/*
** Perform the transcendental/trigonometric portion of the
** benchmark. This benchmark calculates the first n
** fourier coefficients of the function (x+1)^x defined
** on the interval 0,2.
*/
public override double Run()
{
double[] abase; /* Base of A[] coefficients array */
double[] bbase; /* Base of B[] coefficients array */
long accumtime; /* Accumulated time in ticks */
double iterations; /* # of iterations */
/*
** See if we need to do self-adjustment code.
*/
if (this.adjust == 0)
{
this.arraysize = 100; /* Start at 100 elements */
while (true)
{
abase = new double[this.arraysize];
bbase = new double[this.arraysize];
/*
** Do an iteration of the tests. If the elapsed time is
** less than or equal to the permitted minimum, re-allocate
** larger arrays and try again.
*/
if (DoFPUTransIteration(abase, bbase, this.arraysize) > global.min_ticks)
{
break;
}
this.arraysize += 50;
}
}
else
{
/*
** Don't need self-adjustment. Just allocate the
** arrays, and go.
*/
abase = new double[this.arraysize];
bbase = new double[this.arraysize];
}
accumtime = 0L;
iterations = 0.0;
do
{
accumtime += DoFPUTransIteration(abase, bbase, this.arraysize);
iterations += (double)this.arraysize * (double)2.0 - (double)1.0;
} while (ByteMark.TicksToSecs(accumtime) < this.request_secs);
if (this.adjust == 0)
{
this.adjust = 1;
}
return(iterations / (double)ByteMark.TicksToFracSecs(accumtime));
}
public override double Run()
{
double[][] a;
double[] b;
double[][][] abase = null;
double[][] bbase = null;
int n;
int i;
long accumtime;
double iterations;
/*
** Our first step is to build a "solvable" problem. This
** will become the "seed" set that all others will be
** derived from. (I.E., we'll simply copy these arrays
** into the others.
*/
a = new double[global.LUARRAYROWS][];
for (int j = 0; j < global.LUARRAYROWS; j++)
{
a[j] = new double[global.LUARRAYCOLS];
}
b = new double[global.LUARRAYROWS];
n = global.LUARRAYROWS;
s_LUtempvv = new double[global.LUARRAYROWS];
build_problem(a, n, b);
if (this.adjust == 0)
{
for (i = 1; i <= MAXLUARRAYS; i++)
{
abase = new double[i + 1][][];
for (int j = 0; j < i + 1; j++)
{
abase[j] = new double[global.LUARRAYROWS][];
for (int k = 0; k < global.LUARRAYROWS; k++)
{
abase[j][k] = new double[global.LUARRAYCOLS];
}
}
bbase = new double[i + 1][];
for (int j = 0; j < i + 1; j++)
{
bbase[j] = new double[global.LUARRAYROWS];
}
if (DoLUIteration(a, b, abase, bbase, i) > global.min_ticks)
{
this.numarrays = i;
break;
}
}
if (this.numarrays == 0)
{
throw new Exception("FPU:LU -- Array limit reached");
}
}
else
{
abase = new double[this.numarrays][][];
for (int j = 0; j < this.numarrays; j++)
{
abase[j] = new double[global.LUARRAYROWS][];
for (int k = 0; k < global.LUARRAYROWS; k++)
{
abase[j][k] = new double[global.LUARRAYCOLS];
}
}
bbase = new double[this.numarrays][];
for (int j = 0; j < this.numarrays; j++)
{
bbase[j] = new double[global.LUARRAYROWS];
}
}
accumtime = 0;
iterations = 0.0;
do
{
accumtime += DoLUIteration(a, b, abase, bbase, this.numarrays);
iterations += (double)this.numarrays;
} while (ByteMark.TicksToSecs(accumtime) < this.request_secs);
if (this.adjust == 0)
{
this.adjust = 1;
}
return(iterations / ByteMark.TicksToFracSecs(accumtime));
}
public override double Run()
{
string[][] arraybase; /* Base pointers of array */
long accumtime; /* Accumulated time */
double iterations; /* Iteration counter */
/*
** See if we need to do self adjustment code.
*/
if (this.adjust == 0)
{
/*
** Self-adjustment code. The system begins by sorting 1
** array. If it does that in no time, then two arrays
** are built and sorted. This process continues until
** enough arrays are built to handle the tolerance.
*/
this.numarrays = 1;
while (true)
{
/*
** Allocate space for arrays
*/
arraybase = new string[this.numarrays][];
for (int i = 0; i < this.numarrays; i++)
{
arraybase[i] = new string[this.arraysize];
}
/*
** Do an iteration of the string sort. If the
** elapsed time is less than or equal to the permitted
** minimum, then allocate for more arrays and
** try again.
*/
if (DoStringSortIteration(arraybase,
this.numarrays,
this.arraysize) > global.min_ticks)
{
break; /* We're ok...exit */
}
if (this.numarrays++ > global.NUMSTRARRAYS)
{
throw new Exception("CPU:SSORT -- NUMSTRARRAYS hit.");
}
}
}
else
{
/*
** Allocate space for arrays
*/
arraybase = new string[this.numarrays][];
for (int i = 0; i < this.numarrays; i++)
{
arraybase[i] = new string[this.arraysize];
}
}
/*
** All's well if we get here. Repeatedly perform sorts until the
** accumulated elapsed time is greater than # of seconds requested.
*/
accumtime = 0L;
iterations = (double)0.0;
do
{
accumtime += DoStringSortIteration(arraybase,
this.numarrays,
this.arraysize);
iterations += (double)this.numarrays;
} while (ByteMark.TicksToSecs(accumtime) < this.request_secs);
if (this.adjust == 0)
{
this.adjust = 1;
}
/*
** Clean up, calculate results, and go home.
** Set flag to show we don't need to rerun adjustment code.
*/
return(iterations * (double)this.numarrays / ByteMark.TicksToFracSecs(accumtime));
}
double DoNNET(NNetStruct locnnetstruct)
{
// string errorcontext = "CPU:NNET";
// int systemerror = 0;
long accumtime = 0;
double iterations = 0.0;
/*
** Init random number generator.
** NOTE: It is important that the random number generator
** be re-initialized for every pass through this test.
** The NNET algorithm uses the random number generator
** to initialize the net. Results are sensitive to
** the initial neural net state.
*/
ByteMark.randnum(3);
/*
** Read in the input and output patterns. We'll do this
** only once here at the beginning. These values don't
** change once loaded.
*/
read_data_file();
/*
** See if we need to perform self adjustment loop.
*/
if (locnnetstruct.adjust == 0)
{
/*
** Do self-adjustment. This involves initializing the
** # of loops and increasing the loop count until we
** get a number of loops that we can use.
*/
for (locnnetstruct.loops = 1;
locnnetstruct.loops < MAXNNETLOOPS;
locnnetstruct.loops++)
{
ByteMark.randnum(3);
if (DoNNetIteration(locnnetstruct.loops) > global.min_ticks)
{
break;
}
}
}
/*
** All's well if we get here. Do the test.
*/
accumtime = 0L;
iterations = (double)0.0;
do
{
ByteMark.randnum(3); /* Gotta do this for Neural Net */
accumtime += DoNNetIteration(locnnetstruct.loops);
iterations += (double)locnnetstruct.loops;
} while (ByteMark.TicksToSecs(accumtime) < locnnetstruct.request_secs);
/*
** Clean up, calculate results, and go home. Be sure to
** show that we don't have to rerun adjustment code.
*/
locnnetstruct.iterspersec = iterations / ByteMark.TicksToFracSecs(accumtime);
if (locnnetstruct.adjust == 0)
{
locnnetstruct.adjust = 1;
}
return(locnnetstruct.iterspersec);
}
/*
** emfloat.c
** Source for emulated floating-point routines.
** BYTEmark (tm)
** BYTE's Native Mode Benchmarks
** Rick Grehan, BYTE Magazine.
**
** Created:
** Last update: 3/95
**
** DISCLAIMER
** The source, executable, and documentation files that comprise
** the BYTEmark benchmarks are made available on an "as is" basis.
** This means that we at BYTE Magazine have made every reasonable
** effort to verify that the there are no errors in the source and
** executable code. We cannot, however, guarantee that the programs
** are error-free. Consequently, McGraw-HIll and BYTE Magazine make
** no claims in regard to the fitness of the source code, executable
** code, and documentation of the BYTEmark.
** Furthermore, BYTE Magazine, McGraw-Hill, and all employees
** of McGraw-Hill cannot be held responsible for any damages resulting
** from the use of this code or the results obtained from using
** this code.
*/
/*
** Floating-point emulator.
** These routines are only "sort of" IEEE-compliant. All work is
** done using an internal representation. Also, the routines do
** not check for many of the exceptions that might occur.
** Still, the external formats produced are IEEE-compatible,
** with the restriction that they presume a low-endian machine
** (though the endianism will not effect the performance).
**
** Some code here was based on work done by Steve Snelgrove of
** Orem, UT. Other code comes from routines presented in
** the long-ago book: "Microprocessor Programming for
** Computer Hobbyists" by Neill Graham.
*/
/*****************************
** FLOATING-POINT EMULATION **
*****************************/
/**************
** DoEmFloat **
***************
** Perform the floating-point emulation routines portion of the
** CPU benchmark. Returns the operations per second.
*/
public override double Run()
{
InternalFPF[] abase; /* Base of A array */
InternalFPF[] bbase; /* Base of B array */
InternalFPF[] cbase; /* Base of C array */
long accumtime; /* Accumulated time in ticks */
double iterations; /* # of iterations */
long tickcount; /* # of ticks */
int loops; /* # of loops */
/*
** Test the emulation routines.
*/
abase = new InternalFPF[this.arraysize];
bbase = new InternalFPF[this.arraysize];
cbase = new InternalFPF[this.arraysize];
for (int i = 0; i < this.arraysize; i++)
{
abase[i] = new InternalFPF();
bbase[i] = new InternalFPF();
cbase[i] = new InternalFPF();
}
/*
* for (int i = 0; i < this.arraysize; i++)
* {
* abase[i].type = IFPF.IFPF_IS_ZERO;
* abase[i].sign = (byte)0;
* abase[i].exp = (short)0;
* abase[i].mantissa = new char[INTERNAL_FPF_PRECISION];
*
* bbase[i].type = IFPF.IFPF_IS_ZERO;
* bbase[i].sign = (byte)0;
* bbase[i].exp = (short)0;
* bbase[i].mantissa = new char[INTERNAL_FPF_PRECISION];
*
* cbase[i].type = IFPF.IFPF_IS_ZERO;
* cbase[i].sign = (byte)0;
* cbase[i].exp = (short)0;
* cbase[i].mantissa = new char[INTERNAL_FPF_PRECISION];
* }
*/
/*
** Set up the arrays
*/
SetupCPUEmFloatArrays(abase, bbase, cbase, this.arraysize);
/*
** See if we need to do self-adjusting code.
*/
if (this.adjust == 0)
{
this.loops = 0;
/*
** Do an iteration of the tests. If the elapsed time is
** less than minimum, increase the loop count and try
** again.
*/
for (loops = 1; loops < global.CPUEMFLOATLOOPMAX; loops += loops)
{
tickcount = DoEmFloatIteration(abase, bbase, cbase,
this.arraysize,
loops);
if (tickcount > global.min_ticks)
{
this.loops = loops;
break;
}
}
}
/*
** Verify that selft adjustment code worked.
*/
if (this.loops == 0)
{
throw new Exception("CPU:EMFPU -- CMPUEMFLOATLOOPMAX limit hit\n");
}
/*
** All's well if we get here. Repeatedly perform floating
** tests until the accumulated time is greater than the
** # of seconds requested.
** Each iteration performs arraysize * 3 operations.
*/
accumtime = 0L;
iterations = (double)0.0;
do
{
accumtime += DoEmFloatIteration(abase, bbase, cbase,
this.arraysize,
this.loops);
iterations += (double)1.0;
} while (ByteMark.TicksToSecs(accumtime) < this.request_secs);
/*
** Clean up, calculate results, and go home.
** Also, indicate that adjustment is done.
*/
if (this.adjust == 0)
{
this.adjust = 1;
}
double emflops = (iterations * (double)this.loops) /
(double)ByteMark.TicksToFracSecs(accumtime);
return(emflops);
}
/**************
** DoHuffman **
***************
** Execute a huffman compression on a block of plaintext.
** Note that (as with IDEA encryption) an iteration of the
** Huffman test includes a compression AND a decompression.
** Also, the compression cycle includes building the
** Huffman tree.
*/
public override double Run()
{
huff_node[] hufftree;
long accumtime;
double iterations;
byte[] comparray;
byte[] decomparray;
byte[] plaintext;
InitWords();
/*
** Allocate memory for the plaintext and the compressed text.
** We'll be really pessimistic here, and allocate equal amounts
** for both (though we know...well, we PRESUME) the compressed
** stuff will take less than the plain stuff.
** Also note that we'll build a 3rd buffer to decompress
** into, and we preallocate space for the huffman tree.
** (We presume that the Huffman tree will grow no larger
** than 512 bytes. This is actually a super-conservative
** estimate...but, who cares?)
*/
plaintext = new byte[this.arraysize];
comparray = new byte[this.arraysize];
decomparray = new byte[this.arraysize];
hufftree = new huff_node[512];
/*
** Build the plaintext buffer. Since we want this to
** actually be able to compress, we'll use the
** wordcatalog to build the plaintext stuff.
*/
create_text_block(plaintext, this.arraysize - 1, 500);
// for (int i = 0; i < this.arraysize-1; i++) {
// Console.Write((char)plaintext[i]);
// }
plaintext[this.arraysize - 1] = (byte)'\0';
// plaintextlen=this.arraysize;
/*
** See if we need to perform self adjustment loop.
*/
if (this.adjust == 0)
{
/*
** Do self-adjustment. This involves initializing the
** # of loops and increasing the loop count until we
** get a number of loops that we can use.
*/
for (this.loops = 100;
this.loops < global.MAXHUFFLOOPS;
this.loops += 10)
{
if (DoHuffIteration(plaintext,
comparray,
decomparray,
this.arraysize,
this.loops,
hufftree) > global.min_ticks)
{
break;
}
}
}
/*
** All's well if we get here. Do the test.
*/
accumtime = 0L;
iterations = (double)0.0;
do
{
accumtime += DoHuffIteration(plaintext,
comparray,
decomparray,
this.arraysize,
this.loops,
hufftree);
iterations += (double)this.loops;
} while (ByteMark.TicksToSecs(accumtime) < this.request_secs);
/*
** Clean up, calculate results, and go home. Be sure to
** show that we don't have to rerun adjustment code.
*/
//this.iterspersec=iterations / TicksToFracSecs(accumtime);
if (this.adjust == 0)
{
this.adjust = 1;
}
return(iterations / ByteMark.TicksToFracSecs(accumtime));
}
public override double Run()
{
int i;
char[] Z = new char[global.KEYLEN];
char[] DK = new char[global.KEYLEN];
char[] userkey = new char[8];
long accumtime;
double iterations;
byte[] plain1; /* First plaintext buffer */
byte[] crypt1; /* Encryption buffer */
byte[] plain2; /* Second plaintext buffer */
/*
** Re-init random-number generator.
*/
ByteMark.randnum(3);
/*
** Build an encryption/decryption key
*/
for (i = 0; i < 8; i++)
{
userkey[i] = (char)(ByteMark.abs_randwc(60000) & 0xFFFF);
}
for (i = 0; i < global.KEYLEN; i++)
{
Z[i] = (char)0;
}
/*
** Compute encryption/decryption subkeys
*/
en_key_idea(userkey, Z);
de_key_idea(Z, DK);
/*
** Allocate memory for buffers. We'll make 3, called plain1,
** crypt1, and plain2. It works like this:
** plain1 >>encrypt>> crypt1 >>decrypt>> plain2.
** So, plain1 and plain2 should match.
** Also, fill up plain1 with sample text.
*/
plain1 = new byte[this.arraysize];
crypt1 = new byte[this.arraysize];
plain2 = new byte[this.arraysize];
/*
** Note that we build the "plaintext" by simply loading
** the array up with random numbers.
*/
for (i = 0; i < this.arraysize; i++)
{
plain1[i] = (byte)(ByteMark.abs_randwc(255) & 0xFF);
}
/*
** See if we need to perform self adjustment loop.
*/
if (this.adjust == 0)
{
/*
** Do self-adjustment. This involves initializing the
** # of loops and increasing the loop count until we
** get a number of loops that we can use.
*/
for (this.loops = 100;
this.loops < global.MAXIDEALOOPS;
this.loops += 10)
{
if (DoIDEAIteration(plain1, crypt1, plain2,
this.arraysize,
this.loops,
Z, DK) > global.min_ticks)
{
break;
}
}
}
/*
** All's well if we get here. Do the test.
*/
accumtime = 0;
iterations = (double)0.0;
do
{
accumtime += DoIDEAIteration(plain1, crypt1, plain2,
this.arraysize,
this.loops, Z, DK);
iterations += (double)this.loops;
} while (ByteMark.TicksToSecs(accumtime) < this.request_secs);
/*
** Clean up, calculate results, and go home. Be sure to
** show that we don't have to rerun adjustment code.
*/
if (this.adjust == 0)
{
this.adjust = 1;
}
return(iterations / ByteMark.TicksToFracSecs(accumtime));
}
public override double Run()
{
int[][,] arraybase;
long accumtime;
double iterations;
/*
** See if we need to do self adjustment code.
*/
if (this.adjust == 0)
{
/*
** Self-adjustment code. The system begins by working on 1
** array. If it does that in no time, then two arrays
** are built. This process continues until
** enough arrays are built to handle the tolerance.
*/
this.numarrays = 1;
while (true)
{
/*
** Allocate space for arrays
*/
arraybase = new int[this.numarrays][, ];
for (int i = 0; i < this.numarrays; i++)
{
arraybase[i] = new int[global.ASSIGNROWS, global.ASSIGNCOLS];
}
/*
** Do an iteration of the assignment alg. If the
** elapsed time is less than or equal to the permitted
** minimum, then allocate for more arrays and
** try again.
*/
if (DoAssignIteration(arraybase,
this.numarrays) > global.min_ticks)
{
break; /* We're ok...exit */
}
this.numarrays++;
}
}
else
{ /*
** Allocate space for arrays
*/
arraybase = new int[this.numarrays][, ];
for (int i = 0; i < this.numarrays; i++)
{
arraybase[i] = new int[global.ASSIGNROWS, global.ASSIGNCOLS];
}
}
/*
** All's well if we get here. Do the tests.
*/
accumtime = 0;
iterations = (double)0.0;
do
{
accumtime += DoAssignIteration(arraybase, this.numarrays);
iterations += (double)1.0;
} while (ByteMark.TicksToSecs(accumtime) < this.request_secs);
if (this.adjust == 0)
{
this.adjust = 1;
}
return(iterations * (double)this.numarrays
/ ByteMark.TicksToFracSecs(accumtime));
}
public override double Run()
{
int[] bitarraybase; /* Base of bitmap array */
int[] bitoparraybase; /* Base of bitmap operations array */
int nbitops = 0; /* # of bitfield operations */
long accumtime; /* Accumulated time in ticks */
double iterations; /* # of iterations */
/*
** See if we need to run adjustment code.
*/
if (this.adjust == 0)
{
bitarraybase = new int[this.bitfieldarraysize];
/*
** Initialize bitfield operations array to [2,30] elements
*/
this.bitoparraysize = 30;
while (true)
{
/*
** Allocate space for operations array
*/
bitoparraybase = new int[this.bitoparraysize * 2];
/*
** Do an iteration of the bitmap test. If the
** elapsed time is less than or equal to the permitted
** minimum, then de-allocate the array, reallocate a
** larger version, and try again.
*/
if (DoBitfieldIteration(bitarraybase,
bitoparraybase,
this.bitoparraysize,
ref nbitops) > global.min_ticks)
{
break; /* We're ok...exit */
}
this.bitoparraysize += 100;
}
}
else
{
/*
** Don't need to do self adjustment, just allocate
** the array space.
*/
bitarraybase = new int[this.bitfieldarraysize];
bitoparraybase = new int[this.bitoparraysize * 2];
}
/*
** All's well if we get here. Repeatedly perform bitops until the
** accumulated elapsed time is greater than # of seconds requested.
*/
accumtime = 0;
iterations = (double)0.0;
do
{
accumtime += DoBitfieldIteration(bitarraybase,
bitoparraybase,
this.bitoparraysize,
ref nbitops);
iterations += (double)nbitops;
} while (ByteMark.TicksToSecs(accumtime) < this.request_secs);
/*
** Clean up, calculate results, and go home.
** Also, set adjustment flag to show that we don't have
** to do self adjusting in the future.
*/
if (this.adjust == 0)
{
this.adjust = 1;
}
return(iterations / ByteMark.TicksToFracSecs(accumtime));
}