Deck 4: Ip Addressing

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Question
The decimal number 192 expressed in binary is ____.

A) 10000101
B) 11000000
C) 11010010
D) 11100100
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Question
A(n) ____ address identifies both a network and a host, so you can route communications through large networks, including the Internet.

A) ARP
B) HMAC
C) IP
D) MAC
Question
TCP/IP networks cannot use MAC addresses in communication.
Question
____ is the version of IP currently deployed on most systems today.

A) IPX
B) IP2
C) IPv6
D) IPv4
Question
____ is based on assigning IP addresses on criteria other than octet boundaries.

A) ARIN
B) IANNA
C) CIDR
D) VLSR
Question
TCP/IP hosts use the combination of the IP address and the subnet mask to determine if other addresses are local or remote.
Question
Basic routing protocols such as RIP version 1 and IGRP support VLSM.
Question
____ tell the computer or router which part of an IP address is the network portion and which part is the host portion.

A) CIDR tables
B) Summarization tables
C) Subnet masks
D) Router masks
Question
The allocation of network numbers based on CIDR has let to the depletion of IP addresses.
Question
The CIDR addressing method allows the use of a ____ to designate the number of network bits in the mask.

A) prefix
B) suffix
C) route mask
D) mask table
Question
When the host portion of an IP address is all binary ones, that address is a ____ address.

A) multicast
B) class
C) subnetwork
D) broadcast
Question
It seems that 127.0.0.1 (decimal) is the highest assignable Class A address, but that particular address range is reserved as the ____ address.

A) multicast
B) loopback
C) broadcast
D) unicast
Question
An IP address has 32 bits divided into four octets (four sets of eight binary digits).
Question
To determine how many digits are used for the network identifier, you must look at the ____, which is a required component for all IP hosts.

A) subnet mask
B) MAC mask
C) network mask
D) TCP/IP mask
Question
When the host portion of an IP address is all binary zeros, that address is the ____ identifier.

A) subnetwork
B) broadcast
C) class
D) multicast
Question
Although the base ____ numbering system seems foreign at first glance, largely due to the addition of letters, it really is an efficient way to express large numbers such as MAC and IPv6 addresses.

A) 2
B) 16
C) 20
D) 21
Question
____ broadcasts are for a specific subnet.

A) Flooded
B) Directed
C) Half-duplex
D) Full-duplex
Question
The ____ numbering system is base 16; in other words, 16 numerals are used to express any given number.

A) binary
B) decimal
C) hexadecimal
D) vigesimal
Question
IP Class ____ addresses (also known as multicast addresses) are reserved for multicasting.

A) A
B) B
C) C
D) D
Question
In a ____ world, the routing updates carry subnet mask information and allow different masks to be used on different subnets.

A) classful
B) class-dependant
C) class-based
D) classless
Question
The ____________________ devised the hierarchical IP addressing structure.
Question
____ is a transition method that encapsulates IPv6 traffic inside IPv4 packets.

A) Tunneling
B) Scheduling
C) Natting
D) Dual stack
Question
Briefly describe the hexadecimal numbering system.
Question
____ allows a single IP address to provide connectivity for many hosts and is widely used on networks of all sizes.

A) IPSec
B) NAT
C) ARP
D) CIDR
Question
____ is the most important layer 3 security protocol.

A) IPSec
B) ARP
C) DNS
D) NAT
Question
What are the standard (default) subnet masks?
Question
What are the subnetting formulas?
Question
Briefly describe Class C IP addresses.
Question
The ____ transition method involves enabling IPv6 on all routers, switches, and end nodes but not disabling IPv4-so both version 4 and version 6 stacks run at the same time.

A) scheduling
B) tunneling
C) dual stack
D) natting
Question
____________________ is the sending of a stream of data (usually audio and video) to multiple computers simultaneously.
Question
____________________ solves the design problem of basic subnetting by allowing different masks on the subnets.
Question
____________________ broadcasts are broadcasts for any subnet and use the IP address 255.255.255.255.
Question
Briefly describe the Class A IP addresses.
Question
Describe the IP broadcast address.
Question
Describe private IP ranges.
Question
The purpose of ____________________ is to allow many IP subnets to be advertised as one.
Question
____ was originally designed to address the eventual depletion of IPv4 addresses.

A) IPv6
B) IPX
C) IP2
D) IPNext
Question
Briefly describe Class B IP addresses.
Question
IPv4 networks rely on ____, which is inefficient because many hosts unnecessarily see and partially process traffic not ultimately destined for them.

A) multicasting
B) anycasting
C) unicasting
D) broadcasting
Question
What are some reasons to incorporate subnetting into an organization's network?
Question
Match between columns
four bits, which is half of a byte
OSPF
four bits, which is half of a byte
IPv6
four bits, which is half of a byte
Subnet mask
four bits, which is half of a byte
Summarization
four bits, which is half of a byte
ICANN
four bits, which is half of a byte
Nibble
four bits, which is half of a byte
ARIN
four bits, which is half of a byte
CIDR
four bits, which is half of a byte
RIP version 1
manages IP addresses in the United States
OSPF
manages IP addresses in the United States
IPv6
manages IP addresses in the United States
Subnet mask
manages IP addresses in the United States
Summarization
manages IP addresses in the United States
ICANN
manages IP addresses in the United States
Nibble
manages IP addresses in the United States
ARIN
manages IP addresses in the United States
CIDR
manages IP addresses in the United States
RIP version 1
a classless routing protocol
OSPF
a classless routing protocol
IPv6
a classless routing protocol
Subnet mask
a classless routing protocol
Summarization
a classless routing protocol
ICANN
a classless routing protocol
Nibble
a classless routing protocol
ARIN
a classless routing protocol
CIDR
a classless routing protocol
RIP version 1
indicates how much of the IP address represents the network or subnet
OSPF
indicates how much of the IP address represents the network or subnet
IPv6
indicates how much of the IP address represents the network or subnet
Subnet mask
indicates how much of the IP address represents the network or subnet
Summarization
indicates how much of the IP address represents the network or subnet
ICANN
indicates how much of the IP address represents the network or subnet
Nibble
indicates how much of the IP address represents the network or subnet
ARIN
indicates how much of the IP address represents the network or subnet
CIDR
indicates how much of the IP address represents the network or subnet
RIP version 1
the next generation of IP
OSPF
the next generation of IP
IPv6
the next generation of IP
Subnet mask
the next generation of IP
Summarization
the next generation of IP
ICANN
the next generation of IP
Nibble
the next generation of IP
ARIN
the next generation of IP
CIDR
the next generation of IP
RIP version 1
developed to slow the exhaustion of IP addresses
OSPF
developed to slow the exhaustion of IP addresses
IPv6
developed to slow the exhaustion of IP addresses
Subnet mask
developed to slow the exhaustion of IP addresses
Summarization
developed to slow the exhaustion of IP addresses
ICANN
developed to slow the exhaustion of IP addresses
Nibble
developed to slow the exhaustion of IP addresses
ARIN
developed to slow the exhaustion of IP addresses
CIDR
developed to slow the exhaustion of IP addresses
RIP version 1
also known as route aggregation
OSPF
also known as route aggregation
IPv6
also known as route aggregation
Subnet mask
also known as route aggregation
Summarization
also known as route aggregation
ICANN
also known as route aggregation
Nibble
also known as route aggregation
ARIN
also known as route aggregation
CIDR
also known as route aggregation
RIP version 1
a classful routing protocol
OSPF
a classful routing protocol
IPv6
a classful routing protocol
Subnet mask
a classful routing protocol
Summarization
a classful routing protocol
ICANN
a classful routing protocol
Nibble
a classful routing protocol
ARIN
a classful routing protocol
CIDR
a classful routing protocol
RIP version 1
a global, government-independent entity with overall responsibility for the Internet
OSPF
a global, government-independent entity with overall responsibility for the Internet
IPv6
a global, government-independent entity with overall responsibility for the Internet
Subnet mask
a global, government-independent entity with overall responsibility for the Internet
Summarization
a global, government-independent entity with overall responsibility for the Internet
ICANN
a global, government-independent entity with overall responsibility for the Internet
Nibble
a global, government-independent entity with overall responsibility for the Internet
ARIN
a global, government-independent entity with overall responsibility for the Internet
CIDR
a global, government-independent entity with overall responsibility for the Internet
RIP version 1
Question
Describe the tunneling transition to IPv6 method.
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Deck 4: Ip Addressing
1
The decimal number 192 expressed in binary is ____.

A) 10000101
B) 11000000
C) 11010010
D) 11100100
B
2
A(n) ____ address identifies both a network and a host, so you can route communications through large networks, including the Internet.

A) ARP
B) HMAC
C) IP
D) MAC
C
3
TCP/IP networks cannot use MAC addresses in communication.
False
4
____ is the version of IP currently deployed on most systems today.

A) IPX
B) IP2
C) IPv6
D) IPv4
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5
____ is based on assigning IP addresses on criteria other than octet boundaries.

A) ARIN
B) IANNA
C) CIDR
D) VLSR
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k this deck
6
TCP/IP hosts use the combination of the IP address and the subnet mask to determine if other addresses are local or remote.
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k this deck
7
Basic routing protocols such as RIP version 1 and IGRP support VLSM.
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8
____ tell the computer or router which part of an IP address is the network portion and which part is the host portion.

A) CIDR tables
B) Summarization tables
C) Subnet masks
D) Router masks
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k this deck
9
The allocation of network numbers based on CIDR has let to the depletion of IP addresses.
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10
The CIDR addressing method allows the use of a ____ to designate the number of network bits in the mask.

A) prefix
B) suffix
C) route mask
D) mask table
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k this deck
11
When the host portion of an IP address is all binary ones, that address is a ____ address.

A) multicast
B) class
C) subnetwork
D) broadcast
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k this deck
12
It seems that 127.0.0.1 (decimal) is the highest assignable Class A address, but that particular address range is reserved as the ____ address.

A) multicast
B) loopback
C) broadcast
D) unicast
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k this deck
13
An IP address has 32 bits divided into four octets (four sets of eight binary digits).
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14
To determine how many digits are used for the network identifier, you must look at the ____, which is a required component for all IP hosts.

A) subnet mask
B) MAC mask
C) network mask
D) TCP/IP mask
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15
When the host portion of an IP address is all binary zeros, that address is the ____ identifier.

A) subnetwork
B) broadcast
C) class
D) multicast
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16
Although the base ____ numbering system seems foreign at first glance, largely due to the addition of letters, it really is an efficient way to express large numbers such as MAC and IPv6 addresses.

A) 2
B) 16
C) 20
D) 21
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17
____ broadcasts are for a specific subnet.

A) Flooded
B) Directed
C) Half-duplex
D) Full-duplex
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k this deck
18
The ____ numbering system is base 16; in other words, 16 numerals are used to express any given number.

A) binary
B) decimal
C) hexadecimal
D) vigesimal
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k this deck
19
IP Class ____ addresses (also known as multicast addresses) are reserved for multicasting.

A) A
B) B
C) C
D) D
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20
In a ____ world, the routing updates carry subnet mask information and allow different masks to be used on different subnets.

A) classful
B) class-dependant
C) class-based
D) classless
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21
The ____________________ devised the hierarchical IP addressing structure.
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22
____ is a transition method that encapsulates IPv6 traffic inside IPv4 packets.

A) Tunneling
B) Scheduling
C) Natting
D) Dual stack
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k this deck
23
Briefly describe the hexadecimal numbering system.
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24
____ allows a single IP address to provide connectivity for many hosts and is widely used on networks of all sizes.

A) IPSec
B) NAT
C) ARP
D) CIDR
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k this deck
25
____ is the most important layer 3 security protocol.

A) IPSec
B) ARP
C) DNS
D) NAT
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26
What are the standard (default) subnet masks?
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27
What are the subnetting formulas?
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28
Briefly describe Class C IP addresses.
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29
The ____ transition method involves enabling IPv6 on all routers, switches, and end nodes but not disabling IPv4-so both version 4 and version 6 stacks run at the same time.

A) scheduling
B) tunneling
C) dual stack
D) natting
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k this deck
30
____________________ is the sending of a stream of data (usually audio and video) to multiple computers simultaneously.
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k this deck
31
____________________ solves the design problem of basic subnetting by allowing different masks on the subnets.
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32
____________________ broadcasts are broadcasts for any subnet and use the IP address 255.255.255.255.
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33
Briefly describe the Class A IP addresses.
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34
Describe the IP broadcast address.
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35
Describe private IP ranges.
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36
The purpose of ____________________ is to allow many IP subnets to be advertised as one.
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37
____ was originally designed to address the eventual depletion of IPv4 addresses.

A) IPv6
B) IPX
C) IP2
D) IPNext
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38
Briefly describe Class B IP addresses.
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39
IPv4 networks rely on ____, which is inefficient because many hosts unnecessarily see and partially process traffic not ultimately destined for them.

A) multicasting
B) anycasting
C) unicasting
D) broadcasting
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40
What are some reasons to incorporate subnetting into an organization's network?
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41
Match between columns
four bits, which is half of a byte
OSPF
four bits, which is half of a byte
IPv6
four bits, which is half of a byte
Subnet mask
four bits, which is half of a byte
Summarization
four bits, which is half of a byte
ICANN
four bits, which is half of a byte
Nibble
four bits, which is half of a byte
ARIN
four bits, which is half of a byte
CIDR
four bits, which is half of a byte
RIP version 1
manages IP addresses in the United States
OSPF
manages IP addresses in the United States
IPv6
manages IP addresses in the United States
Subnet mask
manages IP addresses in the United States
Summarization
manages IP addresses in the United States
ICANN
manages IP addresses in the United States
Nibble
manages IP addresses in the United States
ARIN
manages IP addresses in the United States
CIDR
manages IP addresses in the United States
RIP version 1
a classless routing protocol
OSPF
a classless routing protocol
IPv6
a classless routing protocol
Subnet mask
a classless routing protocol
Summarization
a classless routing protocol
ICANN
a classless routing protocol
Nibble
a classless routing protocol
ARIN
a classless routing protocol
CIDR
a classless routing protocol
RIP version 1
indicates how much of the IP address represents the network or subnet
OSPF
indicates how much of the IP address represents the network or subnet
IPv6
indicates how much of the IP address represents the network or subnet
Subnet mask
indicates how much of the IP address represents the network or subnet
Summarization
indicates how much of the IP address represents the network or subnet
ICANN
indicates how much of the IP address represents the network or subnet
Nibble
indicates how much of the IP address represents the network or subnet
ARIN
indicates how much of the IP address represents the network or subnet
CIDR
indicates how much of the IP address represents the network or subnet
RIP version 1
the next generation of IP
OSPF
the next generation of IP
IPv6
the next generation of IP
Subnet mask
the next generation of IP
Summarization
the next generation of IP
ICANN
the next generation of IP
Nibble
the next generation of IP
ARIN
the next generation of IP
CIDR
the next generation of IP
RIP version 1
developed to slow the exhaustion of IP addresses
OSPF
developed to slow the exhaustion of IP addresses
IPv6
developed to slow the exhaustion of IP addresses
Subnet mask
developed to slow the exhaustion of IP addresses
Summarization
developed to slow the exhaustion of IP addresses
ICANN
developed to slow the exhaustion of IP addresses
Nibble
developed to slow the exhaustion of IP addresses
ARIN
developed to slow the exhaustion of IP addresses
CIDR
developed to slow the exhaustion of IP addresses
RIP version 1
also known as route aggregation
OSPF
also known as route aggregation
IPv6
also known as route aggregation
Subnet mask
also known as route aggregation
Summarization
also known as route aggregation
ICANN
also known as route aggregation
Nibble
also known as route aggregation
ARIN
also known as route aggregation
CIDR
also known as route aggregation
RIP version 1
a classful routing protocol
OSPF
a classful routing protocol
IPv6
a classful routing protocol
Subnet mask
a classful routing protocol
Summarization
a classful routing protocol
ICANN
a classful routing protocol
Nibble
a classful routing protocol
ARIN
a classful routing protocol
CIDR
a classful routing protocol
RIP version 1
a global, government-independent entity with overall responsibility for the Internet
OSPF
a global, government-independent entity with overall responsibility for the Internet
IPv6
a global, government-independent entity with overall responsibility for the Internet
Subnet mask
a global, government-independent entity with overall responsibility for the Internet
Summarization
a global, government-independent entity with overall responsibility for the Internet
ICANN
a global, government-independent entity with overall responsibility for the Internet
Nibble
a global, government-independent entity with overall responsibility for the Internet
ARIN
a global, government-independent entity with overall responsibility for the Internet
CIDR
a global, government-independent entity with overall responsibility for the Internet
RIP version 1
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42
Describe the tunneling transition to IPv6 method.
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