inventory &inventory::operator+= (const inventory &rhs)
{
for (size_t i = 0; i < rhs.size(); i++) {
add_stack(rhs.const_stack(i));
}
return *this;
}
int main() {
assertTrueWMsg(phyPages() <= 16, "too many pages to run this test.");
if(phyPages() > 64)
fail();
swapSize = getSwapSize();
assertTrue(swapSize > 0);
if(add_stack(2) == -1)
fail();
done();
return 0;
}
void prioprs(t_token **stack, t_token *token, t_list *st_list)
{
t_token *tmp2;
if ((*stack) == NULL)
{
add_stack(stack, token);
}
else if (token->priority > (*stack)->priority)
{
add_stack(stack, token);
}
else
{
while (*stack != NULL && token->priority <= (*stack)->priority)
{
tmp2 = (*stack)->next;
add_to_list(st_list, *stack);
*stack = tmp2;
}
add_stack(stack, token);
}
}
int add_stack(int depth) {
int i, j;
int old = swapSize;
for(j = 0;j < MATRIX_SIZE;++j)
for(i = 0;i < MATRIX_SIZE;++i)
arr[i][j] = valueAt(i, j);
swapSize = getSwapSize();
assertTrue(swapSize >= old);
if (depth > 1)
if(add_stack(depth - 1) == -1)
fail();
for(j = 0;j < MATRIX_SIZE;++j)
for(i = 0;i < MATRIX_SIZE;++i)
if(!arr[i][j] == valueAt(i, j)) {
printf("incorrect value!\n");
fail();
}
}
int collect_dlr(void) {
struct reference *r;
struct stack *s;
struct label *l;
int section, x, i, n, q;
unsigned char *t, *dtmp;
double dou;
section = 0;
obj_tmp = obj_first;
while (obj_tmp != NULL) {
/* OBJECT FILE */
if (obj_tmp->format == WLA_VERSION_OBJ) {
t = obj_tmp->exported_defines;
i = READ_T;
/* load defines */
for (; i > 0; i--) {
l = calloc(1, sizeof(struct label));
if (l == NULL) {
fprintf(stderr, "COLLECT_DLR: Out of memory.\n");
return FAILED;
}
/* copy the name */
for (x = 0; !(*t == 0 || *t == 1); t++, x++)
l->name[x] = *t;
l->name[x] = 0;
if (*t == 0)
l->status = LABEL_STATUS_DEFINE;
else if (*t == 1)
l->status = LABEL_STATUS_STACK;
else {
fprintf(stderr, "COLLECT_DLR: Unknown definition type \"%d\".\n", *t);
return FAILED;
}
t++;
READ_DOU;
l->address = dou;
l->base = 0;
l->file_id = obj_tmp->id;
l->section_status = OFF;
l->section_struct = NULL;
add_label(l);
}
/* load labels */
i = READ_T;
for (; i > 0; i--) {
l = calloc(1, sizeof(struct label));
if (l == NULL) {
fprintf(stderr, "COLLECT_DLR: Out of memory.\n");
return FAILED;
}
for (x = 0; !(*t == 0 || *t == 1 || *t == 2); t++, x++)
l->name[x] = *t;
l->name[x] = 0;
if (*t == 0)
l->status = LABEL_STATUS_LABEL;
else if (*t == 1)
l->status = LABEL_STATUS_SYMBOL;
else if (*t == 2)
l->status = LABEL_STATUS_BREAKPOINT;
else {
fprintf(stderr, "COLLECT_DLR: Unknown label type \"%d\".\n", *t);
return FAILED;
}
t++;
l->slot = *(t++);
l->file_id_source = *(t++);
l->section = READ_T;
if (l->section == 0)
l->section_status = OFF;
else {
l->section_status = ON;
l->section += section;
}
l->address = READ_T;
l->linenumber = READ_T;
l->base = (((int)l->address) >> 16) & 0xFF;
l->address = ((int)l->address) & 0xFFFF;
l->bank = READ_T;
l->file_id = obj_tmp->id;
l->section_struct = NULL;
add_label(l);
}
i = READ_T;
/* load references */
for (; i > 0; i--) {
r = malloc(sizeof(struct reference));
if (r == NULL) {
fprintf(stderr, "COLLECT_DLR: Out of memory.\n");
return FAILED;
}
for (x = 0; *t != 0; t++, x++)
r->name[x] = *t;
r->name[x] = 0;
t++;
r->type = *(t++);
r->file_id_source = *(t++);
r->slot = *(t++);
r->section = READ_T;
if (r->section == 0)
r->section_status = OFF;
else {
r->section_status = ON;
r->section += section;
}
r->linenumber = READ_T;
r->address = READ_T;
r->bank = READ_T;
add_reference(r);
}
i = READ_T;
/* load pending calculations */
for (; i > 0; i--) {
s = malloc(sizeof(struct stack));
if (s == NULL) {
fprintf(stderr, "COLLECT_DLR: Out of memory.\n");
return FAILED;
}
s->id = READ_T;
s->type = *(t++);
s->section = READ_T;
if (s->section == 0)
s->section_status = OFF;
else {
s->section_status = ON;
s->section += section;
}
s->file_id_source = *(t++);
x = *(t++);
s->position = *(t++);
s->slot = *(t++);
s->address = READ_T;
s->linenumber = READ_T;
s->bank = READ_T;
s->stacksize = x;
s->stack = malloc(sizeof(struct stackitem) * x);
if (s->stack == NULL) {
fprintf(stderr, "COLLECT_DLR: Out of memory.\n");
free(s);
return FAILED;
}
add_stack(s);
for (n = 0; n != x; n++) {
s->stack[n].type = *(t++);
s->stack[n].sign = *(t++);
if (s->stack[n].type == STACK_ITEM_TYPE_STRING) {
for (q = 0; *t != 0; t++, q++)
s->stack[n].string[q] = *t;
s->stack[n].string[q] = 0;
t++;
}
else {
READ_DOU;
s->stack[n].value = dou;
}
}
}
/* save pointer to data block area */
obj_tmp->data_blocks = t;
}
/* LIBRARY FILE */
else if (obj_tmp->format == WLA_VERSION_LIB) {
void inventory::push_back(std::vector<item> newits)
{
add_stack(newits);
}
inventory& inventory::operator+= (inventory &rhs)
{
for (int i = 0; i < rhs.size(); i++)
add_stack(rhs.stack_at(i));
return *this;
}
void *op_brick_add(t_brick *brick)
{
t_context *C = ctx_get();
t_node *node = NULL;
t_block *block;
t_set *set;
// store
scene_store(C->scene,1);
char *name=brick->id.name;
if(is(name,"frame")) node = add_slider_int(C,"frame",&C->app->frame);
else if(is(name,"timer")) node = add_slider_float(C,"timer",&C->app->timer);
else if(is(name,"timer low")) node = add_slider_float(C,"timer low",&C->app->timer_add_low);
else if(is(name,"=")) node = add_operator_double(C,"=");
else if(is(name,">")) node = add_operator_double(C,">");
else if(is(name,"<")) node = add_operator_double(C,"<");
else if(is(name,"if")) node = add_if(C);
else if(is(name,"mod")) node = add_operator_double(C,"mod");
else if(is(name,"x")) node = add_maths(C,"x");
else if(is(name,"+")) node = add_maths(C,"+");
else if(is(name,"++")) node = add_plusplus(C);
else if(is(name,"switch")) node = add_switch(C,"switch",NULL,NULL);
else if(is(name,"clone")) node = add_clone(C);
else if(is(name,"pipe")) node = add_pipe(C);
else if(is(name,"sec")) node = add_slider_int(C,"sec",&C->app->clock->sec);
else if(is(name,"min")) node = add_slider_int(C,"min",&C->app->clock->min);
else if(is(name,"int")) node = add_slider_int(C,"int",NULL);
else if(is(name,"float")) node = add_slider_float(C,"float",NULL);
else if(is(name,"10")) node = add_multiplier(C,"10");
else if(is(name,"100")) node = add_multiplier(C,"100");
else if(is(name,".1")) node = add_multiplier(C,".1");
else if(is(name,".01")) node = add_multiplier(C,".01");
else if(is(name,".001")) node = add_multiplier(C,".001");
else if(is(name,"msec")) node = add_slider_int(C,"msec",&C->app->clock->msec);
else if(is(name,"cos")) node = add_operator_single(C,"cos",op_cos);
else if(is(name,"sin")) node = add_operator_single(C,"sin",op_sin);
else if(is(name,"cam_eye_x")) node = add_slider_camera(C,"eye x");
else if(is(name,"cam_eye_y")) node = add_slider_camera(C,"eye y");
else if(is(name,"cam_eye_z")) node = add_slider_camera(C,"eye z");
else if(is(name,"cam_pos_x")) node = add_slider_camera(C,"pos x");
else if(is(name,"cam_pos_y")) node = add_slider_camera(C,"pos y");
else if(is(name,"cam_pos_z")) node = add_slider_camera(C,"pos z");
else if(is(name,"cam_rot_xy")) node = add_slider_float_custom(C,"cam rot xy",op_camera_rotate_xy);
else if(is(name,"cam_rot_z")) node = add_slider_float_custom(C,"cam rot z",op_camera_rotate_z);
else if(is(name,"pos x")) node = add_slider_object(C,"pos x");
else if(is(name,"pos y")) node = add_slider_object(C,"pos y");
else if(is(name,"pos z")) node = add_slider_object(C,"pos z");
else if(is(name,"rot x")) node = add_slider_object(C,"rot x");
else if(is(name,"rot y")) node = add_slider_object(C,"rot y");
else if(is(name,"rot z")) node = add_slider_object(C,"rot z");
else if(is(name,"scl x")) node = add_slider_object(C,"scl x");
else if(is(name,"scl y")) node = add_slider_object(C,"scl y");
else if(is(name,"scl z")) node = add_slider_object(C,"scl z");
else if(is(name,"red")) node = add_slider_object(C,"red");
else if(is(name,"green")) node = add_slider_object(C,"green");
else if(is(name,"blue")) node = add_slider_object(C,"blue");
else if(is(name,"color")) node = add_slider_object(C,"color");
else if(is(name,"faces")) node = add_slider_object(C,"faces");
else if(is(name,"alpha")) node = add_slider_object(C,"alpha");
else if(is(name,"label")) node = add_label(C,"label");
else if(is(name,"get")) node = add_get(C);
else if(is(name,"rewind")) node = add_trigger_always(C,"rewind",op_rewind);
else if(is(name,"not")) node = add_slider_int_custom(C,"not",NULL,op_not);
else if(is(name,"mouse_x")) node = add_slider_int(C,"mouse x",&C->app->mouse->x);
else if(is(name,"mouse_y")) node = add_slider_int(C,"mouse y",&C->app->mouse->y);
else if(is(name,"keyboard")) node = add_slider_char(C,"keyboard",&C->app->keyboard->key_pressed);
else if(is(name,"rnd")) node = add_slider_int_custom(C,"rnd",NULL,op_rnd);
else if(is(name,"neg")) node = add_slider_int_custom(C,"neg",NULL,op_neg);
else if(is(name,"abs")) node = add_slider_int_custom( C, "abs", NULL, op_abs);
else if(is(name,"last?")) node = add_switch(C,"last?",NULL,op_is_last);
else if(is(name,"for")) node = add_for(C);
else if(is(name,"vector 3d")) node = add_vector_3d(C);
else if(is(name,"vector 2d")) node = add_vector_2d(C);
else if(is(name,"bang")) node = add_slider_int_custom(C,"bang",NULL,op_bang);
else if(is(name,"quit")) node = add_trigger_always(C,"quit",op_do_quit);
else if(is(name,"const")) node = add_const(C);
else if(is(name,"and")) node = add_maths(C,"and");
else if(is(name,"stack")) node = add_stack(C);
else if(is(name,"mesh")) node = add_slider_object(C,"mesh");
else if(is(name,"vertex")) node = add_brick_mesh(C,"vertex");
else if(is(name,"edges")) node = add_brick_mesh(C,"edges");
else if(is(name,"case")) node = add_case(C,"switch");
// Store
scene_store(C->scene,0);
term_log("+ brick");
// Switch Desk
if(!C->ui->show_sets) show_sets(C);
if( node)
{
block = node->data;
set = block->set;
set_setup( set);
}
return NULL;
}
void push(T val) {
if (stacks.front().size() == limit) {
add_stack();
}
stacks.front().push(val);
}
SetOfStacks(int _limit) : limit(_limit) {
add_stack();
}