mc2-scripts-and-benchmarks.git - Benchmarks and execution scripts for testing spatial isolation and SMT interference in MC^2

path: root/SD-VBS/benchmarks/disparity/data/sqcif/Makefile

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; 2020-05-29 12:44:28 -0400 committer Joshua Bakita <bakitajoshua@gmail.com> 2020-05-29 12:44:28 -0400 Add DIS benchmarks and scripts as they were used for Joshua's PRP' href='/cgit/cgit.cgi/mc2-scripts-and-benchmarks.git/commit/dis/original/Field/field.c?h=rtas22-casestudy&id=8dfefc152f16f9fd9e8aa0910fd4d23d6543d87e'>8dfefc1

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/*
 *  Sample code for the DIS Field Stressmark
 *
 * This source code is the completely correct source code based on
 * the example codes provided by Atlantic Aerospace Division, Titan
 * Systems Corporation, 2000.
 *
 * If you just compile and generate the executables from this source
 * code, this code would be enough. However, if you wish to get a complete
 * understanding of this stressmark, it is strongly suggested that you
 * read the Benchmark Analysis and Specifications Document Version 1.0
 * before going on since the detailed comments are given in this documents.
 * the comments are not repeated here.
 */

#include "DISstressmarkRNG.h"
#include "extra.h"
#include <assert.h>
#include <stdio.h>
#include <stdlib.h>
#include <time.h>

#define MIN_FIELD_SIZE 16
#define MAX_FIELD_SIZE (16777216 * 4) // This has been quadrupled from original
#define MIN_SEED -2147483647
#define MAX_SEED -1
#define MIN_MOD_OFFSET 0
#define MAX_MOD_OFFSET 65535
#define MIN_TOKENS 1
#define MAX_TOKENS 256
#define MIN_TOKEN_LENGTH 1
#define MAX_TOKEN_LENGTH 8
#define MIN_TOKEN_VALUE 0
#define MAX_TOKEN_VALUE 255
#define MAX_SUBFIELDS 256

/*
 * main()
 */

int main(int argc, char **argv) {
  SET_UP
  unsigned char *field;
  unsigned int f;
  int seed;
  int mod_offset;
  unsigned int n;

  time_t startTime, endTime;

  struct tokenS {
    unsigned char delimiter[MAX_TOKEN_LENGTH];
    unsigned char length;
    struct statisticS {
      unsigned int count;
      unsigned char min;
      unsigned char sum;
    } stat[MAX_SUBFIELDS];
    unsigned char subfields;
  } token[MAX_TOKENS];

  unsigned int l;

  assert(fscanf(stdin, "%d %d %d %d", &f, &seed, &mod_offset, &n) == 4);

  assert((f >= MIN_FIELD_SIZE) && (f <= MAX_FIELD_SIZE));
  assert((seed >= MIN_SEED) && (seed <= MAX_SEED));
  assert((mod_offset >= MIN_MOD_OFFSET) && (mod_offset <= MAX_MOD_OFFSET));
  assert((n >= MIN_TOKENS) && (n <= MAX_TOKENS));
  for (l = 0; l < n; l++) {
    int x;
    int index;
    index = 0;
    assert(fscanf(stdin, "%x", &x) == 1);
    while (x != 0) {
      assert((x >= MIN_TOKEN_VALUE) && (x <= MAX_TOKEN_VALUE));
      token[l].delimiter[index] = (unsigned char)x;
      index++;
      assert(fscanf(stdin, "%x", &x) == 1);
    }
    assert((index >= MIN_TOKEN_LENGTH) && (index <= MAX_TOKEN_LENGTH));
    token[l].length = index;
  }

  if ((field = (unsigned char *)malloc(f * sizeof(unsigned char))) == NULL)
    return (-1);

  randInit(seed);

  for_each_job {
    for (l = 0; l < f; l++) {
      field[l] = randInt(MIN_TOKEN_VALUE, MAX_TOKEN_VALUE);
    }

    startTime = time(NULL);

    for (l = 0; l < n; l++) {
      unsigned int index;

      token[l].subfields = 0;
      token[l].stat[0].count = 0;
      token[l].stat[0].sum = 0;
      token[l].stat[0].min = MAX_TOKEN_VALUE;

      index = 0;
      while ((index < f) && (token[l].subfields < MAX_SUBFIELDS)) {
        unsigned char offset;
        offset = 0;
        while ((field[index + offset] == token[l].delimiter[offset]) &&
               (offset < token[l].length)) {
          offset++;
        }

        if (offset == token[l].length) {
          for (offset = 0; offset < token[l].length; offset++) {
            field[index + offset] = (field[index + offset] +
                                     field[(index + offset + mod_offset) % f]) %
                                    (MAX_TOKEN_VALUE + 1);
          }
          index += token[l].length - 1;
          token[l].subfields++;
          token[l].stat[token[l].subfields].count = 0;
          token[l].stat[token[l].subfields].sum = 0;
          token[l].stat[token[l].subfields].min = MAX_TOKEN_VALUE;
        }

        else {
          token[l].stat[token[l].subfields].count++;
          token[l].stat[token[l].subfields].sum += field[index];
          if (token[l].stat[token[l].subfields].min > field[index])
            token[l].stat[token[l].subfields].min = field[index];
        }
        index++;
      }
      token[l].subfields++;
    }
  }
  endTime = time(NULL);

  volatile int _stop_optimizer = 0;
  for (l = 0; l < n; l++) {
    unsigned int ll;
    //fprintf(stdout, "%d subfields for token %d \n", token[l].subfields, l);
    _stop_optimizer += token[l].subfields + l;
    for (ll = 0; ll < token[l].subfields; ll++) {
      _stop_optimizer += ll + token[l].stat[ll].count + token[l].stat[ll].min +
                token[l].stat[ll].sum;
      //fprintf(stdout, "subfields %d:\tcount = %d\tmin= %x\tsum= %x\n",
      //    ll, token[l].stat[ll].count,
      //    token[l].stat[ll].min, token[l].stat[ll].sum);*/
    }
  }
  fprintf(stderr, "time for field stressmark = %f seconds.\n",
          difftime(endTime, startTime));
  free(field);
  WRITE_TO_FILE
  return (0);
}


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