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The primary focus of the testers is the dif culty they encountered as they adapted some of the Preliminary construction test cases to the new but similar screens added in Final construction. Testers also recalled that they had dif culty with the regression testing because of rerun challenges with the test cases. When the time comes for the testers to return to DSA for Postimplementation testing, the testers request the use of one workstation, the time of one of the more experienced DSA certi cate preparation staff, and the time of the DSA Operations Manager, Lisa Lemoine. Testers repeat their Final construction performance testing with the DSA staff operating the workstations and software. In accordance with the postimplementation test plan, the testers start by measuring the data entry screen response times. Then the testers move on to measure the printing response times. Finally, the testers measure the weekly certi cate le transfers to the master le. Each round of tests takes most of a workday. At the end of each day s tests, the testers show DSA the measurements collected over the day and how these measurements compare with the Final construction testing measurements. At the end of the week, the CPI testers and DSA staff agreed that the DCPS continues to operate as well as it did the rst days after going live.

The two highlighted lines are embedded scriptlet code. The first creates an instance of the Guru class; the second invokes the enlightenMe method of the new Guru object. The first scriptlet results in code in the generated servlet but nothing in the final resulting HTML page. The second scriptlet (actually, an expression ), within the <%= ... %> tags, is to return a string the resulting string is embedded in the final HTML page.

other kinds of input validation. One excellent way to find problems is to look for an area of asymmetry and explore it to find out what makes it different. Perhaps a single HTTP header supported by a Web server appears to have a different length limit than all the others, or perhaps you notice a weird response when you include a particular symbol in your input data. Or possibly specifying a recently implemented Web method in Apache seems to change your error messages. Maybe your attempt at file-execution through a buggy Web server fails when you request cmd.exe, but would succeed on ftp.exe. Taking note of areas that are different can tip you off to areas of a product that are less protected.

2 C L ) , LL LC 1 + (1 8 2 ) ( R L G C ) (3.10)

frame, user 1 transmits a positive reference pulse and a 1 data pulse in chip 1 of the frame; in the second frame, user 1 transmits a positive reference pulse and a 1 pulse in chip 3 of the frame; and in the third frame, user 1 transmits a reference pulse and a 1 pulse in chip 2 of the frame. The delay between the reference pulse and the data pulse in a chip time is Td(1) . This delay is used when the received data signal correlates with the delayed version of the reference signal of user 1. On the other hand, user 2 is transmitting a data bit of 1 , and the polarity of all of its Ns data pulses is positive with respect to their chip intervals. User 2 is using a time-hopping code of {2,1,3}. Similarly, in the rst frame, user 2 transmits a reference pulse and a 1 pulse in chip 2 of the frame; in the second frame, user 2 transmits a reference pulse and a 1 pulse in chip 1 of the frame; and in the third frame, user 2 transmits a reference pulse and a 1 pulse in chip 3 of the frame. The delay between the reference pulse and the data pulse in a chip time is Td(2) . Similarly, this delay is used when the received data signal correlates with the delayed version of the reference signal of user 2. The signal received for the nth user is given by [11]

In a Fabry Perot type diode laser subject to delayed optical feedback, a sharp transition from internal to external mode operation occurs upon increasing the feedback strength. This transition could mark the onset of multi-longitudinal mode operation, while most theoretical descriptions are based on single-mode analysis, notably the Lang Kobayashi rate equations, which are derived for a laser operating in a single longitudinal mode [1], see also 2. The transition can be analysed without explicit knowledge of the actual properties of the gain medium and, in line with intuition, occurs when the reflectivity of the external mirror equals the reflectivity of the facet facing the external cavity. This was shown by Tromborg et al. [4] for conventional optical feedback, but we will show in this section how this result can be extended to include generalized optical feedback. We model the compound cavity as a one-dimensional system, as sketched in Figure 3.2. A uniform active medium with (complex) refractive index n1 is located in 0 < x < l, whereas the external mirror with reflection coefficient r is placed at x = L. We consider continuous-wave type solutions of the form: Ej x t = e i

1.0 V 0s 1 ns V (T1:B+)