There are 32 binary digits in an IPv4 address.
There are 128 binary digits in an IPv6 address
IPv4 addresses are organized into four 8 bit octets 11111111. 11111111. 11111111. 11111111 each place can represent either a zero or a one. Each place has an assigned binary place value.
1s, 2s, 4s, 8s, 16, 32s, 64, and 128s place right to left and repeating in each octet.
There are 2^32 possible IP addresses = 4,294,967,296 possible addresses; or 4 billion 294 million 967 thousand 296. And they are all used up at this time.
IPv4 addresses can also be written in decimal form. If you add all the place values in a single octet (128+64-32+16+8+4+2+1) it will equal decimal 255.
IPv4 in decimal, as you will see it everywhere except class will look like this 255.255.255.255
Enough on IPv4
There are 128 binary digits in an IPv6 address. Therefore, there are 2^128 possible IPv6 addresses. That is in English is 340 undecillion, 282 decillion, 366 nonillion, 920 octillion, 938 septillion, 463 sextillion, 463 quintillion, 374 quadrillion, 607 trillion, 431 billion, 768 million, 211 thousand and 456 give or take a few.
IPv6 addresses are represented by eight groups of hexadecimal quartets (four of them) separated by colons.
Here is an example of a valid IPv6 address: 2001:cdba:0000:0000:0000:0000:3257:9652
Any four-digit group of zeroes within an IPv6 address may be reduced to a single zero or completely omitted. Consequently, the following IPv6 addresses are alike and equally valid.
2001:cdba:0000:0000:0000:0000:3257:9652
2001:cdba:0:0:0:0:3257:9652
2001:cdba::3257:9652 the omitted zeros have to occur together
2001:cdba…..can be converted to binary or decimal. Note each hex value in each quartet represents 4 binary digits.
Just examining the second quartet in the above address we have
Hex c d b a
bin 1100 .1101 .1011 .1010
Dec 12 13 11 10
IP Address consists of 32 binary digits. Class A IP addresses are the ones with the 8 most significant bits of the form (0xxxxxx) -where x represents the net ID- and the rest of the IP is host ID. A class IP address usually used in cases where the number of networks is relatively low with very large number of hosts.
An Internet Protocol(IP) address refers to a unique number assigned to each computer on the Internet.An IP address consists of four numbers, each of which contains one to three digits, with a single dot (.) separating each number or set of digits. Each of the four numbers can range from 0 to 255. Here's an example of what an IP address might look like: 78.125.0.209 .If you want to find your IP address,visit Ip-details.com .
IP address is a special order of digits which uniquelly identifying computer in network. URL is understandable name for people which corresponds to certain IP address. It's not easy for most people to remember IP address but much easier to remembers URLs which have usually really simple name which not hard to remember. You can call website either by URL or by IP address.
People often refer to the sections of a dotted decimal IP address as an octet for example, with the address 192.168.0.1, 192 is an octet, 168 is an octet, 0 is an octet and 1 is an octet. They call it this because each part of the IP address I just describes refers to 8 bits of the 32 bit IP address. Case and point: 192 = 11000000 168 = 10101000 0 = 00000000 1 = 00000001 To create the whole IP address in binary, I just put one after the other in the order they would appear in a IP address so 192.168.0.1 = 11000000101010000000000000000001. It's important to remember that every octet is 8 bits long hence why it's named an octet so, even though 0 in decimal is 0 in binary, in a IP address 0 in decimal is 00000000 in a IP address. Now that you understand how to convert a dotted decimal IP address into binary it should be clear how to change it back the other way around. Since your number is too long I am just gonna chop off the right most 1. Your first number, which is the left most 8 bits of the IP address is 10011100 which is 156 in decimal. We do this for each set of 8 bits afterwards so we would have: 10011100 = 156 00000001 = 1 11100110 = 230 00000011 = 4 This would create a final dotted decimal IP address of 156.1.230.1. Keep in mind your number is too long so I had to throw away a digit which means it may have been the wrong one and this isn't what the initial IP was supposed to be but now that you know the method you can re apply it to the proper binary IP address and see what the dotted decimal version is.
a TcP IPv4 ip address has 32 bits.
Which of the following binary sequences corresponds to the IP address 165.76.24.17
Answer: 172.16.192.160 IP address: 172.16.192.166 in binary: 10101100.00010000.11000000.10100110 Subnet mask: 255.255.255.248 in binary 11111111.11111111.11111111.11111000 get answer by ANDing answer in binary: 10101100.00010000.11000000.10100000 answer: 172.16.192.160
01000000.00100000.00010000.00001000
1111000.110.1100.11001000
11011100.11000011.10100100.01111010
IP Address consists of 32 binary digits. Class A IP addresses are the ones with the 8 most significant bits of the form (0xxxxxx) -where x represents the net ID- and the rest of the IP is host ID. A class IP address usually used in cases where the number of networks is relatively low with very large number of hosts.
11111111
Who da f%*$ knows!
Subnetwork
Dotted Decimal
An Internet Protocol(IP) address refers to a unique number assigned to each computer on the Internet.An IP address consists of four numbers, each of which contains one to three digits, with a single dot (.) separating each number or set of digits. Each of the four numbers can range from 0 to 255. Here's an example of what an IP address might look like: 78.125.0.209 .If you want to find your IP address,visit Ip-details.com .
The host portion of an IP address of all zeros indicates that you are referring to 'this network'. For example, the address 145.5.0.0 means the network 145.5