int get_appointments(const char *file_name, Appointment_t appointments[],
int max_size)
{
int year,month,day,hour,min,tc1,tc2;
TCId_no_t tc;
Time_t time;
Date_t date;
char dead;
int i=0;
int status;
int flag=1;
FILE* inp;
inp=fopen(file_name,"r");
do{
status=fscanf(inp,"%6d%5d %d %d %d %2d%c%2d ",&tc1,&tc2,&year,&month,&day,&hour,&dead,&min);
if(status == EOF || i == max_size)
flag=0;
else
{
time=get_time(hour,min);
date=get_date(year,month,day,time);
tc=get_tc(tc1,tc2);
appointments[i].date=date;
appointments[i].people.id_no=tc;
++i;
}
}while(flag);
fclose(inp);
return i;
}
int get_people(const char *file_name, People_t people[], int max_size)
{
int tc1,tc2;
int i=0;
int flag=1;
int status;
char name[30],surname[30];
gender_t gender;
char gndr;
TCId_no_t id;
FILE* inp;
inp=fopen(file_name,"r");
do{
status=fscanf(inp,"%6d%5d %s %s %c\n",&tc1,&tc2,name,surname,&gndr);
switch (gndr){
case 'M' : gender = MALE;
break;
case 'F' : gender = FEMALE;
break;
}
if(status == EOF || i == max_size)
flag=0;
else
{
id=get_tc(tc1,tc2);
people[i].id_no=id;
strcpy(people[i].name,name);
strcpy(people[i].surname,surname);
people[i].gender=gender;
++i;
}
}while(flag);
fclose(inp);
return i;
}
int _start(char *boot_args, char *monitor)
{
unsigned int bootdir_pages;
memset(&ka, 0, sizeof(ka));
init_nextmon(monitor);
dprintf("\nNewOS stage2: args '%s', monitor %p\n", boot_args, monitor);
probe_memory(&ka);
dprintf("tc 0x%x\n", get_tc());
dprintf("urp 0x%x\n", get_urp());
dprintf("srp 0x%x\n", get_srp());
// calculate how big the bootdir is
{
int entry;
bootdir_pages = 0;
for (entry = 0; entry < BOOTDIR_MAX_ENTRIES; entry++) {
if (bootdir[entry].be_type == BE_TYPE_NONE)
break;
bootdir_pages += bootdir[entry].be_size;
}
ka.bootdir_addr.start = (unsigned long)bootdir;
ka.bootdir_addr.size = bootdir_pages * PAGE_SIZE;
dprintf("bootdir: start %p, size 0x%x\n", (char *)ka.bootdir_addr.start, ka.bootdir_addr.size);
}
// begin to set up the physical page allocation range data structures
ka.num_phys_alloc_ranges = 1;
ka.phys_alloc_range[0].start = ka.bootdir_addr.start;
ka.phys_alloc_range[0].size = ka.bootdir_addr.size;
// allocate a stack for the kernel when we jump into it
ka.cpu_kstack[0].start = allocate_page(&ka);
ka.cpu_kstack[0].size = PAGE_SIZE;
ka.num_cpus = 1;
return 0;
}
