int main()
{
pcb_t *init;
int i;
/* Populate the processor state areas into the ROM Reserved Frame */
populateArea(SYSBK_NEWAREA, (memaddr) sysBpHandler); /* SYS/BP Exception Handling */
populateArea(PGMTRAP_NEWAREA, (memaddr) pgmTrapHandler); /* PgmTrap Exception Handling */
populateArea(INT_NEWAREA, (memaddr) intHandler); /* Interrupt Exception Handling */
populateArea(TLB_NEWAREA, (memaddr) tlbHandler); /* TLB Exception Handling */
/* Initialize data structures */
initPcbs();
initASL();
/* Initialize global variables */
ReadyQueue = mkEmptyProcQ();
CurrentProcess = NULL;
ProcessCount = SoftBlockCount = TimerTick = PseudoClock = 0;
/* Initialize device semaphores */
for (i = 0; i < DEV_PER_INT; i++)
Semaphore.disk[i] =
Semaphore.tape[i] =
Semaphore.network[i] =
Semaphore.printer[i] =
Semaphore.terminalR[i] =
Semaphore.terminalT[i] = 0;
/* Initialize init method */
if (!(init = allocPcb()))
PANIC(); /* Anomaly */
/* Enable interrupts; enable Kernel-Mode; disable Virtual Memory */
init->p_s.CP15_Control &= ~(0x1);
init->p_s.cpsr = STATUS_SYS_MODE | STATUS_ALL_INT_ENABLE(init->p_s.cpsr);
/* Initialize Stack Pointer */
init->p_s.sp = RAM_TOP - BUS_REG_RAM_SIZE;
/* Initialize Program Counter with the test process */
init->p_s.pc = (memaddr) test;
/* Insert init in ProcQ */
insertProcQ(&ReadyQueue, init);
/* Initialize Process Id */
ProcessCount++;
/* Start the timer tick */
StartTimerTick = getTODLO();
/* Call the scheduler */
scheduler();
/* Anomaly */
PANIC();
return 0;
}
/*Entry point del sistema. Main() inizializza e popola le NewOldArea della ROM e le NewOldArea delle CPU > 0
Inizializza le strutture dati di fase1, i semafori dei device e chiama lo scheduler*/
int main(){
int i = 0;
/*Init NewOldArea della ROM*/
initNewOldArea((state_t *)INT_NEWAREA, (memaddr) interruptHandler, 0);
initNewOldArea((state_t *)TLB_NEWAREA, (memaddr)tlbHandler, 0);
initNewOldArea((state_t *)PGMTRAP_NEWAREA, (memaddr) trapHandler, 0);
initNewOldArea((state_t *)SYSBK_NEWAREA, (memaddr) syscallHandler, 0);
/*Init NewOldArea delle CPU > 0.*/
for (i=1; i<GET_NCPU;i++){
initNewOldArea(&new_old_areas[i][INT_NEWAREA_INDEX], (memaddr) interruptHandler, i);
initNewOldArea(&new_old_areas[i][TLB_NEWAREA_INDEX], (memaddr) tlbHandler, i);
initNewOldArea(&new_old_areas[i][PGMTRAP_NEWAREA_INDEX], (memaddr) trapHandler, i);
initNewOldArea(&new_old_areas[i][SYSBK_NEWAREA_INDEX], (memaddr) syscallHandler, i);
}
/*Inizializzo le strutture dati di fase1*/
initPcbs();
initASL();
/*Inizializzo tutte le variabili del nucleo: Process Count, Soft-block Count, Ready Queues, and Current Process.*/
for (i=0; i<GET_NCPU; i++){
process_count[i] = 0; /*Counter processi attivi*/
ready_queue[i] = NULL; /*Coda dei processi in stato ready*/
current_process[i] = NULL; /*Puntatore al processo in esecuzione*/
}
softBlock_count = 0; /*Contatore processi in stato wait*/
/*Inizializzo i semafori mantenuti dal nucleo
Vengono impostati a 0 i semafori dei device (uno per device), due per ogni terminal (scrittura/lettura) e
il semaforo dello pseudoClock.*/
for(i=0;i<DEV_PER_INT;i++){
sem_disk[i] = 0;
sem_tape[i] = 0;
sem_ethernet[i] = 0;
sem_printer[i] = 0;
sem_terminal_read[i] = 0;
sem_terminal_write[i] = 0;
}
pseudo_clock = 0;
/*Inizializzo i semafori delle CAS:
0-MAX_CPUS: Scheduler
MAX_CPUS+1: PV
MAX_CPUS+2: PseudoClock*/
for (i=0;i<NUM_SEM_CUSTOM; i++)
semArray[i] = 1;
/*Inizializzo lo scheduler*/
init();
/*Error: Non uscirò mai dallo scheduler*/
PANIC();
return -1;
}
int main() {
initExceptionHandlers();
initPcbs();
initASL();
// Initialize device semaphores
memset(&semaphores, 0, sizeof(semaphores));
// Create init and start the scheduler
pcb_t *init;
init = makeInit();
init->p_pid = 1;
boot_start=getTODLO();
schedStart(init);
return 0;
}
int main() {
int i,j;
/* Setting up CPU0 new areas in ROM. */
populateArea((state_t *)INT_NEWAREA,(memaddr)intHandler,0);
populateArea((state_t *)TLB_NEWAREA,(memaddr)tlbHandler,0);
populateArea((state_t *)PGMTRAP_NEWAREA,(memaddr)trapHandler,0);
populateArea((state_t *)SYSBK_NEWAREA,(memaddr)sysHandler,0);
/* Setting up CPU-n (with n >= 1) new areas in RAM, in a defined array of state_t pointers. */
for (i = 1; i < NUM_CPU; i++)
for (j = 0; j < 4; j++)
switch (j) {
case 0: populateArea(&new_old_areas[i][1],(memaddr)intHandler,i); break;
case 1: populateArea(&new_old_areas[i][3],(memaddr)tlbHandler,i); break;
case 2: populateArea(&new_old_areas[i][5],(memaddr)trapHandler,i); break;
case 3: populateArea(&new_old_areas[i][7],(memaddr)sysHandler,i); break;
}
/* Initialization of underlaying data structures. */
initPcbs();
initASL();
/* Inizialization of device semaphores. TODO */
if ((psClock_timer = getSemd(0)) != NULL)
psClock_timer -> s_value = 0;
if ((terminalWrite = getSemd(1)) != NULL)
terminalWrite -> s_value = 0;
if ((terminalRead = getSemd(2)) != NULL)
terminalRead -> s_value = 0;
/* Scheduler initialization process. */
initScheduler(i);
return 1;
}
int main(){
int i, j;
state_t *statep;
//popolo le aree della ROM
init_area(INT_NEWAREA, (memaddr) int_handler);
init_area(TLB_NEWAREA, (memaddr) tlb_handler);
init_area(PGMTRAP_NEWAREA, (memaddr) trap_handler);
init_area(SYSBK_NEWAREA, (memaddr) sys_handler);
//inizializzo le strutture di phase1
initPcbs();
initASL();
//inizializzo le variabili di sistema
process_count = 0;
softblock_count = 0;
//mappa dei process id liberi
for( i = 0; i < MAXPROC ; i++ ) pid_map[i] = 0;
//array di puntatori ai processi attivi
for( i = 0; i < MAXPROC ; i++ ) activeProcesses[i] = NULL;
//semafori dei device
for(i = 0; i < MAX_DEVICES; i++) devSem[i] = 0;
//registri di stato da conservare dei device
for(i = 0; i < MAX_DEVICES; i++) devStatus[i] = 0;
//tempo di gestione degli interrupt
for(i = 0; i < MAX_DEVICES; i++) interruptTime[i] = 0;
if( !((first = allocPcb()) && (twiddle = allocPcb()))){
PANIC();
}
processSet( twiddle, (memaddr) idle, PRIO_IDLE); //il processo idle ha id 1
processSet( first, (memaddr) test, PRIO_NORM );
current_process = NULL;
process_count++;
scheduler();
}
int main() {
int i;
initPcbs();
addokbuf("Initialized process control blocks \n");
/* Check allocPcb */
for (i = 0; i < MAXPROC; i++) {
if ((procp[i] = allocPcb()) == NULL)
adderrbuf("allocPcb(): unexpected NULL ");
}
if (allocPcb() != NULL) {
adderrbuf("allocPcb(): allocated more than MAXPROC entries ");
}
addokbuf("allocPcb ok \n");
/* return the last 10 entries back to free list */
for (i = 10; i < MAXPROC; i++)
freePcb(procp[i]);
addokbuf("freed 10 entries \n");
/* create a 10-element process queue */
qa = mkEmptyProcQ();
if (!emptyProcQ(qa)) adderrbuf("emptyProcQ(qa): unexpected FALSE ");
addokbuf("Inserting... \n");
for (i = 0; i < 10; i++) {
if ((q = allocPcb()) == NULL)
adderrbuf("allocPcb(): unexpected NULL while insert ");
switch (i) {
case 0:
firstproc = q;
break;
case 5:
midproc = q;
break;
case 9:
lastproc = q;
break;
default:
break;
}
insertProcQ(&qa, q);
}
addokbuf("inserted 10 elements \n");
if (emptyProcQ(qa)) adderrbuf("emptyProcQ(qa): unexpected TRUE" );
/* Check outProcQ and headProcQ */
if (headProcQ(qa) != firstproc)
adderrbuf("headProcQ(qa) failed ");
q = outProcQ(&qa, firstproc);
if ((q == NULL) || (q != firstproc))
adderrbuf("outProcQ(&qa, firstproc) failed on first entry ");
freePcb(q);
q = outProcQ(&qa, midproc);
if (q == NULL || q != midproc)
adderrbuf("outProcQ(&qa, midproc) failed on middle entry ");
freePcb(q);
if (outProcQ(&qa, procp[0]) != NULL)
adderrbuf("outProcQ(&qa, procp[0]) failed on nonexistent entry ");
addokbuf("outProcQ() ok \n");
/* Check if removeProc and insertProc remove in the correct order */
addokbuf("Removing... \n");
for (i = 0; i < 8; i++) {
if ((q = removeProcQ(&qa)) == NULL)
adderrbuf("removeProcQ(&qa): unexpected NULL ");
freePcb(q);
}
if (q != lastproc)
adderrbuf("removeProcQ(): failed on last entry ");
if (removeProcQ(&qa) != NULL)
adderrbuf("removeProcQ(&qa): removes too many entries ");
if (!emptyProcQ(qa))
adderrbuf("emptyProcQ(qa): unexpected FALSE ");
addokbuf("insertProcQ(), removeProcQ() and emptyProcQ() ok \n");
addokbuf("process queues module ok \n");
addokbuf("checking process trees...\n");
if (!emptyChild(procp[2]))
adderrbuf("emptyChild: unexpected FALSE ");
/* make procp[1] through procp[9] children of procp[0] */
addokbuf("Inserting... \n");
for (i = 1; i < 10; i++) {
insertChild(procp[0], procp[i]);
}
addokbuf("Inserted 9 children \n");
if (emptyChild(procp[0]))
adderrbuf("emptyChild(procp[0]): unexpected TRUE ");
/* Check outChild */
q = outChild(procp[1]);
if (q == NULL || q != procp[1])
adderrbuf("outChild(procp[1]) failed on first child ");
q = outChild(procp[4]);
if (q == NULL || q != procp[4])
adderrbuf("outChild(procp[4]) failed on middle child ");
if (outChild(procp[0]) != NULL)
adderrbuf("outChild(procp[0]) failed on nonexistent child ");
addokbuf("outChild ok \n");
/* Check removeChild */
addokbuf("Removing... \n");
for (i = 0; i < 7; i++) {
if ((q = removeChild(procp[0])) == NULL)
adderrbuf("removeChild(procp[0]): unexpected NULL ");
}
if (removeChild(procp[0]) != NULL)
adderrbuf("removeChild(): removes too many children ");
if (!emptyChild(procp[0]))
adderrbuf("emptyChild(procp[0]): unexpected FALSE ");
addokbuf("insertChild(), removeChild() and emptyChild() ok \n");
addokbuf("process tree module ok \n");
for (i = 0; i < 10; i++)
freePcb(procp[i]);
/* check ASL */
initASL();
addokbuf("Initialized active semaphore list \n");
/* check removeBlocked and insertBlocked */
addokbuf("insertBlocked() test #1 started \n");
for (i = 10; i < MAXPROC; i++) {
procp[i] = allocPcb();
if (insertBlocked(&sem[i], procp[i]))
adderrbuf("insertBlocked() test#1: unexpected TRUE ");
}
addokbuf("insertBlocked() test #2 started \n");
for (i = 0; i < 10; i++) {
procp[i] = allocPcb();
if (insertBlocked(&sem[i], procp[i]))
adderrbuf("insertBlocked() test #2: unexpected TRUE ");
}
/* check if semaphore descriptors are returned to free list */
p = removeBlocked(&sem[11]);
if (insertBlocked(&sem[11],p))
adderrbuf("removeBlocked(): fails to return to free list ");
if (insertBlocked(&onesem, procp[9]) == FALSE)
adderrbuf("insertBlocked(): inserted more than MAXPROC ");
addokbuf("removeBlocked() test started \n");
for (i = 10; i< MAXPROC; i++) {
q = removeBlocked(&sem[i]);
if (q == NULL)
adderrbuf("removeBlocked(): wouldn't remove ");
if (q != procp[i])
adderrbuf("removeBlocked(): removed wrong element ");
if (insertBlocked(&sem[i-10], q))
adderrbuf("insertBlocked(3): unexpected TRUE ");
}
if (removeBlocked(&sem[11]) != NULL)
adderrbuf("removeBlocked(): removed nonexistent blocked proc ");
addokbuf("insertBlocked() and removeBlocked() ok \n");
if (headBlocked(&sem[11]) != NULL)
adderrbuf("headBlocked(): nonNULL for a nonexistent queue ");
if ((q = headBlocked(&sem[9])) == NULL)
adderrbuf("headBlocked(1): NULL for an existent queue ");
if (q != procp[9])
adderrbuf("headBlocked(1): wrong process returned ");
p = outBlocked(q);
if (p != q)
adderrbuf("outBlocked(1): couldn't remove from valid queue ");
q = headBlocked(&sem[9]);
if (q == NULL)
adderrbuf("headBlocked(2): NULL for an existent queue ");
if (q != procp[19])
adderrbuf("headBlocked(2): wrong process returned ");
p = outBlocked(q);
if (p != q)
adderrbuf("outBlocked(2): couldn't remove from valid queue ");
p = outBlocked(q);
if(c = p)
addokbuf("saaaaaas \n");
if (p != NULL)
adderrbuf("outBlocked(): removed same process twice.");
if (headBlocked(&sem[9]) != NULL)
adderrbuf("out/headBlocked: unexpected nonempty queue ");
addokbuf("headBlocked() and outBlocked() ok \n");
addokbuf("ASL module ok \n");
addokbuf("So Long and Thanks for All the Fish\n");
return 0;
}
int main(void)
{
/************* INIZIALIZZAZIONE DEL SISTEMA */
/* Inizializzazione del vettore dei lock a PASS */
initLock();
/* Inizializzo le new (e old) area di tutte le CPU */
initAreas(pnew_old_areas, NUM_CPU);
/* Inizializzo le strutture dati di Phase1 */
initPcbs();
initASL();
/* Inizializzo le strutture dello scheduler */
initReadyQueues();
/************* CARICAMENTO DEI PROCESSI NELLE READY QUEUE */
/* Test phase2 */
//pcb_t *phase2 = allocPcb();
//STST(&(phase2->p_s));
//phase2->p_s.status = getSTATUS();
//phase2->p_s.pc_epc = phase2->p_s.reg_t9 = (memaddr)p2test;
//phase2->p_s.reg_sp = PFRAMES_START;
//addReady(phase2);
/* Test di alcuni processi di prova */
pcb_t *test1 = allocPcb();
STST(&(test1->p_s));
test1->p_s.status = getSTATUS();
(test1->p_s).pc_epc = (test1->p_s).reg_t9 = (memaddr)print1;
test1->p_s.reg_sp = PFRAMES_START;
addReady(test1);
/* Test di alcuni processi di prova */
pcb_t *test2 = allocPcb();
STST(&(test2->p_s));
test2->p_s.status = getSTATUS();
test2->p_s.pc_epc = test2->p_s.reg_t9 = (memaddr)print2;
test2->p_s.reg_sp = test1->p_s.reg_sp-FRAME_SIZE;
addReady(test2);
pcb_t *test3 = allocPcb();
STST(&(test3->p_s));
test3->p_s.status = getSTATUS();
test3->p_s.pc_epc = test3->p_s.reg_t9 = (memaddr)print3;
test3->p_s.reg_sp = test2->p_s.reg_sp-FRAME_SIZE;
addReady(test3);
pcb_t *test4 = allocPcb();
STST(&(test4->p_s));
test4->p_s.status = getSTATUS();
test4->p_s.pc_epc = test4->p_s.reg_t9 = (memaddr)print4;
test4->p_s.reg_sp = test3->p_s.reg_sp-FRAME_SIZE;
addReady(test4);
/************* ESECUZIONE DEI PROCESSI */
/* Inizializzo la Interrupt Routing Table dinamica */
/* initIRT(); */
/* Inizializzo le altre CPU e faccio partire lo scheduler */
initCpus();
return 0;
}
/**
* @brief Inizializzazione del nucleo.
* @return void.
*/
int main(void)
{
pcb_t *init;
int i;
/* Popolazione delle 4 nuove aree nella ROM Reserved Frame */
/* SYS/BP Exception Handling */
populate(SYSBK_NEWAREA, (memaddr) sysBpHandler);
/* PgmTrap Exception Handling */
populate(PGMTRAP_NEWAREA, (memaddr) pgmTrapHandler);
/* TLB Exception Handling */
populate(TLB_NEWAREA, (memaddr) tlbHandler);
/* Interrupt Exception Handling */
populate(INT_NEWAREA, (memaddr) intHandler);
/* Inizializzazione delle strutture dati del livello 2 (phase1) */
initPcbs();
initSemd();
/* Inizializzazione delle variabili globali */
mkEmptyProcQ(&readyQueue);
currentProcess = NULL;
processCount = softBlockCount = pidCount = 0;
timerTick = 0;
/* Inizializzazione della tabella dei pcb utilizzati */
for(i=0; i<MAXPROC; i++)
{
pcbused_table[i].pid = 0;
pcbused_table[i].pcb = NULL;
}
/* Inizializzazione dei semafori dei device */
for(i=0; i<DEV_PER_INT; i++)
{
sem.disk[i] = 0;
sem.tape[i] = 0;
sem.network[i] = 0;
sem.printer[i] = 0;
sem.terminalR[i] = 0;
sem.terminalT[i] = 0;
}
/* Inizializzazione del semaforo dello pseudo-clock */
pseudo_clock = 0;
/* Inizializzazione del primo processo (init) */
/* Se il primo processo (init) non viene creato, PANIC() */
if((init = allocPcb()) == NULL)
PANIC();
/* Interrupt attivati e smascherati, Memoria Virtuale spenta, Kernel-Mode attivo */
init->p_state.status = (init->p_state.status | STATUS_IEp | STATUS_INT_UNMASKED | STATUS_KUc) & ~STATUS_VMp;
/* Il registro SP viene inizializzato a RAMTOP-FRAMESIZE */
init->p_state.reg_sp = RAMTOP - FRAME_SIZE;
/* PC inizializzato all'indirizzo di test() */
init->p_state.pc_epc = init->p_state.reg_t9 = (memaddr)test;
/* Il PID impostato per init è 1 */
pidCount++;
init->p_pid = pidCount;
/* Aggiorna la tabella dei pcb utilizzati, assegnando il giusto pid e il puntatore al pcb di init */
pcbused_table[0].pid = init->p_pid;
pcbused_table[0].pcb = init;
/* Inserisce init nella coda di processi Ready */
insertProcQ(&readyQueue, init);
processCount++;
/* Avvio il tempo per il calcolo dello pseudo-clock tick */
startTimerTick = GET_TODLOW;
scheduler();
return 0;
}
int main() {
int i;
initPcbs();
addokbuf("Initialized Process Control Blocks \n");
/* Check allocPcb */
for (i = 0; i < MAXPROC; i++) {
if ((procp[i] = allocPcb()) == NULL)
adderrbuf("allocPcb(): unexpected NULL ");
}
if (allocPcb() != NULL) {
adderrbuf(" ERROR: allocPcb(): allocated more than MAXPROC entries ");
}
addokbuf(" allocPcb test OK \n");
/* Return the last 10 entries back to free list */
for (i = 10; i < MAXPROC; i++)
freePcb(procp[i]);
addokbuf(" Added 10 entries to the free PCB list \n");
/* Create a 10-element process queue */
INIT_LIST_HEAD(&qa);
if (!emptyProcQ(&qa)) adderrbuf("ERROR: emptyProcQ(qa): unexpected FALSE ");
addokbuf("Testing insertProcQ ... \n");
for (i = 0; i < 10; i++) {
if ((q = allocPcb()) == NULL)
adderrbuf("ERROR: allocPcb(): unexpected NULL while insert ");
switch (i) {
case 3:
q->priority=DEFAULT_PCB_PRIORITY;
proc = q;
break;
case 4:
q->priority=MAX_PCB_PRIORITY;
maxproc = q;
break;
case 5:
q->priority=MIN_PCB_PRIORITY;
minproc=q;
break;
default:
q->priority=DEFAULT_PCB_PRIORITY;
break;
}
insertProcQ(&qa, q);
}
addokbuf("Test insertProcQ: OK. Inserted 10 elements \n");
if (emptyProcQ(&qa)) adderrbuf("ERROR: emptyProcQ(qa): unexpected TRUE" );
/* Check outProcQ and headProcQ */
if (headProcQ(&qa) != maxproc)
adderrbuf("ERROR: headProcQ(qa) failed ");
/* Removing an element from ProcQ */
q = outProcQ(&qa, proc);
if ((q == NULL) || (q != proc))
adderrbuf("ERROR: outProcQ(&qa, proc) failed to remove the entry ");
freePcb(q);
/* Removing the first element from ProcQ */
q = removeProcQ(&qa);
if (q == NULL || q != maxproc)
adderrbuf("ERROR: removeProcQ(&qa, midproc) failed to remove the elements in the right order ");
freePcb(q);
/* Removing other 7 elements */
addokbuf(" Testing removeProcQ ... \n");
for (i = 0; i < 7; i++) {
if ((q = removeProcQ(&qa)) == NULL)
adderrbuf("removeProcQ(&qa): unexpected NULL ");
freePcb(q);
}
// Removing the last element
q=removeProcQ(&qa);
if (q != minproc)
adderrbuf("ERROR: removeProcQ(): failed on last entry ");
freePcb(q);
if (removeProcQ(&qa) != NULL)
adderrbuf("ERROR: removeProcQ(&qa): removes too many entries ");
if (!emptyProcQ(&qa))
adderrbuf("ERROR: emptyProcQ(qa): unexpected FALSE ");
addokbuf(" Test insertProcQ(), removeProcQ() and emptyProcQ(): OK \n");
addokbuf(" Test process queues module: OK \n");
addokbuf(" Testing process trees...\n");
if (!emptyChild(procp[2]))
adderrbuf("ERROR: emptyChild: unexpected FALSE ");
/* make procp[1],procp[2],procp[3], procp[7] children of procp[0] */
addokbuf("Inserting... \n");
insertChild(procp[0], procp[1]);
insertChild(procp[0], procp[2]);
insertChild(procp[0], procp[3]);
insertChild(procp[0], procp[7]);
addokbuf("Inserted 2 children of pcb0 \n");
/* make procp[8],procp[9] children of procp[7] */
insertChild(procp[7], procp[8]);
insertChild(procp[7], procp[9]);
addokbuf("Inserted 2 children of pcb7 \n");
if (emptyChild(procp[0]))
adderrbuf("ERROR: emptyChild(procp[0]): unexpected TRUE ");
if (emptyChild(procp[7]))
adderrbuf("ERROR: emptyChild(procp[0]): unexpected TRUE ");
/* Check outChild */
q = outChild(procp[1]);
if (q == NULL || q != procp[1])
adderrbuf("ERROR: outChild(procp[1]) failed ");
q = outChild(procp[8]);
if (q == NULL || q != procp[8])
adderrbuf("ERROR: outChild(procp[8]) failed ");
/* Check removeChild */
q = removeChild(procp[0]);
if (q == NULL || q != procp[2])
adderrbuf("ERROR: removeChild(procp[0]) failed ");
q = removeChild(procp[7]);
if (q == NULL || q != procp[9])
adderrbuf("ERROR: removeChild(procp[7]) failed ");
q = removeChild(procp[0]);
if (q == NULL || q != procp[3])
adderrbuf("ERROR: removeChild(procp[0]) failed ");
q = removeChild(procp[0]);
if (q == NULL || q != procp[7])
adderrbuf("ERROR: removeChild(procp[0]) failed ");
if (removeChild(procp[0]) != NULL)
adderrbuf("ERROR: removeChild(): removes too many children ");
if (!emptyChild(procp[0]))
adderrbuf("ERROR: emptyChild(procp[0]): unexpected FALSE ");
addokbuf("Test: insertChild(), removeChild() and emptyChild() OK \n");
addokbuf("Testing process tree module OK \n");
freePcb(procp[0]);
freePcb(procp[1]);
freePcb(procp[2]);
freePcb(procp[3]);
freePcb(procp[4]);
freePcb(procp[5]);
freePcb(procp[6]);
freePcb(procp[7]);
freePcb(procp[8]);
freePcb(procp[9]);
/* check ASL */
initASL();
addokbuf("Initializing active semaphore list \n");
/* check removeBlocked and insertBlocked */
addokbuf(" Test insertBlocked(): test #1 started \n");
for (i = 10; i < MAXPROC; i++) {
procp[i] = allocPcb();
if (insertBlocked(i, procp[i]))
adderrbuf("ERROR: insertBlocked() test#1: unexpected TRUE ");
}
addokbuf("Test insertBlocked(): test #2 started \n");
for (i = 0; i < 10; i++) {
procp[i] = allocPcb();
if (insertBlocked(i, procp[i]))
adderrbuf("ERROR:insertBlocked() test #2: unexpected TRUE ");
}
/* check if semaphore descriptors are returned to the free list */
p = removeBlocked(11);
if (insertBlocked(11,p))
adderrbuf("ERROR: removeBlocked(): fails to return to free list ");
if (insertBlocked(MAXPROC+1, procp[9]) == FALSE)
adderrbuf("ERROR: insertBlocked(): inserted more than MAXPROC ");
addokbuf("Test removeBlocked(): test started \n");
for (i = 10; i< MAXPROC; i++) {
q = removeBlocked(i);
if (q == NULL)
adderrbuf("ERROR: removeBlocked(): wouldn't remove ");
if (q != procp[i])
adderrbuf("ERROR: removeBlocked(): removed wrong element ");
}
if (removeBlocked(11) != NULL)
adderrbuf("ERROR: removeBlocked(): removed nonexistent blocked proc ");
addokbuf("Test: insertBlocked() and removeBlocked() ok \n");
if (headBlocked(11) != NULL)
adderrbuf("ERROR: headBlocked(): nonNULL for a nonexistent queue ");
if ((q = headBlocked(9)) == NULL)
adderrbuf("ERROR: headBlocked(1): NULL for an existent queue ");
if (q != procp[9])
adderrbuf("ERROR: headBlocked(1): wrong process returned ");
p = outBlocked(q);
if (p != q)
adderrbuf("ERROR: outBlocked(1): couldn't remove from valid queue ");
/* Creating a 2-layer tree */
insertChild(procp[0], procp[1]);
insertChild(procp[0], procp[2]);
insertChild(procp[0], procp[3]);
insertChild(procp[3], procp[4]);
/* Testing outChildBlocked */
outChildBlocked(procp[0]);
if (headBlocked(0) != NULL)
adderrbuf("ERROR: outChildBlocked(): nonNULL for a nonexistent queue (0) ");
if (headBlocked(1) != NULL)
adderrbuf("ERROR: outChildBlocked(): nonNULL for a nonexistent queue (1) ");
if (headBlocked(2) != NULL)
adderrbuf("ERROR: outChildBlocked(): nonNULL for a nonexistent queue (2) ");
if (headBlocked(3) != NULL)
adderrbuf("ERROR: outChildBlocked(): nonNULL for a nonexistent queue (3) ");
if (headBlocked(4) != NULL)
adderrbuf("ERROR: outChildBlocked(): nonNULL for a nonexistent queue (4) ");
if (headBlocked(5) == NULL)
adderrbuf("ERROR: outChildBlocked(): NULL for an existent queue (5) ");
addokbuf("Test headBlocked() and outBlocked(): OK \n");
addokbuf("ASL module OK \n");
addokbuf("So Long and Thanks for All the Fish\n");
return 0;
}
