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Tjaden, G S, and M J Flynn: "Detection and parallel execution of independent instructions," IEEE Transactions on Computers, C19,10,1970, pp 889-895 Uht, A, and R Wedig: "Hardware extraction of low-level concurrency from a serial instruction stream," Proc Int Conf on Parallel Processing, 1986, pp 729 736 WaU, D: "Limits of instruction-level parallelism," Proc 4th Int Conf on Architectural Support for Programming Languages and Operating Systems, 1991, pp 176-188 Wedig, R : Detection pf Concurrency in Directly Executed Language Instruction Streams PhD thesis, Stanford University, 1982 Weiss, S, and J Smith: "Instruction issue logic in pipelined supercomputers," Proc 11th Annual Symposium on Computer Architecture, 1984, pp 110-118

else { last = sqrt( candidate ); for ( i = 2; i <= last; i++ ) { if ( (candidate % i) == 0 ) return false; } }

If we get through the loop without finding a factor, we know candidate is prime, and we return true.

Lab Exercise 1601: Understanding Network Topologies 242 Lab Exercise 1602: Identifying Local Area Network Hardware 244 Lab Analysis Test 248 Key Term Quiz 249

return true; }

If candidate is equal to 2, last will be equal to 1.414, which will get truncated to 1, since last is an int. If last is 1, the for loop won t even get through one iteration and will fall through to the statement: return true;. The same thing happens if candidate is 3. Since 2 and 3 are both prime, this works just fine. On the other hand, this little example shows you how careful you have to be to check your code, to make sure it works in all cases.

17

Consider the function name IsItPrime(). In C, when you name a function in the form of a true or false question, returning a value of true or false is good form. The question this function answers is, Is the candidate prime It is critical that IsItPrime() return true if the candidate was prime and false otherwise. When main() calls IsItPrime(), main() is asking the question, Is the candidate prime In the case of the following if statement:

P l l Using the resources of the World Wide Web, list the top five reported benchmark results for SPECINT2000, SPECFP2000, and TPC-C P12 Graph SPECTNT2000 vs processor frequency for two different processor families (eg, A M D Athlon and HP PA-RISC) for as many frequencies as are posted at wwwspecorg Comment on performance scaling with frequency, pointing out any anomalies and suggesting possible explanations for them P13 Explain the differences between architecture, implementation, and realization Explain how each of these relates to processor performance as expressed in Equation (11) P14 As silicon technology evolves, implementation constraints and tradeoffs change, which can affect the placement and definition of the dynamicstatic interface (DSI) Explain why architecting a branch delay slot [as in the millions of instructions per second (MIPS) architecture] was a reasonable thing to do when that architecture was introduced, but is less attractive today P15 Many times, implementation issues for a particular generation end up determining tradeoffs in instruction set architecture Discuss at least one historical implementation constraint that explains why CISC instruction sets were a sensible choice in the 1970s P16 A program's run time is determined by the product of instructions per program, cycles per instruction, and clock frequency Assume the following instruction mix for a MlPS-like RISC instruction set: 15% stores, 2 5 % loads, 15% branches, and 3 5 % integer arithmetic, 5% integer shift, and 5% integer multiply Given that load instructions require two cycles, branches require four cycles, integer ALU instmctions require one cycle, and integer multiplies require ten cycles, compute the overall CPI P17 Given the parameters of Problem 6, consider a strength-reducing optimization that converts multiplies by a compile-time constant into a

if ( IsItPrime( i ) ) printf( ... ); main() is saying, If i is prime, do the printf(). Make sure your function return values

make sense!

Lab Exercise 1701: Setting Up a Wireless Network 252 Lab Exercise 1702: Testing Wireless Security 254 Lab Analysis Test 256 Key Term Quiz 257

Our next program combines a global variable, a pointer parameter, and some value parameters. At the heart of the program is a function, called DoPower(), that takes three parameters. DoPower() takes a base and an exponent, raises the base to the exponent power, and returns the result in a parameter. Raising a base to an exponent power is the same as multiplying the base by itself, an exponent number of times.