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/*

 * Project: S.Ha.R.K.

 *

 * Coordinators:

 *   Giorgio Buttazzo    <giorgio@sssup.it>

 *   Paolo Gai           <pj@gandalf.sssup.it>

 *

 * Authors     :

 *   Paolo Gai           <pj@gandalf.sssup.it>

 *   (see the web pages for full authors list)

 *

 * ReTiS Lab (Scuola Superiore S.Anna - Pisa - Italy)

 *

 * http://www.sssup.it

 * http://retis.sssup.it

 * http://shark.sssup.it

 */

/*

 * Copyright (C) 2000 Giorgio Buttazzo, Paolo Gai, Massimiliano Giorgi

 *

 * This program is free software; you can redistribute it and/or modify

 * it under the terms of the GNU General Public License as published by

 * the Free Software Foundation; either version 2 of the License, or

 * (at your option) any later version.

 *

 * This program is distributed in the hope that it will be useful,

 * but WITHOUT ANY WARRANTY; without even the implied warranty of

 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the

 * GNU General Public License for more details.

 *

 * You should have received a copy of the GNU General Public License

 * along with this program; if not, write to the Free Software

 * Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA  02111-1307  USA

 *

 *

 * CVS :        $Id: aster8.c,v 1.7 2006-07-03 12:53:13 tullio Exp $

 Test for Sporadic Server (ss):

 this is a part of the classic Hartik demo Aster.

 it is based on test 17 (h), and the JobControl Task uses an

 SOFT_TASK_MODEL served by a sporadic server

 There are two "dummy" tasks that increment a counter and print

 the value. One uses a SOFT_TASK_MODEL served by sporadic server,

 the other uses a NRT_TASK_MODEL handled by RR module.

*/

#include "kernel/kern.h"

#include "edf/edf/edf.h"

#include "cbs/cbs/cbs.h"

#include "ss/ss/ss.h"

#include <drivers/shark_keyb26.h>

int num_aster = 0;

#define EDF_LEV         1

#define CBS_LEV         2

#define SS_LEV          3

#define ASTER_LIM       60

#define DISPLAY_MAX     8

#define ASTER_MAX       70

#define STAT_Y          9

#define PER_MAX          5

#define APER_MAX         8

#define PER_WCET     16000

#define APER_WCET    22000

#define JET_WCET     20000

#define APER_REP     22000

PID aper_table[APER_MAX];

mutex_t m1;

#define PIMUTEX

//#define PCMUTEX

//#define NPPMUTEX

//#define NOPMUTEX

#define LONGSC

#ifdef LONGSC

#define SOFT_MET      12000 /* 12000 */

#define CLOCK_WCET    300 /* 300*/

#define ASTER_WCET    300 /* 300*/

#else

#define SOFT_MET      5000 /* 4500 */

#define CLOCK_WCET    2000 /* 200*/

#define ASTER_WCET    2000 /* 200*/

#endif

PID p1,p2,p3,p4,p5;

TASK asteroide(void)

{

    int i;

    int y = rand() % 7 + 1;

    int load1,j;

    char s[2];

    s[0] = '*'; s[1] = 0;

    for (;;) {

      i = 1;

      while (i < ASTER_LIM) {

        load1 = 10000; //8000 + rand()%2000;

        #ifdef LONGSC

          mutex_lock(&m1);

        #endif

        for (j=0; j<load1; j++) {

          s[0] = '*' + rand() % 100;

          #ifndef LONGSC

            mutex_lock(&m1);

          #endif

          puts_xy(i,y,rand()%15+1,s);

          #ifndef LONGSC

            mutex_unlock(&m1);

          #endif

        }

        #ifdef LONGSC

          mutex_unlock(&m1);

        #endif

        task_activate(aper_table[rand()%APER_MAX]);

        task_endcycle();

        mutex_lock(&m1);

        puts_xy(i,y,WHITE," ");

        mutex_unlock(&m1);

        i++;

      }

    }

    //num_aster--;

}

TASK aper_asteroid(void *a)

{

    int i;

    int y = rand() % 7 + 1;

    int load1,j;

    int c;

    char s[2];

    c = (int)a;

    s[0] = '*'; s[1] = 0;

    for (;;) {

      i = 1;

      while (i < ASTER_LIM) {

        load1 = APER_REP; //8000 + rand()%2000;

        #ifdef LONGSC

          mutex_lock(&m1);

        #endif

        for (j=0; j<load1; j++) {

          s[0] = '*' + rand() % 100;

          #ifndef LONGSC

            mutex_lock(&m1);

          #endif

          puts_xy(i,y,rand()%15+1,s);

          #ifndef LONGSC

            mutex_unlock(&m1);

          #endif

        }

        s[0] = c;

        #ifndef LONGSC

          mutex_unlock(&m1);

        #endif

        mutex_lock(&m1);

        puts_xy(i,y,rand()%15+1,s);

        mutex_unlock(&m1);

        task_endcycle();

        mutex_lock(&m1);

        puts_xy(i,y,WHITE," ");

        mutex_unlock(&m1);

        i++;

      }

    }

}

TASK soft_aster(void)

{

    int i;

    int y = rand() % 7 + 1;

    int load1,j;

    char s[2];

    s[0] = '*'; s[1] = 0;

    /*for (;;)*/ {

      i = 1;

      while (i < ASTER_LIM) {

        load1 = 1000 + rand()%9000;

        #ifdef LONGSC

          mutex_lock(&m1);

        #endif

        for (j=0; j<load1; j++) {

          s[0] = '*' + rand() % 100;

          #ifndef LONGSC

            mutex_lock(&m1);

          #endif

          puts_xy(i,y,rand()%15+1,s);

          #ifndef LONGSC

            mutex_unlock(&m1);

          #endif

        }

        s[0] = 1;

        #ifndef LONGSC

          mutex_lock(&m1);

        #endif

        //mutex_lock(&m1);

        puts_xy(i,y,rand()%15+1,s);

        mutex_unlock(&m1);

        task_activate(aper_table[rand()%APER_MAX]);

        task_endcycle();

        mutex_lock(&m1);

        puts_xy(i,y,WHITE," ");

        mutex_unlock(&m1);

        i++;

      }

    }

    num_aster--;

    return 0;

}

TASK aster()

{

    PID p;

    SOFT_TASK_MODEL m_soft;

    int r;

    int x; // adaptive bandwidth...

    srand(7);

    soft_task_default_model(m_soft);

    soft_task_def_met(m_soft,SOFT_MET);

    soft_task_def_ctrl_jet(m_soft);

    x = 128; //64;

    while (1) {

        if (num_aster < ASTER_MAX) {

            r = (rand() % 200);

            soft_task_def_period(m_soft, (x+r)*1000);

            p = task_create("aaa",soft_aster,&m_soft,NULL);

            if (p == -1)

            {

              if (x < 500 && errno != ENO_AVAIL_TASK)  x += 1;

              mutex_lock(&m1);

              printf_xy(62,3,WHITE,"adapt=%3u err=%d",

                        iq_query_first(&freedesc), errno);

              mutex_unlock(&m1);

            }

            else {

              num_aster++;

              mutex_lock(&m1);

              printf_xy(62,3,WHITE,"adapt=%3u           ",x);

              mutex_unlock(&m1);

              task_activate(p);

              x /= 2;

              if (x<50) x = 50;

            }

        }

        task_endcycle();

    }

}

TASK clock()

{

    int s = 0, m = 0;

    while(1) {

        mutex_lock(&m1);

        printf_xy(62,1,WHITE,"%2d:%2d ast=%d",m,s, num_aster);

        printf_xy(62,2,WHITE,"Uedf=%12u",EDF_usedbandwidth(EDF_LEV));

        printf_xy(62,4,WHITE,"Ucbs=%12u",CBS_usedbandwidth(CBS_LEV));

        printf_xy(62,5,WHITE,"CSss=%6d",SS_availCs(SS_LEV));

        mutex_unlock(&m1);

        task_endcycle();

        if (++s > 59) {

            s = 0;

            m++;

        }

        mutex_lock(&m1);

        printf_xy(62,1,WHITE,"%2d:%2d ast=%d",m,s, num_aster);

        printf_xy(62,2,WHITE,"Uedf=%12u",EDF_usedbandwidth(EDF_LEV));

        printf_xy(62,4,WHITE,"Ucbs=%12u",CBS_usedbandwidth(CBS_LEV));

        printf_xy(62,5,WHITE,"CSss=%6d",SS_availCs(SS_LEV));

        mutex_unlock(&m1);

        task_endcycle();

    }

}

/* we consider the first ASTER_MAX + 2 tasks from the PID 2

   and plot on the screen the elapsed times... */

TASK jetcontrol()

{

  int i;  /* a counter */

  TIME sum, max, curr, last[5];

  int nact;

  int j; /* the elements set by jet_gettable */

  PID p;

  mutex_lock(&m1);

  printf_xy(0,STAT_Y,WHITE,"PID ³ Mean T.³ Max T. ³ N.A. ³ Curr.   ³ Last1 ³ Last2 ³ Last3 ³ Last4 ³ Last5");

  mutex_unlock(&m1);

  for (;;) {

    for (i=0,p=0; i<DISPLAY_MAX+5 && p<MAX_PROC; p++) {

       if (jet_getstat(p, &sum, &max, &nact, &curr) == -1 /*||

           (proc_table[p].pclass & 0xFF00) == APERIODIC_PCLASS ||

           (proc_table[p].pclass & 0xFF00) == PERIODIC_PCLASS*/ ) continue;

       for (j=0; j<5; j++) last[j] = 0;

       jet_gettable(p, &last[0], 5);

       mutex_lock(&m1);

       if (proc_table[p].task_level == 2)

         printf_xy(0,STAT_Y+i+1,WHITE,"%-3d ³ %-6d ³ %-6d ³ %-4d ³ %-7d ³ %-5d ³ %-5d ³ %-5d ³ %-5d ³ %-5d",

                   p, (int)sum/(nact==0 ? 1 : nact), (int)max, nact, (int)CBS_get_nact(2,p), (int)last[0], (int)last[1], (int)last[2], (int)last[3], (int)last[4]);

//                   p, sum/(nact==0 ? 1 : nact), max, proc_table[p].avail_time, proc_table[p].status, proc_table[p].shadow, proc_table[p].timespec_priority.tv_sec,proc_table[p].timespec_priority.tv_nsec/1000 , CBS_get_nact(2,p), last[4]);

       else

         printf_xy(0,STAT_Y+i+1,WHITE,"%-3d ³ %-6d ³ %-6d ³ %-4d ³ %-7d ³ %-5d ³ %-5d ³ %-5d ³ %-5d ³ %-5d",

                   p, (int)sum/(nact==0 ? 1 : nact), (int)max, (int)nact, (int)curr, (int)last[0], (int)last[1], (int)last[2], (int)last[3], (int)last[4]);

//                   p, sum/(nact==0 ? 1 : nact), max, nact, proc_table[p].status, proc_table[p].shadow, proc_table[p].timespec_priority.tv_sec,proc_table[p].timespec_priority.tv_nsec/1000 , last[3], last[4]);

       mutex_unlock(&m1);

       i++;

       task_activate(p3);

       task_endcycle();

    }

  }

}

void fine(KEY_EVT *e)

{

  exit(0);

}

void mydummyaper(void) {

        int i=0;

        while(1) {

                mutex_lock(&m1);

                printf_xy(1,24,RED,"dummyAPER pid=%d: %d",p4,i++);

                mutex_unlock(&m1);

                task_activate(p4);

                task_endcycle();

        }

}

void mydummynrt(void) {

        int i=0;

        while(1) {

                mutex_lock(&m1);

                printf_xy(40,24,RED,"dummyNRT pid=%d: %d",p5,i++);

                mutex_unlock(&m1);

        }

}

int main(int argc, char **argv)

{

//    PID p1,p2,p5;

    HARD_TASK_MODEL m;

    NRT_TASK_MODEL m_nrt;

    SOFT_TASK_MODEL m_aper;

    SOFT_TASK_MODEL m_soft;

    #ifdef PIMUTEX

    PI_mutexattr_t a;

    #endif

    #ifdef PCMUTEX

    PC_mutexattr_t a;

    #endif

    #ifdef NPPMUTEX

    NPP_mutexattr_t a;

    #endif

    #ifdef NOPMUTEX

    NOP_mutexattr_t a;

    #endif

    KEY_EVT emerg;

    emerg.ascii = 'c';

    emerg.scan = KEY_C;

    emerg.flag = CNTL_BIT;

    emerg.status = KEY_PRESSED;

    keyb_hook(emerg,fine,FALSE);

          emerg.flag = CNTR_BIT;

    emerg.status = KEY_PRESSED;

    keyb_hook(emerg,fine,FALSE);

    clear();

    cprintf("Press Ctrl-C to end the demo...");

    hard_task_default_model(m);

    hard_task_def_mit(m,100000);

    hard_task_def_wcet(m,ASTER_WCET);

    hard_task_def_group(m,1);

    hard_task_def_ctrl_jet(m);

    nrt_task_default_model(m_nrt);

    nrt_task_def_group(m_nrt,1);

    nrt_task_def_ctrl_jet(m_nrt);

    soft_task_default_model(m_aper);

    soft_task_def_group(m_aper,1);

    soft_task_def_ctrl_jet(m_aper);

    soft_task_def_aperiodic(m_aper);

    soft_task_default_model(m_soft);

    soft_task_def_period(m_soft,10000);

    soft_task_def_met(m_soft,JET_WCET);

    soft_task_def_group(m_soft,1);

    soft_task_def_ctrl_jet(m_soft);

    soft_task_def_aperiodic(m_soft);

    p1 = task_create("Aster",aster,&m,NULL);

    if (p1 == -1) {

        sys_shutdown_message("test7.c(main): Could not create task <aster> ...");

        exit(1);

        return 0;

    }

    hard_task_def_mit(m,50000);

    hard_task_def_wcet(m,CLOCK_WCET);

    p2 = task_create("Clock",clock,&m,NULL);

    if (p2 == -1) {

        sys_shutdown_message("test7.c(main): Could not create task <Clock> ...");

        exit(1);

        return 0;

    }

    p3 = task_create("JetControl",jetcontrol,&m_aper,NULL);

    if (p3 == -1) {

        sys_shutdown_message("test7.c(main): Could not create task <JetControl> ...");

        exit(1);

        return 0;

    }

    p4 = task_create("MyDummyAper",(void *(*)(void*))mydummyaper,&m_aper,NULL);

    if (p4 == -1) {

        sys_shutdown_message("Could not create task <MyDummyAper> ...");

        exit(1);

        return 0;

    }

    p5 = task_create("MyDummyNRT",(void *(*)(void*))mydummynrt,&m_nrt,NULL);

    if (p5 == -1) {

        sys_shutdown_message("Could not create task <MyDummyNRT> ...");

        exit(1);

        return 0;

    }

    #ifdef PIMUTEX

    PI_mutexattr_default(a);

    #endif

    #ifdef PCMUTEX

    PC_mutexattr_default(a);

    #endif

    #ifdef NPPMUTEX

    NPP_mutexattr_default(a);

    #endif

    #ifdef NOPMUTEX

    NOP_mutexattr_default(a);

    #endif

    mutex_init(&m1, &a);

    group_activate(1);

    return 0;

}