double get_tpcc_inter_tx_operation_think_time(int tx_class_id) {
if (tx_class_id == NEW_ORDER) {
return Expent(0.0); //0.035
} else if (tx_class_id == PAYMENT) {
return Expent(0.0);
} else {
printf("\nErrore: classe transazionale non corretta");
return 0;
}
}
static void execute_processing_request(SERVER_lp_state_type *pointer, time_type now, event_content_type *event_content) {
double cpu_service_time = Expent(get_cpu_service_demand(pointer, event_content));
ScheduleNewEvent(pointer->server_id, now + cpu_service_time, CPU_PROCESSING_REQUEST_EXECUTED, event_content, sizeof(event_content_type));
ScheduleNewEvent(pointer->server_id, now + cpu_service_time, event_content->applicative_content.op_type, event_content, sizeof(event_content_type));
if (pointer->configuration.server_verbose) {
("cpu%d - event CPU_PROCESSING_REQUEST_EXECUTED sent to server at time %f\n", pointer->server_id, now + cpu_service_time);
}
}
void fading_recheck(lp_state_type *pointer) {
channel *ch;
ch = pointer->channels;
while(ch != NULL){
ch->sir_data->fading = Expent(1.0);
ch = ch->prev;
}
}
void ProcessEvent(unsigned int me, simtime_t now, int event_type, void *event, size_t size, lp_state_type *state) {
simtime_t timestamp = 0;
event_content_type new_event;
int receiver;
int i;
car_t *car;
event_content_type *event_content = (event_content_type *)event;
(void)size;
if(state != NULL) {
state->lvt = now;
}
switch(event_type) {
// This event initializes the simulation state for each LP and inject first events
case INIT:
state = malloc(sizeof(lp_state_type));
if(state == NULL){
fprintf(stderr, "ERROR: Unable to allocate simulation state!\n");
fflush(stderr);
exit(EXIT_FAILURE);
}
SetState(state);
// Initialize state
bzero(state, sizeof(lp_state_type));
// Parse the topology file and set state accordingly
init_my_state(me, state);
// Set the number of queuable cars in this node
if(state->lp_type == JUNCTION) {
state->total_queue_slots = CARS_PER_JUNCTION;
} else if(state->lp_type == SEGMENT) {
state->total_queue_slots = (int)(state->segment_length * CARS_PER_UNIT_LENGTH);
}
// Set the number of cars in the current node at the beginning of the simulation
if(state->lp_type == JUNCTION) {
inject_new_cars(state, me);
}
// Schedule a keep alive event
timestamp = now + Expent(10);
ScheduleNewEvent(me, timestamp, KEEP_ALIVE, NULL, 0);
break;
case ARRIVAL:
if(!event_content->injection && check_car_leaving(state, event_content->from, me)) {
break;
}
if(state->queued_elements < state->total_queue_slots) {
car = enqueue_car(me, event_content->from, state);
// Send a leave event
ScheduleNewEvent(me, car->leave, LEAVE, &car->car_id, sizeof(unsigned long long));
} else {
printf("Object queue full\n");
}
cause_accident(state, me);
// If the arrival is related to a new car entering the highway, schedule
// the next car entering
if(event_content->injection && state->lp_type == JUNCTION) {
inject_new_cars(state, me);
}
break;
case LEAVE:
car = car_dequeue(me, state, (unsigned long long *)event);
if(car != NULL) {
new_event.from = me;
new_event.injection = false;
if(state->topology->num_neighbours > 1) {
do {
receiver = RandomRange(0, state->topology->num_neighbours - 1);
receiver = state->topology->neighbours[receiver];
} while(receiver == car->from);
} else {
receiver = state->topology->neighbours[0];
}
ScheduleNewEvent(receiver, car->leave, ARRIVAL, &new_event, sizeof(event_content_type));
free(car);
} else {
timestamp = now + Expent(ACCIDENT_LEAVE_TIME);
update_car_leave(state, *(unsigned long long *)event_content, timestamp);
ScheduleNewEvent(me, timestamp, LEAVE, (unsigned long long *)event_content, sizeof(unsigned long long));
}
break;
case FINISH_ACCIDENT:
state->accident = false;
release_cars(me, state);
break;
case KEEP_ALIVE:
determine_stop(state);
timestamp = now + Expent(10);
ScheduleNewEvent(me, timestamp, KEEP_ALIVE, NULL, 0);
break;
default:
printf(" state simulation: error - inconsistent event (me = %d - event type = %d)\n",me,event_type);
break;
}
}
void ProcessEvent(int me, simtime_t now, int event_type, event_content_type *event_content, int event_size, lp_state_type *pointer) {
event_content_type new_event_content;
new_event_content.cell = -1;
new_event_content.new_trails = -1;
int i;
int receiver, TEMP;
int trails;
simtime_t timestamp=0;
switch(event_type) {
case INIT:
pointer = (lp_state_type *)malloc(sizeof(lp_state_type));
if(pointer == NULL){
rootsim_error(true, "%s:%d: Unable to allocate memory!\n", __FILE__, __LINE__);
}
SetState(pointer);
if(NUM_CELLE_OCCUPATE > n_prc_tot){
rootsim_error(true, "%s:%d: Require more cell than available LPs\n", __FILE__, __LINE__);
}
if((NUM_CELLE_OCCUPATE % 2) == 0){
//Occupo le "prime" e "ultime" celle
if(me < (NUM_CELLE_OCCUPATE/2) || me >= ((n_prc_tot)-(NUM_CELLE_OCCUPATE/2))) {
for(i = 0; i < ROBOT_PER_CELLA; i++) {
// genero un evento di REGION_IN
ScheduleNewEvent(me, now + (simtime_t)(20 * Random()), REGION_IN, NULL, 0);
}
}
} else {
if(me <= (NUM_CELLE_OCCUPATE / 2) || me >= ((n_prc_tot) - (NUM_CELLE_OCCUPATE / 2))){
for(i = 0; i < ROBOT_PER_CELLA; i++){
// genero un evento di REGION_IN
ScheduleNewEvent(me, now + (simtime_t)(20 * Random()), REGION_IN, NULL, 0);
}
}
}
// Set the values for neighbours. If one is non valid, then set it to -1
for(i = 0; i < 6; i++) {
if(isValidNeighbour(me, i)) {
pointer->neighbour_trails[i] = 0;
} else {
pointer->neighbour_trails[i] = -1;
}
}
break;
case REGION_IN:
pointer->trails++;
new_event_content.cell = me;
new_event_content.new_trails = pointer->trails;
for (i = 0; i < 6; i++) {
if(pointer->neighbour_trails[i] != -1) {
receiver = GetNeighbourId(me, i);
if(receiver >= n_prc_tot || receiver < 0)
printf("%s:%d: %d -> %d\n", __FILE__, __LINE__, me, receiver);
ScheduleNewEvent(receiver, now + TIME_STEP/100000, UPDATE_NEIGHBORS, &new_event_content, sizeof(new_event_content));
}
}
// genero un evento di REGION_OUT
ScheduleNewEvent(me, now + TIME_STEP/100000, REGION_OUT, NULL, 0);
break;
case UPDATE_NEIGHBORS:
for (i = 0; i < 6; i++) {
if(event_content->cell == GetNeighbourId(me, i)) {
pointer->neighbour_trails[i] = event_content->new_trails;
}
}
break;
case REGION_OUT:
// Go to the neighbour who has the smallest trails count
trails = INT_MAX;
for(i = 0; i < 6; i++) {
if(pointer->neighbour_trails[i] != -1) {
if(pointer->neighbour_trails[i] < trails) {
trails = pointer->neighbour_trails[i];
receiver = i;
}
}
}
TEMP = receiver;
receiver = GetNeighbourId(me, receiver);
switch (DISTRIBUZIONE) {
case UNIFORME:
timestamp= now + (simtime_t) (TIME_STEP * Random());
break;
case ESPONENZIALE:
timestamp= now + (simtime_t)(Expent(TIME_STEP));
break;
default:
timestamp= now + (simtime_t)(TIME_STEP * Random());
break;
}
if(receiver >= n_prc_tot || receiver < 0)
printf("%s:%d: %d -> %d\n", __FILE__, __LINE__, me, receiver);
ScheduleNewEvent(receiver, timestamp, REGION_IN, NULL, 0);
break;
default:
rootsim_error(true, "Error: unsupported event: %d\n", event_type);
break;
}
}
void ProcessEvent(unsigned int me, simtime_t now, int event_type, event_content_type *event_content, unsigned int size, void *ptr) {
char *parameter, *value;
channel *c;
int w;
event_content_type new_event_content;
new_event_content.cell = -1;
new_event_content.channel = -1;
new_event_content.call_term_time = -1;
simtime_t handoff_time;
simtime_t timestamp = 0;
lp_state_type *state;
state = (lp_state_type*)ptr;
if(state != NULL) {
state->lvt = now;
state->executed_events++;
}
switch(event_type) {
case INIT:
// Initialize the LP's state
state = (lp_state_type *)malloc(sizeof(lp_state_type));
if (state == NULL) {
printf("Out of memory!\n");
exit(EXIT_FAILURE);
}
SetState(state);
bzero(state, sizeof(lp_state_type));
state->channel_counter = CHANNELS_PER_CELL;
// Read runtime parameters
if(IsParameterPresent(event_content, "pcs_statistics"))
pcs_statistics = true;
if(IsParameterPresent(event_content, "ta"))
state->ref_ta = state->ta = GetParameterDouble(event_content, "ta");
else
state->ref_ta = state->ta = TA;
if(IsParameterPresent(event_content, "ta_duration"))
state->ta_duration = GetParameterDouble(event_content, "ta_duration");
else
state->ta_duration = TA_DURATION;
if(IsParameterPresent(event_content, "ta_change"))
state->ta_change = GetParameterDouble(event_content, "ta_change");
else
state->ta_change = TA_CHANGE;
if(IsParameterPresent(event_content, "channels_per_cell"))
state->channels_per_cell = GetParameterInt(event_content, "channels_per_cell");
else
state->channels_per_cell = CHANNELS_PER_CELL;
if(IsParameterPresent(event_content, "complete_calls"))
complete_calls = GetParameterInt(event_content, "complete_calls");
state->fading_recheck = IsParameterPresent(event_content, "fading_recheck");
state->variable_ta = IsParameterPresent(event_content, "variable_ta");
// Show current configuration, only once
if(me == 0) {
printf("CURRENT CONFIGURATION:\ncomplete calls: %d\nTA: %f\nta_duration: %f\nta_change: %f\nchannels_per_cell: %d\nfading_recheck: %d\nvariable_ta: %d\n",
complete_calls, state->ta, state->ta_duration, state->ta_change, state->channels_per_cell, state->fading_recheck, state->variable_ta);
fflush(stdout);
}
state->channel_counter = state->channels_per_cell;
// Setup channel state
state->channel_state = malloc(sizeof(unsigned int) * 2 * (CHANNELS_PER_CELL / BITS + 1));
for (w = 0; w < state->channel_counter / (sizeof(int) * 8) + 1; w++)
state->channel_state[w] = 0;
// Start the simulation
timestamp = (simtime_t) (20 * Random());
ScheduleNewEvent(me, timestamp, START_CALL, NULL, 0);
// If needed, start the first fading recheck
// if (state->fading_recheck) {
timestamp = (simtime_t) (FADING_RECHECK_FREQUENCY * Random());
ScheduleNewEvent(me, timestamp, FADING_RECHECK, NULL, 0);
// }
break;
case START_CALL:
state->arriving_calls++;
if (state->channel_counter == 0) {
state->blocked_on_setup++;
} else {
state->channel_counter--;
new_event_content.channel = allocation(state);
new_event_content.from = me;
new_event_content.sent_at = now;
// Determine call duration
switch (DURATION_DISTRIBUTION) {
case UNIFORM:
new_event_content.call_term_time = now + (simtime_t)(state->ta_duration * Random());
break;
case EXPONENTIAL:
new_event_content.call_term_time = now + (simtime_t)(Expent(state->ta_duration));
break;
default:
new_event_content.call_term_time = now + (simtime_t) (5 * Random() );
}
// Determine whether the call will be handed-off or not
switch (CELL_CHANGE_DISTRIBUTION) {
case UNIFORM:
handoff_time = now + (simtime_t)((state->ta_change) * Random());
break;
case EXPONENTIAL:
handoff_time = now + (simtime_t)(Expent(state->ta_change));
break;
default:
handoff_time = now + (simtime_t)(5 * Random());
}
if(new_event_content.call_term_time <= handoff_time) {
ScheduleNewEvent(me, new_event_content.call_term_time, END_CALL, &new_event_content, sizeof(new_event_content));
} else {
new_event_content.cell = FindReceiver(TOPOLOGY_HEXAGON);
ScheduleNewEvent(me, handoff_time, HANDOFF_LEAVE, &new_event_content, sizeof(new_event_content));
}
}
if (state->variable_ta)
state->ta = recompute_ta(state->ref_ta, now);
// Determine the time at which a new call will be issued
switch (DISTRIBUTION) {
case UNIFORM:
timestamp= now + (simtime_t)(state->ta * Random());
break;
case EXPONENTIAL:
timestamp= now + (simtime_t)(Expent(state->ta));
break;
default:
timestamp= now + (simtime_t) (5 * Random());
}
ScheduleNewEvent(me, timestamp, START_CALL, NULL, 0);
break;
case END_CALL:
state->channel_counter++;
state->complete_calls++;
deallocation(me, state, event_content->channel, event_content, now);
break;
case HANDOFF_LEAVE:
state->channel_counter++;
state->leaving_handoffs++;
deallocation(me, state, event_content->channel, event_content, now);
new_event_content.call_term_time = event_content->call_term_time;
ScheduleNewEvent(event_content->cell, now, HANDOFF_RECV, &new_event_content, sizeof(new_event_content));
break;
case HANDOFF_RECV:
state->arriving_handoffs++;
state->arriving_calls++;
if (state->channel_counter == 0)
state->blocked_on_handoff++;
else {
state->channel_counter--;
new_event_content.channel = allocation(state);
new_event_content.call_term_time = event_content->call_term_time;
switch (CELL_CHANGE_DISTRIBUTION) {
case UNIFORM:
handoff_time = now + (simtime_t)((state->ta_change) * Random());
break;
case EXPONENTIAL:
handoff_time = now + (simtime_t)(Expent( state->ta_change ));
break;
default:
handoff_time = now+
(simtime_t) (5 * Random());
}
if(new_event_content.call_term_time < handoff_time ) {
ScheduleNewEvent(me, new_event_content.call_term_time, END_CALL, &new_event_content, sizeof(new_event_content));
} else {
new_event_content.cell = FindReceiver(TOPOLOGY_HEXAGON);
ScheduleNewEvent(me, handoff_time, HANDOFF_LEAVE, &new_event_content, sizeof(new_event_content));
}
}
break;
case FADING_RECHECK:
/*
if(state->check_fading)
state->check_fading = false;
else
state->check_fading = true;
*/
fading_recheck(state);
timestamp = now + (simtime_t) (FADING_RECHECK_FREQUENCY );
ScheduleNewEvent(me, timestamp, FADING_RECHECK, NULL, 0);
break;
default:
fprintf(stdout, "PCS: Unknown event type! (me = %d - event type = %d)\n", me, event_type);
abort();
}
}
int allocation(lp_state_type *pointer) {
int i;
int index;
double summ;
channel *c, *ch;
index = -1;
for(i = 0; i < pointer->channels_per_cell; i++){
if(!CHECK_CHANNEL(pointer,i)){
index = i;
break;
}
}
if(index != -1){
SET_CHANNEL(pointer,index);
c = (channel*)malloc(sizeof(channel));
if(c == NULL){
printf("malloc error: unable to allocate channel!\n");
exit(-1);
}
c->next = NULL;
c->prev = pointer->channels;
c->channel_id = index;
c->sir_data = (sir_data_per_cell*)malloc(sizeof(sir_data_per_cell));
if(c->sir_data == NULL){
printf("malloc error: unable to allocate SIR data!\n");
exit(-1);
}
if(pointer->channels != NULL)
pointer->channels->next = c;
pointer->channels = c;
summ = 0.0;
if (pointer->check_fading) {
ch = pointer->channels->prev;
while(ch != NULL){
ch->sir_data->fading = Expent(1.0);
summ += generate_cross_path_gain(pointer) * ch->sir_data->power * ch->sir_data->fading ;
ch = ch->prev;
}
}
if (summ == 0.0) {
// The newly allocated channel receives the minimal power
c->sir_data->power = MIN_POWER;
} else {
c->sir_data->fading = Expent(1.0);
c->sir_data->power = ((SIR_AIM * summ) / (generate_path_gain(pointer) * c->sir_data->fading));
if (c->sir_data->power < MIN_POWER) c->sir_data->power = MIN_POWER;
if (c->sir_data->power > MAX_POWER) c->sir_data->power = MAX_POWER;
}
} else {
printf("Unable to allocate channel, but the counter says I have %d available channels\n", pointer->channel_counter);
abort();
fflush(stdout);
}
return index;
}
void ProcessEvent(unsigned int me, simtime_t now, int event_type, event_content_type *event_content, unsigned int size, void * ptr) {
int w;
event_content_type new_event_content;
new_event_content.cell = -1;
new_event_content.second_cell = -1;
new_event_content.channel = -1;
new_event_content.call_term_time = -1;
simtime_t handoff_time;
simtime_t timestamp=0;
lp_state_type * pointer;
pointer = (lp_state_type*)ptr;
switch(event_type) {
case INIT:
pointer = (lp_state_type *)malloc(sizeof(lp_state_type));
if (pointer == NULL){
printf("ERROR in malloc!\n");
exit(EXIT_FAILURE);
}
SetState(pointer);
// pointer->channels = NULL;
pointer->contatore_canali = CHANNELS_PER_CELL;
pointer->cont_chiamate_entranti = -1;
pointer->cont_chiamate_complete = 0;
pointer->cont_handoff_uscita = 0;
pointer->cont_bloccate_in_partenza = 0;
pointer->cont_bloccate_in_handoff = 0;
pointer->handoffs_entranti = 0;
// power_management = true;
// variable_ta = true;
// fading_recheck = true;
// INIT is not considered as an event
pointer->contatore_eventi = 0;
// pointer->time = now;
// Load the predefined values
// variable_ta = true;
complete_calls = COMPLETE_CALLS;
ta = TA;
ta_durata = TA_DURATA;
ta_cambio = TA_CAMBIO;
channels_per_cell = CHANNELS_PER_CELL;
power_management = true;
// Read runtime parameters
char **arguments = (char **)event_content;
for(w = 0; w < size; w += 2) {
if(strcmp(arguments[w],"complete-calls") == 0) {
complete_calls = parseInt(arguments[w + 1]);
} else if(strcmp(arguments[w],"ta") == 0) {
ta = parseDouble(arguments[w + 1]);
} else if(strcmp(arguments[w],"ta-durata") == 0) {
ta_durata = parseDouble(arguments[w + 1]);
} else if(strcmp(arguments[w],"ta-cambio") == 0) {
ta_cambio = parseDouble(arguments[w + 1]);
} else if(strcmp(arguments[w],"channels-per-cell") == 0) {
channels_per_cell = parseInt(arguments[w + 1]);
} else if(strcmp(arguments[w],"complete-time") == 0) {
complete_time = parseInt(arguments[w + 1]);
} else if(strcmp(arguments[w],"no-power-management") == 0) {
w -= 1;
power_management = false;
} else if(strcmp(arguments[w],"power-management") == 0) {
w -= 1;
power_management = true;
} else if(strcmp(arguments[w],"variable-ta") == 0) {
w -= 1;
variable_ta = true;
} else if(strcmp(arguments[w],"fading-recheck") == 0) {
fading_recheck = true;
} else if(strcmp(arguments[w],"complete-time") == 0) {
complete_time = parseInt(arguments[w + 1]);
}
}
ref_ta = ta;
// Show current configuration, only once
if(me == 0) {
printf("CURRENT CONFIGURATION:\nCOMPLETE CALLS: %d\nTA: %f\nTA_DURATA: %f\nTA_CAMBIO: %f\nCHANNELS_PER_CELL: %d\nCOMPLETE_TIME: %d\n",
complete_calls, ta, ta_durata, ta_cambio, channels_per_cell, complete_time);
printf("POWER MANAGMENT: %d\nFADING RECHECK: %d\nVARIABLE TA: %d\n",
power_management, fading_recheck, variable_ta);
fflush(stdout);
}
pointer->contatore_canali = channels_per_cell;
for (w = 0; w < pointer->contatore_canali / (sizeof(int) * 8) + 1; w++)
pointer->channel_state[w] = 0;
pointer->buff_topology = (_PCS_routing*)malloc(sizeof(_PCS_routing));
if(pointer->buff_topology == NULL){
printf("Chiamata a malloc errata sulla topologia della rete!\n");
exit(EXIT_FAILURE);
}
set_my_topology(me, pointer->buff_topology);
timestamp = (simtime_t) (20 * Random());
ScheduleNewEvent(me, timestamp, START_CALL, NULL, 0);
if (fading_recheck) {
timestamp = now + (simtime_t) (FADING_RECHECK_FREQUENCY);
ScheduleNewEvent(me, timestamp, FADING_RECHECK, NULL, 0);
}
break;
case START_CALL:
pointer->time = now;
//make_copy(pointer->cont_chiamate_entranti, pointer->cont_chiamate_entranti+1);
pointer->cont_chiamate_entranti++;
//make_copy(pointer->contatore_eventi, pointer->contatore_eventi+1);
pointer->contatore_eventi++;
if (pointer->contatore_canali == 0) {
//make_copy(pointer->cont_bloccate_in_partenza, pointer->cont_bloccate_in_partenza+1);
pointer->cont_bloccate_in_partenza++;
} else {
pointer->contatore_canali--;
//make_copy(pointer->contatore_canali, pointer->contatore_canali-1);
#ifdef ACCURATE_SIMULATION
new_event_content.channel = allocation(me, pointer);
#endif
// Determine call duration
switch (DISTRIBUZIONE_DURATA) {
case UNIFORME:
new_event_content.call_term_time = now+
(simtime_t) (ta_durata * Random());
break;
case ESPONENZIALE:
new_event_content.call_term_time = now +
(simtime_t)( Expent(ta_durata ));
break;
default:
new_event_content.call_term_time = now+
(simtime_t) (5 * Random() );
}
// Determine whether the call will be handed-off or not
switch (DISTRIBUZIONE_CAMBIOCELLA) {
case UNIFORME:
handoff_time = now+
(simtime_t) ((ta_cambio) * Random() );
break;
case ESPONENZIALE:
handoff_time = now+
(simtime_t)( Expent( ta_cambio ));
break;
default:
handoff_time = now+
(simtime_t) (5 * Random() );
}
if( new_event_content.call_term_time <= handoff_time) {
ScheduleNewEvent(me,new_event_content.call_term_time,END_CALL,&new_event_content,sizeof(new_event_content));
} else {
new_event_content.cell = __FindReceiver(me,pointer);
new_event_content.second_cell = -1;
ScheduleNewEvent(me,handoff_time,HANDOFF_LEAVE,&new_event_content,sizeof(new_event_content));
// #ifdef PRE_SCHEDULING
new_event_content.call_term_time = new_event_content.call_term_time;
ScheduleNewEvent(new_event_content.cell,handoff_time,HANDOFF_RECV,&new_event_content,sizeof(new_event_content));
// #endif
}
} // if (pointer->contatore_canali == 0)
if (variable_ta)
ta = recompute_ta(ref_ta, now);
// Determine the time at which the call will end
switch (DISTRIBUZIONE) {
case UNIFORME:
timestamp= now+
(simtime_t) (ta * Random() );
break;
case ESPONENZIALE:
timestamp= now+
(simtime_t)( Expent( ta ));
break;
default:
timestamp= now+
(simtime_t) (5 * Random());
}
ScheduleNewEvent(me, timestamp, START_CALL, NULL, 0);
break;
case END_CALL:
pointer->time = now;
// make_copy(pointer->contatore_eventi, pointer->contatore_eventi+1);
pointer->contatore_eventi++;
//make_copy(pointer->contatore_canali, pointer->contatore_canali+1);
pointer->contatore_canali++;
//make_copy(pointer->cont_chiamate_complete, pointer->cont_chiamate_complete+1);
pointer->cont_chiamate_complete++;
#ifdef ACCURATE_SIMULATION
deallocation(me, pointer, event_content->channel);
#endif
break;
case HANDOFF_LEAVE:
pointer->time = now;
//make_copy(pointer->contatore_eventi, pointer->contatore_eventi+1);
pointer->contatore_eventi++;
//make_copy(pointer->contatore_canali, pointer->contatore_canali+1);
pointer->contatore_canali++;
//make_copy(pointer->cont_handoff_uscita, pointer->cont_handoff_uscita+1);
pointer->cont_handoff_uscita++;
#ifdef ACCURATE_SIMULATION
deallocation(me, pointer, event_content->channel);
#endif
// #ifndef PRE_SCHEDULING
// new_event_content.call_term_time = event_content->call_term_time + 0.00005;
// ScheduleNewEvent(event_content->cell, now + 0.00003 , HANDOFF_RECV, &new_event_content, sizeof(new_event_content));
// #endif
break;
case HANDOFF_RECV:
pointer->time = now;
//handoff_counter++;
//make_copy(pointer->handoffs_entranti, pointer->handoffs_entranti+1);
pointer->handoffs_entranti++;
//make_copy(pointer->cont_chiamate_entranti, pointer->cont_chiamate_entranti+1);
//make_copy(pointer->contatore_eventi, pointer->contatore_eventi+1);
pointer->contatore_eventi++;
pointer->cont_chiamate_entranti++;
if (pointer->contatore_canali == 0)
//make_copy(pointer->cont_bloccate_in_handoff, pointer->cont_bloccate_in_handoff+1);
pointer->cont_bloccate_in_handoff++;
else {
//make_copy(pointer->contatore_canali, pointer->contatore_canali-1);
pointer->contatore_canali--;
#ifdef ACCURATE_SIMULATION
new_event_content.channel = allocation(me, pointer);
#endif
new_event_content.call_term_time = event_content->call_term_time;
switch (DISTRIBUZIONE_CAMBIOCELLA) {
case UNIFORME:
handoff_time = now+
(simtime_t) ((ta_cambio) * Random());
break;
case ESPONENZIALE:
handoff_time = now+
(simtime_t)( Expent( ta_cambio ));
break;
default:
handoff_time = now+
(simtime_t) (5 * Random());
}
if (Random() < 0.5) handoff_time *= 10;
if( new_event_content.call_term_time <= handoff_time ) {
ScheduleNewEvent(me , new_event_content.call_term_time, END_CALL, &new_event_content, sizeof(new_event_content));
} else {
new_event_content.cell = __FindReceiver(me,ptr);
#ifdef NO_UNCERTAINTY
new_event_content.second_cell = -1;
#endif
ScheduleNewEvent(me , new_event_content.call_term_time, HANDOFF_LEAVE, &new_event_content, sizeof(new_event_content));
}
}
break;
case FADING_RECHECK:
// pointer->time = now;
if (pointer->check_fading == true) {
//make_copy(pointer->check_fading, false);
pointer->check_fading = false;
} else {
//make_copy(pointer->check_fading, true);
pointer->check_fading = true;
}
timestamp = now + (simtime_t) (FADING_RECHECK_FREQUENCY);
ScheduleNewEvent(me, timestamp, FADING_RECHECK, NULL, 0);
break;
default:
fprintf(stderr, " pointer simulation: error - inconsistent event (me = %d - event type = %d)\n", me, event_type);
break;
} // switch(event->type)
}
