int main(int argc, char **argv) {
//Array statistics
double array[5] = {2.0, 3.89, -3.94, 10.1, 0.88};
print_array_stats(array, 5);
//Creating liked list with 3 3s and 4 4s
linked_list *ll3 = new_linked_list(3, 3);
linked_list *ll4 = new_linked_list(4, 4);
//Should print: "3 3 3"
print_linked_list(ll3, 1, 1);
//Inserting a 5 at the 1st position
insert_linked_list(ll3, 1, 5);
//Should print "3 5 3 3"
print_linked_list(ll3, 1, 1);
//Printing backwards, should print: "3 3 5 3"
print_linked_list(ll3, 1, 0);
//Merging the linked lists
merge_linked_list(ll3, ll4);
//Printing the result, should print: "3 4 5 4 3 4 3 4"
print_linked_list(ll3, 1, 1);
//Summing the elements, should be 30
printf("Sum: %d\n", sum_linked_list(ll3));
//Freeing the memory of ll3
destroy_linked_list(ll3);
}
/* ========================== FUZZY ENGINE LOGIC ========================== */
fuzzy_engine*
create_fuzzy_engine()
{
fuzzy_engine* engine = (fuzzy_engine*)os_malloc(sizeof(fuzzy_engine));
engine->ling_vars = new_linked_list();
engine->rules = new_linked_list();
engine->consequents = new_linked_list();
return engine;
}
static char* test_create_list()
{
linked_list* list = new_linked_list(10);
mu_assert("Couldn't create a list", list != NULL);
list->delete_linked_list(&list);
return 0;
}
static char* test_add_after()
{
linked_list* list = new_linked_list(10);
list->add_to_list(list, 1);
mu_assert("Couldn't add to list", list->num_elements == 1);
list->add_to_list(list, 5);
mu_assert("Couldn't add to list", list->num_elements == 2);
list->add_to_list(list, 9);
mu_assert("Couldn't add to list", list->num_elements == 3);
list->add_after(list, 5, 7);
mu_assert("Couldn't add 7 after 5 1", list->num_elements == 4);
node* element = list->find_element(list, 5);
mu_assert("Coudln't add 7 after 5 2", element->next->data == 7);
element = list->find_element(list, 7);
mu_assert("Coudln't add 7 after 5 3", element->next->data == 9);
list->add_after(list, 9, 11);
mu_assert("Couldn't add 11 after 9 1", list->num_elements == 5);
element = list->find_element(list, 9);
mu_assert("Coudln't add 11 after 9 2", element->next->data == 11);
element = list->find_element(list, 11);
mu_assert("Coudln't add 11 after 9 3", element->next == NULL);
return 0;
}
// add item to linked list
LinkedList add_linked_item( LinkedList list, void * item ) {
LinkedList node = new_linked_list( item );
node->next = list;
return node;
}
linked_list* build_list_from_file(FILE* file, bool reverse) {
linked_list* new_list = new_linked_list();
int ch;
bool still_reading = true;
bool first_val_read = false;
int number = 0;
while (!first_val_read && still_reading && (ch = getc(file)) != EOF) {
switch(ch) {
case SPACE:
break; // ignore spaces
case RETURN:
case NEWLINE:
still_reading = false;
break;
case COMMA:
ll_init_add(new_list, number);
number = 0;
first_val_read = true;
break;
// NUMBER ENCOUNTERED
default:
number = number*10 + char_to_num(ch);
}
}
while (still_reading && (ch = getc(file)) != EOF) {
switch(ch) {
case SPACE:
break; // ignore spaces
case RETURN:
case NEWLINE:
still_reading = false;
break;
case COMMA:
if (reverse) {
ll_add_to_head(new_list, number);
}
else {
ll_add_to_tail(new_list, number);
}
number = 0;
break;
// NUMBER ENCOUNTERED
default:
number = number*10 + char_to_num(ch);
}
}
if (reverse) {
ll_add_to_head(new_list, number);
}
else {
ll_add_to_tail(new_list, number);
}
return new_list;
}
static char* test_add_to_beginning_of_list()
{
linked_list* list = new_linked_list(10);
list->add_to_beginning(list, 1);
mu_assert("List is null", list->root != NULL);
mu_assert("Couldn't add to beginning of list", list->root->data == 1);
list->add_to_beginning(list, 5);
mu_assert("Couldn't add to beginning of list", list->root->data == 5);
list->delete_linked_list(&list);
return 0;
}
static char* test_add_to_list()
{
linked_list* list = new_linked_list(10);
list->add_to_list(list, 1);
mu_assert("Couldn't add to list", list->num_elements == 1);
list->add_to_list(list, 5);
mu_assert("Couldn't add to list", list->num_elements == 2);
list->add_to_list(list, 9);
mu_assert("Couldn't add to list", list->num_elements == 3);
list->delete_linked_list(&list);
return 0;
}
static char* test_find_element()
{
linked_list* list = new_linked_list(10);
list->add_to_list(list, 1);
mu_assert("Couldn't add to list", list->num_elements == 1);
list->add_to_list(list, 5);
mu_assert("Couldn't add to list", list->num_elements == 2);
list->add_to_list(list, 9);
mu_assert("Couldn't add to list", list->num_elements == 3);
node* element = list->find_element(list, 5);
mu_assert("Couldn't find element", element->data == 5);
return 0;
}
/* ====================== LINGUISTIC VARIABLE LOGIC ======================= */
ling_var*
create_linguistic_variable(const char* name, int id,
ling_var_type type)
{
uint8_t name_len = strlen(name);
ling_var* var = (ling_var*)os_malloc(sizeof(ling_var));
os_memset(var, 0, sizeof(ling_var));
var->name = (char*)os_malloc(name_len + 1);
strcpy(var->name, name);
var->id = id;
var->values = new_linked_list();
var->type = type;
return var;
}
static char* test_delete_from_list()
{
linked_list* list = new_linked_list(10);
list->add_to_list(list, 1);
mu_assert("Couldn't add to list", list->num_elements == 1);
list->add_to_list(list, 5);
mu_assert("Couldn't add to list", list->num_elements == 2);
list->add_to_list(list, 9);
mu_assert("Couldn't add to list", list->num_elements == 3);
list->remove_from_list(list, 1);
mu_assert("Couldn't remove 1 from list", list->num_elements == 2);
mu_assert("Last element not correct", list->last->data != 1);
list->remove_from_list(list, 5);
mu_assert("Couldn't remove 5 from list", list->num_elements == 1);
mu_assert("Last element not correct", list->last->data != 5);
list->remove_from_list(list, 9);
mu_assert("Couldn't remove 9 from list", list->num_elements == 0);
list->delete_linked_list(&list);
return 0;
}
linked_list* get_polygon_points(point* points, uint8_t length)
{
uint8_t i, j, found;
point* intersection_point, *tmp_point;
linked_list* processed_points = new_linked_list();
for(i = 0; i < length; i++) {
found = 0;
for(j = i + 2; j < length - 1; j++) {
intersection_point = get_intersection_point(
points[i], points[i + 1], points[j], points[j + 1]);
if(intersection_point != 0) {
tmp_point = (point*)os_malloc(sizeof(point));
tmp_point->x = points[i].x;
tmp_point->y = points[i].y;
processed_points->add(processed_points, (void*)tmp_point);
// the intersection point
processed_points->add(processed_points, (void*)intersection_point);
tmp_point = (point*)os_malloc(sizeof(point));
tmp_point->x = points[j + 1].x;
tmp_point->y = points[j + 1].y;
processed_points->add(processed_points, (void*)tmp_point);
found = 1;
break;
}
}
if(found == 0) {
tmp_point = (point*)os_malloc(sizeof(point));
tmp_point->x = points[i].x;
tmp_point->y = points[i].y;
processed_points->add(processed_points, (void*)tmp_point);
} else {
i = i + 3;
}
}
return processed_points;
}
/*
* Creates a rule consequent if and only if it does not find
* an identical one. If it does find an identical one, it will return it
* Consequents will be singletones
*/
rule_consequent*
create_rule_consequent(fuzzy_engine* engine, ling_var* variable,
ling_val* value)
{
linked_list_node* node = engine->consequents->head;
while(node != 0) {
rule_consequent* tmp_consequent = (rule_consequent*)node->data;
if(tmp_consequent->variable == variable && tmp_consequent->value == value) {
return tmp_consequent;
}
node = node->next;
}
rule_consequent* consequent = (rule_consequent*)new_linked_list();
memset(consequent, 0, sizeof(rule_consequent));
consequent->variable = variable;
consequent->value = value;
// add the new consequent to the list
engine->consequents->add(engine->consequents, consequent);
return consequent;
}
rule_antecedent*
create_rule_antecedent()
{
rule_antecedent* antecedent = new_linked_list();
return antecedent;
}
/**
* create a new pointer list
**/
pointer_list_t* new_pointer_list(const char *name)
{
return new_linked_list(name,sizeof(pointer_list_entry_t));
}
