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architectural design are required on large projects, so the opportunity for errors arising out of those activities is proportionally larger. In some very large projects, however, the proportion of construction errors remains high; sometimes even with 500,000 lines of code, up to 75 percent of the errors can be attributed to construction (Grady 1987). As the kinds of defects change with size, so do the numbers of defects. You would naturally expect a project that s twice as large as another to have twice as many errors. But the density of defects, the number of defects per line of code, increases. The product that s twice as large is likely to have more than twice as many errors. Table 27-1 shows the range of defect densities you can expect on projects of various sizes:

packet filtering for PPTP traffic, L2TP/IPSec traffic, or both types of traffic on the appropriate firewall and VPN server interfaces connecting to the Internet and the perimeter network. For more information, see Appendix B, Config uring Firewalls for VPN.

9

The data in this table represents average performance. A handful of organizations have reported better error rates than the minimums shown here. For examples, see How Many Errors Should You Expect to Find in Section 22.4.

Network Destination This column provides entries that the router compares to the destination address of every received IP packet A few of these entries are common to most routing tables For example, the entry 0000 represents the default route, used when no other matches are found in the routing table The entry 127000 points to the loopback address of 127001, which corresponds to the local machine Each entry of 224000, furthermore, refers to a separate multicast route Finally, entries with a final octet value of 255 represent a broadcast address Broadcast addresses include specific subnet broadcast addresses, such as 1921681255, and the limited broadcast address 255255255255, which is general for all networks and routers.

Netmask The value in this column determines which part of the IP packet s destina tion address is compared to the entries in the Network Destination column This infor mation is important because the largest match determines the route or table entry that is applied to the packet For instance, suppose the router whose routing table is shown in Figure 9-13 receives two packets, the first destined for the address 19216811 and the second destined for the address 19216812 Both packets match the third routing table entry because the netmask value of 2552552550 signifies that the first three octets (plus a 0 for the fourth octet) are compared to the table s network destination value of 19216810 However, only the first packet matches the fourth entry because the netmask of 255255255.

Error Density 0-25 errors per thousand lines of code (KLOC) 0-40 errors per KLOC 0.5-50 errors per KLOC 2-70 errors per KLOC 4-100 errors per KLOC

In most cases, you want to reference the VPN server by name rather than by an IP address, as names are much easier to remember. You can use a name (for example, VPN1.example.microsoft.com) as long as the name can be resolved to an IP

255 signals that all four octets are compared to the table s network desti nation value of 19216811 The fourth entry is thus applied to the first packet because this entry represents the largest match in the routing table In this manner, the third entry is applied to the second packet because that entry represents the packet s only match in the routing table aside from the default route Gateway When a particular route or table entry is applied to a packet, the gateway value determines the next address or hop for which that packet is destined For example, according to the routing table shown in Figure 9-13, an IP packet with a destination such as 206731185 (which matches only the default route of 0000) would next be forwarded to the gateway address of 207462523.