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behalf of one client for a while, then saves the internal context and switches to the code for another client Unlike the overhead of full multitasking, the cost of switching between threads is low (typically only a few microseconds) Systems based on the single-server model, such as the original version of the IBM CICS TP monitor and le servers such as Novel s NetWare, successfully provided high transaction rates with limited resources However, they had problems, especially when multiple applications accessed the same database: Since all the applications run as a single process, there is no protection among them A bug in one application can affect all the other applications as well It would be best to run each application as a separate process Such systems are not suited for parallel or distributed databases, since a server process cannot execute on multiple computers at once (However, concurrent threads within a process can be supported in a shared-memory multiprocessor system) This is a serious drawback in large organizations, where parallel processing is critical for handling large workloads, and distributed data are becoming increasingly common One way to solve these problems is to run multiple application-server processes that access a common database, and to let the clients communicate with the application through a single communication process that routes requests This model is called the many-server, single-router model, illustrated in Figure 241c This model supports independent server processes for multiple applications; further, each application can have a pool of server processes, any one of which can handle a client session The request can, for example, be routed to the most lightly loaded server in a pool As before, each server process can itself be multithreaded, so that it can handle multiple clients concurrently As a further generalization, the application servers can run on different sites of a parallel or distributed database, and the communication process can handle the coordination among the processes The above architecture is also widely used in Web servers A Web server has a main process that receives HTTP requests, and then assigns the task of handling each request to a separate process (chosen from among a pool of processes) Each of the processes is itself multithreaded, so that it can handle multiple requests A more general architecture has multiple processes, rather than just one, to communicate with clients The client communication processes interact with one or more router processes, which route their requests to the appropriate server Latergeneration TP monitors therefore have a different architecture, called the many-server, many-router model, illustrated in Figure 241d A controller process starts up the other processes, and supervises their functioning Tandem Pathway is an example of the later-generation TP monitors that use this architecture Very high performance Web server systems also adopt such an architecture The detailed structure of a TP monitor appears in Figure 242 A TP monitor does more than simply pass messages to application servers When messages arrive, they may have to be queued; thus, there is a queue manager for incoming messages The queue may be a durable queue, whose entries survive system failures Using a.

ciscoasa(config)# show perfmon PERFMON STATS: Current Average Xlates 0/s 0/s Connections 0/s 2/s TCP Conns 0/s 2/s UDP Conns 0/s 0/s URL Access 0/s 2/s URL Server Req 0/s 2/s <--output omitted-->

The McGraw Hill Companies, 2001

With this command, you should focus on the URL Server Req entry, which displays the number of lookups the appliance forwarded to the web content policy server

Tuples in empl-jones (Duarte), (Estovar) (Duarte), (Estovar), (Barinsky), (Corbin) (Duarte), (Estovar), (Barinsky), (Corbin), (Alon) (Duarte), (Estovar), (Barinsky), (Corbin), (Alon)

Support programs: All issues regarding quota management including quota allocation, account assignments, and sales crediting need final resolution prior to program implementation Automation systems: Test all automation systems: data input, transaction processing, and output reporting Conduct several mock runs to fully test the automation program Provide full testing up to and including payroll file production Procedures: Have fully documented administrative procedures with workflow charts, steps, and assigned accountabilities

To help illustrate the configuration example, I ll use the network shown in Figure 7-2 This example uses Websense for a web content filtering solution Listing 7-1 focuses only on the filtering commands for this setup

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