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Similar analysis of hardware requirements can be performed for the 11-stage instruction pipeline of Figure 28(b) To accommodate slow instruction memory, the IF generic subcomputation is subdivided and mapped to two pipeline stages, namely, the IF1 and IF2 stages Instruction fetch is initiated in IF1 and completes in IF2 Even though instruction fetch takes two machine cycles, it is pipelined; that is, while the first instruction is completing the fetching in IF2, the second instruction can begin fetching in IF1 This means that the instruction memory must be able to support two concurrent accesses, by IF1 and IF2 pipeline stages, in every machine cycle Similarly, the mapping of both the OF and OS generic subcomputations to three pipeline stages each implies that at any one time there could be up to six instructions in the pipeline, all in the process of accessing the data memory Hence, the data memory must be able to support six independent concurrent accesses without conflict in every machine cycle This can potentially require a six-ported data memory Furthermore, if the instruction memory and the data memory are unified into one memory unit, an eight-ported memory unit can potentially be required Such multiported memory units are extremely expensive to implement Less expensive solutions, such as using interleaved memory with multiple banks, that attempt to simulate true multiported functionality usually cannot guarantee conflictfree concurrent accesses at all times As the degree of pipelining, or the pipeline depth, increases, the amount of hardware resources needed to support such a pipeline increases significantly The most significant increases of hardware resources are the additional ports to the register file(s) and the memory unit(s) needed to support the increased degree of concurrent accesses to these data storage units Furthermore, to accommodate long memory access latency, the memory access subcomputation must be pipelined However, the physical pipelining of memory accessing beyond two machine cycles can become quite complex, and frequently conflict-free concurrent accesses must be compromised 2213 Example instruction Pipelines The stage quantization of two commercial pipelined processors is presented here to provide illustrations of real instruction pipelines The MIPS R2OOO/R3O0O RISC processors employ a five-stage instruction pipeline, as shown in Figure 29(a) The MIPS architecture is a load/store architecture The IF and ID generic subcomputations are merged into the IF stage, which will require one memory (I-cache) read in every machine cycle The OF generic subcomputation is carried out in both the RD and MEM stages For ALU instructions that access only register operands, operand fetch is done in the RD stage and requires the reading of two registers For load instructions, the operand fetch also requires accessing the memory (D-cache) and is carried out in the M E M stage, which is the only stage in the pipeline that can access the D-cache The OS generic subcomputation is carried out in the MEM and WB stages Store instructions must access the D-cache and are done in the MEM stage A L U and load instructions write their results back to the register file in the WB stage MIPS processors normally employ separate instruction and data caches In every machine cycle the R2O00/R3O00 pipeline must support the concurrent accesses of.

To find the copy of <stddef.h> used by your project, go to the Finder, and open the directory /Developer/ SDKs. Next, go into the directory that matches the selection in your project Info window for Base SDK for All Configurations. In our case, that s MacOSX10.5.sdk. Inside that directory, go into the usr/include subdirectory. That is where you ll find all your include files. Cool! To recap, you ll find the definition of size_t inside this file: /Developer/SDKs/MacOSX10.5.sdk/usr/include/ stddef.h. Feel free to open this file and search for size_t. I ll warn you that this is some pretty complicated code, and your head might explode a few times before you figure it all out, but knowing where this stuff lives is good. And knowing about the project Info window is also good. If you go back to the project Info window, click the Build tab, and scroll down to the series of heading that start with GCC 4.0, you ll find a ton of settings relating to compiling your project. If you make your way all the way down to GCC 4.0 - Warnings, you ll see a long series of checkboxes that determine what conditions cause the compiler to issue a warning. Consider checking every single one of these checkboxes (take a screen shot of the screen first, just in case you want to go back to your original settings), and then rebuild your code. Spend some time looking through all the project window tabs. You ll find a ton of useful settings in there.

upgrade tasks, such as adding RAM or installing a modem or sound card When it comes to the more complicated tasks, however, such as installing or replacing a central processing unit (CPU), wise users turn to the experts this means you! Don t get too excited You won t be replacing CPUs for the CompTIA A+ Essentials exam (220-701), but you do need to get acquainted with them As a tech, it s your job to know the important characteristics of the CPU and how to match a CPU to a compatible motherboard In this set of lab exercises, you ll identify current CPU types and sockets

You d have no problem passing blap as a parameter to fgets(), right fgets() would read the characters from the input buffer and place them in blap. title[0] is just like blap. Both are pointers to an array of chars. blap[0] is the first char of the array blap. Likewise, title[0][0] is the first char of the array title[0]. OK, let s get back to the code. Once we drop out of the loop, we print a dividing line and then loop on a call to PrintDVDTitle() to print the contents of our array of DVD titles. The first parameter to PrintDVDTitle() specifies the number of the DVD you want printed. The second parameter is the title array pointer.

printf( "----\n" ); for ( dvdNum = 0; dvdNum < kMaxDVDs; dvdNum++ ) PrintDVDTitle( dvdNum, title );