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Figure 7-2: RJ-45 straight-through cable pinout CiscoView (covered in 8) provides a physical representation of the front panel of the hub, shown in Figure 7-3 Here you can see the 16 available ports, as well as the uplink port described earlier

This can be written in an abstract form as F ( s) = L { f (t )} (86)

Once you understand how data moves along the wire, the next question becomes this: how does the network get the right data to the right system All networks transmit data by breaking whatever is moving across the physical layer (files, print jobs, Web pages, and so forth) into discrete chunks called frames A frame is basically a container for a chunk of data moving across a network The NIC creates and sends, as well as receives and reads, these frames I like to visualize an imaginary table inside every NIC that acts as a frame creation and reading station I see frames as those pneumatic canisters you see when you go to a drive-in teller at a bank A little guy inside the network card named Nick, naturally! builds these pneumatic canisters (the frames) on the table, and then shoots them out on the wire to the hub (Figure 2-16)

Figure 7-3: Cisco Systems FastHub 216T (front view) The front of the 216T hub also provides information about hub and link status via a series of LEDs By default, the LED above each port indicates the port state, as follows: Solid green Flashing green Green/amber alternating Amber Off Active connection; no Ethernet traffic Active connection; Ethernet traffic Port is resetting or experiencing hardware problem Port has been deactivated via hub management interface No active connection (PC may be turned off, incorrect cabling may be in use, or there may be a loose connector)

NOTE A number of different frame types are used in different networks All NICs on the same network must use the same frame type or they will not be able to communicate with other NICs Here s where the MAC address becomes important Figure 2-17 shows a representation of a generic frame Even though a frame is a string of ones and zeroes, we often draw frames as a series of rectangles, each rectangle representing a part of the string of ones and zeroes You will see this type of frame representation used quite often, so you

where L { } is the Laplace transform viewed as an operator acting on the function f ( t ) Let s compute a few Laplace transforms using Eq (85) EXAMPLE 81 1t > 0 Find the Laplace transform of f (t ) = (t ), where (t ) = (see Fig 83) 0t 0 SOLUTION Inserting this function into the de ning integral in Eq (85) we nd

Our discussion of CiscoWorks for Windows will cover the two major applications: CiscoView and Configuration Builder Additional functionality for CiscoWorks for Windows is also available for purchase, in the form of these supported applications offered by Cisco: Threshold Manager Sets threshold on RMON-enabled devices StackMaker Manages switches and hubs when they are configured to be a member of a stack Flash File System Used to edit and display functionality for high-end router configuration files In addition to adding the above supporting applications, CiscoWorks for Windows can be integrated with the following network management applications: Castle Rock Computing SNMP HP OpenView Network Node Manager for Windows NT HP OpenView Professional Suite for Windows CiscoWorks for Windows can share data with these other management tools and access their database of information thereby increasing CiscoWorks's own ability to manage Cisco devices For the discussions in this section, however, we will use CiscoWorks as a stand-alone product to highlight its inherent abilities

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Before you can install the application suite, make sure the computer you choose has access to the network and sufficient resources to run CiscoWorks for Windows You don't need a supercomputer (to the extent you do for CiscoWorks2000), but beware of cast-off or secondhand machines that might not meet the following requirements: Operating system Windows 95 or NT 40 Processor 486 (Pentium @ 90MHz recommended) Graphics At least 1024 T 768 to see device images RAM 32MB Hard drive space 327MB to install (50 80MB after that) Network interface card Required unless connecting to devices via the serial port CiscoWorks for Windows is designed to interact with its environment The environment itself, then, must meet certain requirements as well, in order to gain full functionality from the tool