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Let s do a quick review of the types of RAM packages you ll see on modern PCs Then you ll check your PC or motherboard documentation to determine the type of RAM it uses All modern PCs use some form of DDR memory for their system RAM As was discussed in the textbook, DDR stands for double data rate, which means that for every tick of the clock, two chunks of data are sent across the memory bus This has the effect of giving you twice the performance without increasing the clock rate A quick way to calculate that performance is to use this easy formula: Transfer rate = (clock rate transfer per cycle) bus width / 8 Using this formula for a stick of 400-MHz DDR, for example, looks like this: Transfer rate = (400 MHz 2) 64 bits / 8 When you run the numbers, you get a transfer rate of 6400 MB, or 625 GB Since the introduction of DDR, two major RAM upgrades have occurred, DDR2 and DDR3, each of which has double the throughput of its predecessor Another performance trick modern systems use to increase memory speed is dual- and triple-channel architectures This enables the memory controller to access more than one stick of RAM at a time, thus increasing performance In effect, the 64-bit bus acts like a 128-bit bus (for dual-channel) or a 192-bit bus (for triple-channel) To use these multichannel architectures, you must install memory in identical pairs or triplets Check your motherboard book to see if your system supports dual- or triple-channel memory

if ( ( fp = fopen( kDVDFileName, "w" ) ) == NULL ) { printf( "***ERROR: Could not write DVD file!" ); return; }

~~i /]

This for loop steps through the linked list, setting infoPtr to point to the first struct in the list, moving it to point to the next struct, and so on, until infoPtr is equal to NULL. Since the last struct in our list sets its next pointer to NULL, infoPtr will be equal to NULL when it points to the last struct in the list.

Step 1 Typically, as older machines become obsolete and fall into disuse, they are easier to acquire for little or no cost Many times, this is exactly the type of PC you have available to disassemble, so there is a good chance that it will use older memory (RAM) as well If you are using an older, non-production machine for your exploration, there s a good chance the motherboard supports one of these older types of RAM packages (included here for your information): 168-pin DIMMs These are about ve inches long and have 84 physical pins (edge connectors) on each side, and all 168 connectors are used The board has two notches on the bottom: one near the center, and the other near an end (see Figure 6-4) 184-pin RIMMs Rambus Dynamic RAM (RDRAM) is the type of RAM you might nd if you are working with an old Intel Pentium III or Pentium 4 motherboard A stick of RDRAM is called a RIMM RIMM is actually trademarked as a word; it s not an acronym like DIMM, despite what many people assume (see Figure 6-5)

for ( infoPtr=gHeadPtr; infoPtr!=NULL; infoPtr=infoPtr->next ) {

Each time through the list, we call fprintf() to print the title string followed by a carriage return and then the comment string followed by a carriage return. Remember, each of these strings was zero-terminated, a requirement if you plan on using the %s format specifier.

If you are using a typical desktop system and it is relatively new (less than two years old), the motherboard will most likely support one of the following three types of RAM packages: 184-pin DDR DIMMs DDR RAM sticks are about ve inches long and look a lot like 168-pin DIMMs, but with only one notch and more connectors These are known as double data rate (DDR) memory The notches are different from 168-pin DIMMs, so these RAM types are not interchangeable (see Figure 6-6) 240-pin DDR2 DIMMs DDR2 RAM sticks are physically the same size as the 184-pin DDR DIMMs, but the guide notch is in a different location and there are obviously more connectors DDR2 uses a 240-pin DIMM (see Figure 6-7) that s not compatible with DDR RAM slots DDR2 performs better than DDR due to lower voltage requirements, clock doubling on the chips input/output circuits, and special prefetch buffers

fprintf( fp, "%s\n", infoPtr->title ); fprintf( fp, "%s\n", infoPtr->comment );

( L 5 )

Finally, we convert the rating field to an int by assigning it to the int num and print it (as well as a following carriage return) to the file using fprintf(). We converted the char to an int, because the %d format specifier was designed to work with an int, and not a char.

num = infoPtr->rating; fprintf( fp, "%d\n", num ); }