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Ipv6 Address Routing With IPv4, we had the familiar setup of the first octet defining a class A, B, C or D address, which told us (along with any subnet mask applied), how to identify the network, subnetwork, and node numbers Ipv6 is somewhat different in this respect, and we shall examine those differences here In IPv6 there are three categories of address, unicast, multicast, and anycast; there is no broadcast Unicast is the same as point to point communication, a packet is sent to a specific address and no other This address corresponds to a specific interface on a device Multicast refers to the process of one packet being sent to a number of recipients This is different to broadcast With broadcasts, the packet sent is delivered to all devices on the subnet the broadcast is destined for With multicast, the option exists for only a subset of devices on the destination subnet to receive the packet The anycast option is similar to multicast; the difference is that the packet is only delivered to the first device in the anycast group that can receive the packet; it is not sent to all devices in the anycast group The convention for writing down these 128-bit addresses is to use blocks of four hexadecimal numbers separated by colons An example is given below: This is somewhat cumbersome Not so much for users, that should be using names to address hosts in any case, but for administrators that still need to type numbers in to configuration files and databases To abbreviate the notation, it will be convention to drop leading zeroes This will be useful, particularly in the early days of IPv6, when most of the address space will be filled with zeroes This convention is expanded to cover what is known as the double colon notation, which says if a double colon appears in an address, fill the address out to 128 bits by inserting the necessary number of zeroes between the double colons Here's an example: 0000:0000:0000:0000:1111:2222:3333:4444 Could be represented by: ::1111:2222:3333:4444.

4:

The Server Message Block (SMB) protocol, used primarily by Microsoft operating systems, is responsible for sharing files and printers on a system and making those resources available to SMB clients on the network SMB is an application-layer protocol that runs on top of TCP/IP, IPX, and NetBEUI and relies on those protocols for transport functionality

2514ash access-list 101 Extended IP access list 101 permit ip 101000 00255255 host 160102100 Notice the entry in bold shows the new wildcard mask that we have created The last two octets contain all binary 1 values (equivalent to decimal 255), indicating that any value may appear in the last two octets This corresponds to matching IP addresses between 101000 and 1010255255, which is the result we were looking for A point of interest is that because the entire last two octets are specified as binary 1 values in the wildcard mask, we could specify any values for these two octets in the address portion and would achieve the same results For example, we could specify the access list entry: 2514aconfig terminal 2514(config)aaccess-list 101 permit ip 101000 00255255 host 16010100 Extended IP access list 101 permit ip 101000 00255255 host 160101001

SMB is a term that is being phased out Microsoft is now using the term Common Internet File System (CIFS) instead of SMB Either way, SMB and CIFS

Ipv6 address notation also has a facility to define a prefix in the same way that IPv4 did In IPv4, the number of bits assigned to the address prefix, which determines the subnet address, could be identified by using the "slash" notation An example that assigns the first twenty-four bits of a class B (which is equivalent to a netmask of 2552552550) address to the subnet is given below: 173843/24 The same can be done with Ipv6, the following example will identify the first 64 bits as the prefix to be used in routing tables that identify individual network segments FEDC::1234:2345:2222/64 Unicast Addresses The format of a global unicast address for an Ipv6 node is shown in Fig 430 The first three bits, with value 010 identify the address as an aggregatable global unicast address The subsequent fields are all now fixed length fields that replace the Registry and the variable length provider Ids of earlier incarnations of IPv6 With 13 bits allocated to the Top Level Aggregator, there are a possible 8,192 TLA assignments This is expected to be enough to cover the necessary points of access to the core of the future Internet Each one of these TLA assignments equates in physical terms to a backbone provider, or an exchange point

are protocols responsible for allowing access to a remote file system as if it were stored on the local system in a Microsoft environment

Microsoft environments use SMB; the Network File System (NFS) is a protocol developed by Sun Microsystems that allows users to access files stored on a remote system as if it were a local resource NFS is the equivalent of SMB used in UNIX and Linux environments and is platform independent, meaning that the NFS client may be accessing a file system resource from any type of server that is an NFS server not just a Linux server NFS uses an interface that runs on top of TCP/IP networks called the Virtual File System (VFS), which is responsible for making the resource available to a local application The NFS is a file-sharing local application makes the call to the resource protocol used in UNIX and Linux as if it were a local resource, and the application environments; SMB is the file-sharing never learns that the resource is on a remote protocol in Microsoft environments system NFS makes the location and platform of the remote resource transparent to the application and users