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data MI;"It has needs as hunger, boredom, and even the need to sleep." data MI;"These needs have priorities and only the largest current need" data MI;"is a motivator. Like a biological creature, there are inborn" data MI;"characteristics such as curiosity and a goal to satisfy the " data MI;"internal needs.","" data MI;"When a creature is born, all of the needs are present. The" data MI;"creature will explore and if a need is satisfied (by accident)" data MI;"the meters will reflect the fact. The creature will also" data MI;"remember things that give it pain or pleasure and act differently" data MI;"in the future because of its memory." data MI;"In the beginning the creature seems to roam aimlessly. However," data MI;"after an hour or so, the creature will have explored enough to " data MI;"have a good amount of memory. At that time you will see that " data MI;"the creature has learned how to satisfy needs that motivate it." data MI;"At that time, it will only roam when all the needs are low as" data MI;"indicated by the graphs. See the text for more information.","" data MI;"You can save and retrieve the memory if you wish. Currently, " data MI;"the program will automatically save its memory (in the files " data MI;"MEMORYGOOD and MEMORYBAD) when the memory size is 25, 50, and 75.","" data MI;"If memory has been saved, you can now load it by pressing the" data MI;"'Cancel' button or Esc key. Pressing 'OK' or Enter key will start" data MI;"the program with no initial memory and will build a new memory." Key = MsgBox(MI)

[Modem0] Modem = /dev/ttyS0 Baud = 57600 Init1 = ATZ SetVolume = 0 Dial Command = ATDT [Dialer Defaults] Modem = /dev/ttyS0 Baud = 57600 Init1 = ATZ SetVolume = 0 Dial Command = ATDT [Dialer myisp] Username = chris Password = mypassword Modem = /dev/ttyS0 Phone = 555-5555 Area Code = 555 Baud = 57600 Stupid mode = 0

To start wvdial, enter the command wvdial, which then reads the connection configuration information from the /etc/wvdial.conf file. wvdial then dials the ISP and initiates the PPP connection, providing your user name and password when requested.

Note In iptables' commands, chain names have to be entered in uppercase. This means that the chain names INPUT, OUTPUT, and FORWARD have to be written in uppercase. Packet-filtering rules are very similar to those used in ipchains with few exceptions. Rules are combined into different chains. The kernel uses chains to manage packets it receives and sends out. A chain is simply a checklist of rules. These rules specify what action to take for packets containing certain headers. The rules operate with an if-then-else structure. If a packet does not match the first rule, the next rule is then checked, and so on. If the packet does not match any rules, then the kernel consults chain policy. Usually, at this point the packet is rejected. If the packet does match a rule, it is passed to its target, which determines what to do with the packet. The standard targets are listed in Table 40-2. If a packet does not match any of the rules, it is passed to the chain's default target. Table 40-2: iptables Targets Target ACCEPT DROP REJECT QUEUE RETURN Function Allows packet to pass through the firewall Denies access by the packet (same as DENY in ipchains) Denies access and notifies the sender Sends packets to user space Jumps to the end of the chain and lets the default target process it

return //============================================================= //============================================================= //--- Subroutine InitializeSimulation //--- Inputs : none //--- Outputs : Needs[],BadPtr,MemPtr,CurNeed, //--CurCell,LastCell,Rx,Ry //--- Calls To: none //--//--- Draws the environment and initializes all variables //--- and arrays. //------------------------------------------------------------InitializeSimulation: //--- Initialize system variables Data ACTIONS;"NO ACTION"," EAT"," SLEEP"," PLAY","EXPLORE" Data ACTIONS;" SAVE","RETREAT","RESPOND" Dim Needs[3] MConstant Needs,100 //all needs are maximum Dim Memory[100,3] // Memory saves CurNeed,CurCell,Movement MemPtr=0 Dim BadList[100,2] // BadList does not include needs Action = NOACTION \ Status = HUNGRY\ Movement = NORTH BadPtr=0 \ CurNeed=0 \ CurCell=0 \ LastCell=0 //---Draw Environment //----outside border SetColor Black LineWidth 3 rectangle 0,0,720,595 //----Sleep area LineWidth 5 circle 500,-220,940,220,LightGreen,LightGreen circle 580,-140,860,140,LightGreen SetColor Black,LightGreen xyString 520,2, "SLEEP" xyString 525,16,"AREA" LineWidth 3 Rectangle 720,0,800,595,black,white

A target could, in turn, be another chain of rules, even a chain of user-defined rules. A packet could be passed through several chains before finally reaching a target. In the case of userdefined chains, the default target is always the next rule in the chains from which it was called. This sets up a procedure or function call like flow of control found in programming languages. When a rule has a user-defined chain as its target, then, when activated, that userdefined chain is executed. If no rules are matched, execution returns to the next rule in the originating chain. The kernel uses three firewall chains: INPUT, OUTPUT, and FORWARD. When a packet is received through an interface, the INPUT chain is used to determine what to do with it. The kernel then uses its routing information to decide where to send it. If the kernel sends the packet to another host, the FORWARD chain is checked. Before the packet is actually sent, the OUTPUT chain is also checked. In addition, two NAT table chains, POSTROUTING and PREROUTING, are implemented to handle masquerading and packet address modifications. The built-in Netfilter chains are listed in Table 40-3.

Table 40-3: Netfilter Built-in Chains Descriptions Rules for incoming packets Rules for outgoing packets Rules for forwarded packets Rules for redirecting or modifying incoming packets, NAT table only Rules for redirecting or modifying outgoing packets, NAT table only

(Continued )