1
00:00:04,480 --> 00:00:08,450
Log on to our favorite word.

2
00:00:08,880 --> 00:00:13,950
I want a goal calling hierarchical dressing.

3
00:00:15,360 --> 00:00:16,720
Why do we need it.

4
00:00:16,760 --> 00:00:25,740
Mamon scaleable just to have MAC addresses or something flat to every node out there in the world doesn't

5
00:00:25,830 --> 00:00:27,140
it can't be that way.

6
00:00:27,230 --> 00:00:29,740
It has to be structured like a pyramid.

7
00:00:30,120 --> 00:00:30,700
You can.

8
00:00:30,720 --> 00:00:33,520
You have to have some sort of skill ability.

9
00:00:33,600 --> 00:00:43,990
And that's what dressing the 32 bit address a structured as opposed to fly addressing which is not structure.

10
00:00:44,170 --> 00:00:50,920
They are the type of them Khawar by the structure approach was chosen for this capability for large

11
00:00:50,980 --> 00:00:53,140
enterprise networks.

12
00:00:53,240 --> 00:00:55,070
You can get away with it a small network.

13
00:00:55,070 --> 00:01:06,750
A lot of drastic I don't know 20 if you're not lazy 30 50 but when you start getting into the hundreds

14
00:01:07,320 --> 00:01:10,380
and definitely down dozens or hundreds of thousands.

15
00:01:10,440 --> 00:01:10,960
Yeah.

16
00:01:10,960 --> 00:01:20,430
No I know there are many ways to do take and I did it used to be called that decimal addressing that

17
00:01:20,600 --> 00:01:24,310
is called borrowed decimal whatever.

18
00:01:24,640 --> 00:01:25,710
DTN OK.

19
00:01:25,780 --> 00:01:26,450
But it doesn't.

20
00:01:26,530 --> 00:01:31,650
And you saw that when I say 1.0 there's also here's the binary form.

21
00:01:31,660 --> 00:01:32,960
Here are your offsets.

22
00:01:33,250 --> 00:01:35,870
The first two options are on 128 64.

23
00:01:35,920 --> 00:01:40,370
You add those two that makes 192 and the.

24
00:01:40,630 --> 00:01:43,060
That's the fourth force on it.

25
00:01:43,270 --> 00:01:52,250
And the second not that the on the first and third bit first third and fourth and fifth on.

26
00:01:52,450 --> 00:01:59,890
So that makes up 168 a 128 is on 32 is on the ball.

27
00:02:00,810 --> 00:02:02,150
An 8 is on.

28
00:02:02,160 --> 00:02:05,580
Now I will make 160 and then one is.

29
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This one this lonely one over here which is 1 and then 0 0.

30
00:02:09,580 --> 00:02:10,140
OK.

31
00:02:10,270 --> 00:02:14,080
And then obviously the hexadecimal number version to that.

32
00:02:14,170 --> 00:02:15,060
OK.

33
00:02:15,520 --> 00:02:16,660
Where.

34
00:02:17,050 --> 00:02:17,590
Oh my god.

35
00:02:17,590 --> 00:02:19,020
Back.

36
00:02:19,160 --> 00:02:22,140
I don't know how many years ago they give you stuff like this.

37
00:02:22,160 --> 00:02:29,090
You can convert a address to binary binary to an IP address or whatever.

38
00:02:29,180 --> 00:02:30,830
They don't do that anymore.

39
00:02:30,940 --> 00:02:33,230
You may see some IP addresses.

40
00:02:33,230 --> 00:02:34,580
So I have a calculator with you.

41
00:02:34,730 --> 00:02:38,110
Or go look at my conversion course.

42
00:02:38,180 --> 00:02:46,100
It's quick it's simple it's easy to do and you can convert any any hex number to binary to decile was

43
00:02:46,100 --> 00:02:48,560
binary as your middle raúl or whatever.

44
00:02:48,560 --> 00:02:55,640
Anyway I'll say here you will find that the IP address and hacks X-Pac for all except for IP.

45
00:02:55,700 --> 00:03:03,340
Obviously think takes a text and decimal 120 What address we have or the number.

46
00:03:03,370 --> 00:03:07,020
I got undecillion I forgot the actual name.

47
00:03:07,350 --> 00:03:11,030
And John undecillion out of addresses you know we're going to run out.

48
00:03:11,120 --> 00:03:11,990
OK.

49
00:03:12,290 --> 00:03:16,230
But you need to learn how to convert or get to my conversion course that I have.

50
00:03:16,400 --> 00:03:23,990
You can take a look at it very simple do I do it here or just courier Kiger where you go for it.

51
00:03:24,140 --> 00:03:24,650
OK.

52
00:03:24,830 --> 00:03:33,250
But the reason for hierarchical addressee is simply just that we need that 3 to be 32 bit address in

53
00:03:33,250 --> 00:03:40,940
a structure and more so I the six I of run out of IPV four because we were silly I think nobody is going

54
00:03:40,940 --> 00:03:42,010
to use the Internet.

55
00:03:42,410 --> 00:03:43,500
Yes they are.

56
00:03:43,550 --> 00:03:46,940
And when you started your IP addresses were like they were can they.

57
00:03:47,000 --> 00:03:48,830
Now we're worried about.

58
00:03:48,950 --> 00:03:52,930
Well now we got a few six which started 20 bits OK.

59
00:03:53,150 --> 00:03:56,060
Now we don't have an issue on this time.

60
00:03:56,120 --> 00:03:58,040
Undecillion addresses either.

61
00:03:58,130 --> 00:04:07,650
I remember her network is 15 quintillion addresses you can have within that network me on camera.

62
00:04:07,940 --> 00:04:15,310
And then we have ICMP BERLIJN states that had to begin to address really you duplicate address thing

63
00:04:15,440 --> 00:04:16,500
clean addresses.

64
00:04:16,810 --> 00:04:18,430
OK.

65
00:04:18,710 --> 00:04:26,290
Either way no that this is why and now we have sex is even more structured more structured the way you're

66
00:04:26,300 --> 00:04:32,230
routing tables will have to suffer us much when you have things in a structured manner.

67
00:04:32,330 --> 00:04:34,690
They can find things a lot easier.

68
00:04:34,730 --> 00:04:39,180
They don't have to look through a billion addresses to find where your.
