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x25

ip 193112 cisco cud pid, no Tx data PID Window size input: 2, output: 2 Packet size input: 128, output: 128 PS: 0 PR: 0 ACK: 7 Remote PR: 0 RCNT: 1 RNR: FALSE Retransmits: 0 Timer (secs): 0 Reassembly (bytes): 0 Held Fragments/Packets: 0/0 Bytes 3214/3214 Packets 64/64 Resets 0/0 RNRs 0/0 REJs 0/0 INTs 0/0 router2>sho x25 map Serial0: X121 21234567894 ip 193112 PERMANENT, BROADCAST, 1 VC: 1* Show command for router 3 router3#show x25 vc SVC 1024, State: D1, Interface: Serial0 Started 1:19:38, last input 0:00:08, output 0:01:16 Connects 21234554321 ip 193111 cisco cud pid, no Tx data PID Window size input: 2, output: 2 Packet size input: 128, output: 128

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X25 is a packet-switched network that uses a device called a Packet Assembler/ Dissembler (PAD) to connect a system to the X25 network The PAD is a device that connects to serial ports of a device and is therefore considered RS-232 compliant

Undefined protocol, refers to socket numbers RIP Cisco-specific echo packet (Ping) Error Packet IPX SPX NCP IPX NetBIOS

9:

X25 runs at layers 1, 2, and 3 of the OSI model and has transfer rates of 2 Mbps Overall this technology is fairly old and slow compared with some of today s standards Most X25 implementations communicate over analog lines

PS: 1 PR: 2 ACK: 1 Remote PR: 1 RCNT: 1 RNR: FALSE Retransmits: 0 Timer (secs): 0 Reassembly (bytes): 0 Held Fragments/Packets: 0/0 Bytes 3260/3306 Packets 65/66 Resets 0/0 RNRs 0/0 REJs 0/0 INTs 0/0 router3#show x25 map Serial0: X121 21234554321 ip 193111 PERMANENT, BROADCAST, 1 VC: 1024* router3#sho int s0 Serial0 is up, line protocol is up Hardware is HD64570 Internet address is 193112 2552552550 MTU 1500 bytes, BW 1544 Kbit, DLY 20000 usec, rely 255/255, load 1/255 Encapsulation X25, loopback not set LAPB DTE, modulo 8, k 7, N1 12056, N2 20 T1 3000, interface outage (partial T3) 0, T4 0 State CONNECT, VS 3, VR 3, Remote VR 3, Retransmissions 0 Queues: U/S frames 0, I frames 0, unack 0, retx 0 IFRAMEs 91/91 RNRs 0/0 REJs 0/0 SABM/Es 179/1 FRMRs 0/0 DISCs 0/0 X25 DTE, address 21234567894, state Rl, modulo 8, timer 0 Defaults: cisco encapsulation, idle 0, nvc 1

.

All sockets NCP process SAP process RIP process Novell NetBIOS packet Novell diagnostic packet Novell serialization packet Dynamic sockets used by workstations

Frame Relay is the digital version of X25 and is much faster than X25 Frame Relay runs at layers 1 and 2 of the OSI model and supports transfer rates as high as 50 Mbps along with features such as Quality of Service (QoS) It is a choice for WAN networking along with ATM, Broadcast ISDN (BISDN), and Cell Relay Frame Relay transmission speeds are not always constant The data packets, or frames, are sent through a packet-switching network with higher-level protocols managing error checking, such as IPX/SPX or TCP/IP Frame Relay is a highly efficient method of transmitting data using bandwidth at an optimal level, allowing for bandwidths well over X25 s 2 Mbps The nodes, which are used to route the frames in the packet-switching network, each use a routing algorithm that can help determine the efficiency of the Frame Relay network Frame Relay does send frames as variable-length packets that are not all set at the same size before transmission If the bandwidth becomes too congested, Frame Relay will drop any frames that it cannot handle This can include corrupted frames, as well as those that are unable to be delivered because the destination cannot be reached Any dropped frames must be requested for retransmission by the protocols being used When the available bandwidth is at a minimum, the source or destination can be notified to slow the transmissions to avoid overutilization of the bandwidth, which will keep packets from being dropped due to congestion Although the source or destination is requested to slow the transmissions, the transmissions do not necessarily have to be slow To determine which packets are dropped, we must first be aware of who is transmitting over the Frame Relay network Multiple companies can share a Frame Relay backbone to the Internet or between office buildings Each company pays for a specific amount of the bandwidth on the Frame Relay medium If the bandwidth is available, a company can use more bandwidth than that for which they have paid Once other companies start using their bandwidth, all the companies will be limited to the bandwidth that has been committed to them The bandwidth that each company pays for is noted by its Committed Information Rate (CIR) The CIR helps determine whether frames can be dropped when the bandwidth becomes congested.

Fiber Distributed Data Interface (FDDI)

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