192.168.100.129

192.168.100.158

192.168.100.159

5

192.168.100.160

192.168.100.161

192.168.100.190

192.168.100.191

6

192.168.100.192

192.168.100.193

192.168.100.222

192.168.100.223

7

192.168.100.224

192.168.100.225

192.168.100.254

192.168.100.255

8

Blank

Blank

blank

blank

9

blank

blank

blank

blank

10

blank

blank

blank

blank

Step 2:  Assign the subnets to the network shown in the topology.

  1. Assign Subnet 0 to the LAN connected to the GigabitEthernet 0/0 interface of R1: 192.168.100.0 /27
  2. Assign Subnet 1 to the LAN connected to the GigabitEthernet 0/1 interface of R1: 192.168.100.32 /27
  3. Assign Subnet 2 to the LAN connected to the GigabitEthernet 0/0 interface of R2: 192.168.100.64 /27
  4. Assign Subnet 3 to the LAN connected to the GigabitEthernet 0/1 interface of R2: 192.168.100.96 /27
  5. Assign Subnet 4 to the WAN link between R1 to R2: 192.168.100.128 /27

Step 3:  Document the addressing scheme.

Fill in the Addressing Table using the following guidelines:

  1. Assign the first usable IP addresses in each subnet to R1 for the two LAN links and the WAN link.
  2. Assign the first usable IP addresses in each subnet to R2 for the LAN links. Assign the last usable IP address for the WAN link.
  3. Assign the second usable IP address in the attached subnets to the switches.
  4. Assign the last usable IP addresses to the PCs in each subnet.

Part 2:  Assign IP Addresses to Network Devices and Verify Connectivity

Most of the IP addressing is already configured on this network. Implement the following steps to complete the addressing configuration. EIGRP dynamic routing is already configured between R1 and R2.

Step 1:  Configure R1 LAN interfaces.

  1. Configure both LAN interfaces with the addresses from the Addressing Table.
  2. Configure the interfaces so that the hosts on the LANs have connectivity to the default gateway.

Step 2:  Configure IP addressing on S3.

  1. Configure the switch VLAN1 interface with addressing.
  2. Configure the switch with the default gateway address.

Step 3:  Configure PC4.

Configure PC4 with host and default gateway addresses.

Step 4:  Verify connectivity.

You can only verify connectivity from R1, S3, and PC4. However, you should be able to ping every IP address listed in the Addressing Table.

End of Document

Device Configs

R1

enable

configure terminal

interface GigabitEthernet0/0

 ip address 192.168.100.1 255.255.255.192

 no shutdown

interface GigabitEthernet0/1

 ip address 192.168.100.33 255.255.255.192

 no shutdown

end

S3

enable

configure terminal

interface Vlan1

 ip address 192.168.100.66 255.255.255.192

 no shutdown

ip default-gateway 192.168.0.65

end

PC4

IP address: 192.168.100.126 /27

Default gateway: 192.168.0.97

   CCNA 1 v7 & ITN 7.02   
Final Exam Answers
CCNA 1 7.02 - Modules 11 - 13
Modules 11 - 13 Exam Answers Online Test
CCNA 1 7.02 - Modules 14 - 15
Modules 14 - 15 Exam Answers Online Test
CCNA 1 ITN v7.02 - Packet Tracer Activities Answers & Solutions
11.5.5 Packet Tracer – Subnet an IPv4 Network Answers
11.7.5 Packet Tracer – Subnetting Scenario Answers
11.9.3 Packet Tracer – VLSM Design and Implementation Practice Answers
11.10.1 Packet Tracer – Design and Implement a VLSM Addressing Scheme Answers
11.10.2 Packet Tracer – Design and Implement a VLSM Addressing Scheme – Physical Mode
12.6.6 Packet Tracer – Configure IPv6 Addressing Answers
12.9.1 Packet Tracer – Implement a Subnetted IPv6 Addressing Scheme Answers
12.9.2 Packet Tracer – Configure IPv6 Addresses on Network Devices – Physical Mode Answers
13.2.6 Packet Tracer – Verify IPv4 and IPv6 Addressing Answers
13.2.7 Packet Tracer – Use Ping and Traceroute to Test Network Connectivity Answers
13.3.1 Packet Tracer – Use ICMP to Test and Correct Network Connectivity Answers
13.3.2 Packet Tracer – Use Ping and Traceroute to Test Network Connectivity – Physical Mode Answers
CCNA 1 ITN v7.02 - Student Lab Answers & Solutions
11.6.6 Lab – Calculate IPv4 Subnets Answers
11.10.2 Lab – Design and Implement a VLSM Addressing Scheme Answers
12.7.4 Lab – Identify IPv6 Addresses Answers
12.9.2 Lab – Configure IPv6 Addresses on Network Devices Answers
13.3.2 Lab – Use Ping and Traceroute to Test Network Connectivity Answers
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