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#ifndef __FUNC_H__

#define __FUNC_H__

#include "kernel/kern.h"

#include "fsf_basic_types.h"

#include "fsf_core.h"

#include "fsf_server.h"

#include "shark.h"

#define OS_SHARK

#define get_current_exec_task() exec_shadow

/* Return the PID/pthread_t of calling task */

#define generic_get_server_from_contract get_server_from_contract 

/* Return the server_id from the contract number used

 * inside .fsf file to define contract parameters

 *

 * generic_get_server_from_contract(int contract_number) */

#define generic_create_thread fsf_create_thread

/* Create a task/thread inside a specific server.

 * it's very similar to fsf_create_thread, but we need a parameter

 * to set the local scheduler task and actually it's outside

 * the framework

 *

 * generic_task_create(

 *           server number,

 *           pthread_t of created task (-1 if failed),

 *           pthread_attr_t,

 *           task_body,

 *           arg of the body (must be "(void *)current"),

 *           arg for real-time task specification)

 */

#define generic_calibrate_cycle calibrate_cycle

/* Set the calibration parameter "cal_cycle"

 * only if it's initialized to 0. The calibration routine

 * calculates cal_cycle from CALIBRATION_DELTA.

 * This step can also be performed outside the demo.

 * Inside calibrate.h you can set the calibration parameters

 * for calibration step performed outside.

 *

 * cal_cycle is the number of cycles that are needed to

 * make CALIBRATION_DELTA number of iteration.

 *

 * kern_cli();

 * kern_gettime(&start);

 * for (i=0;i<CALIBRATION_DELTA;i++)

 *   __asm__ __volatile__ ("xorl %%eax,%%eax\n\t"

 *                         "cpuid\n\t"

 *                         :::"eax","ebx","ecx","edx");

 * kern_gettime(&end);

 * kern_sti();

 *

 * SUBTIMESPEC(&end,&start,&diff);

 * cal_cycles = TIMESPEC2USEC(&diff);

 *

 */

#define generic_set_next_activation set_next_activation

/* Set the next activation time. It's like fsf_schedule_next_timed_job

 * but it don't return nothing

 */

#define generic_set_simulation_time set_simulation_time

/* Set the end time of simulation */

#define generic_get_task_model get_task_model

/* Return a pointer to the struct that contains the

 * local shceduler parameter */

#define generic_start_simulation start_simulation

/* Start the simulation */

#define generic_fsfinit() fsfinit()

/* Create the fsf_server */

#define generic_task_endcycle() task_endcycle()

/* The job is finished */

#define generic_end_simulation() sys_end()

/* Exit from simulation */

#define printf cprintf

/* Printf standard function */

/* Mutex */

extern __inline__ void generic_lock_mutex(int res) {

  extern mutex_t mutex_table[MAX_MUTEX];

  mutex_lock(&mutex_table[res]);

}

extern __inline__ void generic_unlock_mutex(int res) {

  extern mutex_t mutex_table[MAX_MUTEX];

  mutex_unlock(&mutex_table[res]);

}

/* TASK RUNTIME FUNCTIONS */

extern __inline__ void start_oneshot_task(void) {}

extern __inline__ void end_oneshot_task(void) {}

extern __inline__ void start_periodic_task(void) {}

extern __inline__ void start_job_periodic_task(void) {

   task_testcancel();

}

extern __inline__ void end_job_periodic_task(void) {

   task_testcancel();

}

extern __inline__ void end_periodic_task(void) {}

extern __inline__ void start_back_task(void) {}

extern __inline__ void start_job_back_task(void) {

  task_testcancel();

}

extern __inline__ void end_job_back_task(void) {

  task_testcancel();

}

extern __inline__ void end_back_task(void) {}

#endif