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1071 Radial Screen By far, the most common screen in use, until recently, was the radial pattern shown in Figure 1013 This type of screen was used rst by Hartmann (1900, 1904) and subsequently, without substantial change in the original concept, by a number of other experimenters A bibliography of the work published on the radial screen test is given at the end of this chapter The basic concept of the radial pattern test is that a sample of points on the surface of a concave mirror that has a circular aperture can be taken using an opaque cover in which a number of small holes have been made The holes are spaced evenly along a number of diameters of the circular mirror aperture as shown in Figure 1013 The choice of such a pattern has several advantages.

First, a circular aperture is easily analyzed in a polar coordinate system Second, the grid pattern will detect the most common aws of mirror surfaces of any size zonal errors and concentric hills and valleys fractions of a micrometer in magnitude that result from classical grinding and polishing techniques Thus, in principle, the radial screen could afford the luxury of an easily analyzed test that detects the major noticeable surface defects In fact, the radial screen test has many shortcomings A major one is that if one considers each hole in the screen to be sampling an area on an annulus having as mean radius the radial location of the hole, it follows that the area sampled is considerably larger for holes far from the mirror center than for those near that center.

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This means that the area of the surface contributing to the major portion of the light gathering is known with least certainty, with the result that asymmetric defects not detectable by other means are likely to go undetected by this method as well Another major shortcoming is due to the circular symmetry of some of the defects, which go undetected if the hole spacing is not suf ciently small Intertwined with these procedural disadvantages is the assumption, often made in the data reduction to.

Cycle time: This measures how long it takes memory to stabilize after reading or writing so that another sequence of operations can begin, or between the activation and precharge commands. This influences row activation time and the time required to jump from one arbitrary memory location to another. Experimentation shows that lowering this value also has little impact on memory performance. Taken as a whole, lower latencies in all categories can boost performance in certain classes of memory-intensive applications by 3 to 8 percent. However, the majority of applications don t really see much gain, and the headache of trying to tweak memory settings is best left to those users who are knowledgeable about the risks. When tweaking memory in BIOS, another value that s not part of this typical timing data (which you can obtain for nearly all memory modules by digging into the manufacturer s Web site, if it s not printed on the module itself or on a label attached to the module) is the memory controller command rate. This value indicates how many clock cycles the memory controller grabs and holds the command bus for memory access. Smaller values mean the controller can issue commands more quickly. Lowering this value also produces significant increases in memory performance.

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Now open the script s URL in your Web browser. Figure 17-16 shows a sample output you ll have a different image, of course.

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The Network layer of the OSI model provides for both connecRANDOM BONUS DEFINITION tionless network services and connection-oriented services. It ltering The process of inspecting frames encompasses the protocols of received on an input port of a switch and deciding whether to discard or forward the TCP/IP model s Internet them. layer. However, the OSI model s Network layer is broader in scope than TCP/IP s Internet layer, and at times, it includes other TCP/IP protocols from its Link layer. Due to this difference, the two layers should not be considered mirror images of each other, although they do have some protocols in common.