Now we continue to have a chapter-to-chapter revision for the CCENT/CCNA Icnd1 to help us retail the knowledge gathered so far. The quiz below is for chapter 16 and 17 and is designed to keep you on your feet. Take it up and keep an eye out for a quiz on the next ones.
The outgoing interface associated with the route must be in an “up and up” state.
The router must receive a routing update from a neighboring router.
The ip route command must be added to the configuration.
The outgoing interface’s ip address command must use the special keyword.
Ip route 10.1.3.0 255.255.255.0 10.1.130.253
Ip route 10.1.3.0 serial 0
Ip route 10.1.3.0 /24 10.1.130.253
Ip route 10.1.3.0 /24 serial 0
RIP
IGRP
EIGRP
OSPF
RIP
RIP-2
OSPF
EIGRP
Integrated IS-IS
RIP
RIP-2
EIGRP
OSPF
Integrated IS-IS
Router rip
Network 10.1.1.1
Version 2
Network 10.0.0.0
Network 11.0.0.0
Network 10.0.0.0
Network 10.1.1.0 10.1.2.0
Network 10.1.1.1. 10.1.2.1
Network 10.1.0.0 255.255.0.0
You cannot do this with only one network command.
Show ip
Show ip protocol
Show ip routing-protocols
Show ip route
Show ip route neighbor
The administrative distance is 1.
The administrative distance is 120.
The metric is 1.
The router added this route to the routing table 13 seconds ago.
The router must wait 13 seconds before advertising this route again.
Tracert
Ipconfig /all
Arp –a
Ipconfig /displaydns
The command would be rejected, and the R1 CLI command prompt would be displayed again.
The CLI user would be connected to a suspended Telnet connection to the router with IP address 10.1.1.1.
The CLI user would be connected to a suspended Telnet connection to the router with IP address 10.1.2.1.
The result cannot be accurately predicted from the information shown.
If PC1 issued a ping 10.1.1.130 command, PC1 would use ARP to learn PC3’s MAC addres.
If PC3 issued a ping 10.1.1.10 command, PC3 would ARP trying to learn PC1’s MAC address.
If PC1 issued a ping 10.1.13.1 command, PC1 would ARP trying to learn the MAC address of 10.1.13.1.
If R1 issued a ping 10.1.1.130 command, R1 would ARP trying to learn the MAC address of 10.1.1.130.
A ping 10.1.1.1 command on PC1 did not succeed.
A ping 10.1.13.3 command from PC1 succeeded, but a ping 172.16.2.4 did not.
A ping 10.1.1.1 command from PC1 succeeded, but a ping 10.1.13.1 did not.
A ping 10.1.1.10 command from PC1 succeeded.
10.1.1.10
10.1.1.1
10.1.13.1
10.1.13.3
172.16.2.4
An entry on PC1’s ARP cache for IP address 172.16.2.7
An entry on PC1’s ARP cache for IP address 10.1.1.1
An entry on R1’s ARP cache for IP address 10.1.1.10
An entry on R1’s ARP cache for IP address 172.16.2.7
The frame going left-to-right, as it crosses the left-side LAN, has a destination MAC address of R1’s MAC address.
The frame going left-to-right, as it crosses the right-side LAN, has a destination MAC address of R2’s MAC address.
The frame going left-to-right, as it crosses the serial link, has a destination IP address of PC2’s IP address.
The frame going right-to-left, as it crosses the left-side LAN, has a source MAC address of PC2’s MAC address.
The frame going right-to-left, as it crosses the right-side LAN, has a source MAC address of PC2’s MAC address.
Wait!
Here's an interesting quiz for you.