void generatePlayer(){
if(!strcmp(Player->name,"Lu Bu\n")){
Player->atk = 999;
Player->def = 999;
Player->spd = 1;
Player->hp = 999;
Player->maxHp = Player->hp;
Player->xp = 0;
Player->level = 10;
Player->xpOffset = 999;
Player->weaponNum = 0;
Player->slot1 = *(Weapon *)calloc(1,sizeof(Weapon));
Player->slot2 = *(Weapon *)calloc(1,sizeof(Weapon));
}
else{
Player->atk = rand_lim(12) + 6;
Player->def = rand_lim(12) + 6;
Player->spd = rand_lim(12) + 6;
Player->hp = rand_lim(12) + 6;
Player->maxHp = Player->hp;
Player->xp = 0;
Player->level = 1;
Player->xpOffset = 10;
Player->weaponNum = 0;
Player->slot1 = *(Weapon *)calloc(1,sizeof(Weapon));
Player->slot2 = *(Weapon *)calloc(1,sizeof(Weapon));
}
}
// Randomly mutates one of the bases in a gene
void gene_point_mutate(base **gene)
{
int index = rand_lim(EQN_GENE_LENGTH - 1);
char *bases = "SIR1!0gb+-*";
if(index < EQN_GENE_HEAD_LENGTH)
{
int new_index = rand_lim(NUM_BASES - 1);
// Head bases can be mutated to any other base. There is no restriction.
gene[index]->value = bases[new_index];
gene[index]->terminal = true;
if(bases[new_index] == '+' || bases[new_index] == '-' || bases[new_index] == '*')
{
gene[index]->terminal = false;
}
}
else
{
int new_index = rand_lim(NUM_TERMINALS - 1);
// Tail bases can only be mutated from a terminator to another terminator.
gene[index]->value = bases[new_index];
}
}
/**
* @brief Only use internally.
*/
void add_one(int *values) {
call_srand();
int cntr = 0;
int i;
for (i = 0; i < 16; ++i) {
if (values[i] == 0) {
cntr++;
break;
}
}
if (cntr == 0)
return;
int p_1 = rand_lim(15);
while (values[p_1] > 0) {
p_1 = rand_lim(15);
}
int p_1_v = rand_lim(3);
if (p_1_v < 3)
p_1_v = 2;
else
p_1_v = 4;
values[p_1] = p_1_v;
}
void RAND(char* b1, char* b1_2, char* b2, char* b2_2, char* tm, char* tm2, data_t* data){
clock_t start, fin, t_total = 0;
double transfTime, emptyTime;
double mult = 100;
start = clock();
for( long j =0; j < SHRT_MAX; j++) {
for( int i = 0; i < NUM_IT; i++ ){}
}
fin = clock() - start;
emptyTime = fin / CLOCKS_PER_SEC;
for( long j = 0; j < SHRT_MAX; j++) {
for( int i = 0; i < NUM_IT; i++ ) {
start = clock();
memcpy(tm, b1, data->blockSize);
memcpy(b1, b2, data->blockSize);
memcpy(b2,tm, data->blockSize);
fin = clock() - start ;
t_total += fin;
b1 = b1_2;
b2 = b2_2;
tm = tm2;
b1 += data->blockSize * rand_lim(mult - 1);
b2 += data->blockSize * rand_lim(mult - 1);
tm += data->blockSize * rand_lim(mult - 1);
}
}
long totalBytes = (long)data->blockSize * (long)SHRT_MAX * mult * 6;
transfTime = (t_total/ CLOCKS_PER_SEC) - emptyTime ;
std::cout << "\nRandom access throughput(MB/sec): " << totalBytes / (transfTime * 1024 * 1024) << std::endl;
start = clock();
for( long j = 0; j < SHRT_MAX; j++) {
for ( int i = 0; i < NUM_IT; i++) {
memset(b1, '-', data->blockSize);
b1 = b1_2;
b1 += rand_lim(mult - 1) * data->blockSize;
}
}
fin = clock() - start;
double divis = CLOCKS_PER_SEC * NUM_IT * SHRT_MAX;
double latency = fin / divis;
std::cout << "\nRandom access latency(ms): " << latency << std::endl;
}
//Randomly swaps a row of boxes.
void sudoku_flip_rowbox(Sudoku sudoku) {
int i = 0, div_size = sqrt(sudoku->size);
for (i=0; i < div_size; i++) {
while (80 > rand_lim(100)) {
int brow1 = rand_lim(div_size-1);
int brow2 = rand_lim(div_size-1);
sudoku_swap_brow(sudoku, brow1, brow2);
}
}
}
//Randomly swaps a column of boxes //ZZZThis could easily be combined into one function with a toggle parameter.
void sudoku_flip_colbox(Sudoku sudoku) {
int i = 0, div_size = sqrt(sudoku->size);
for (i=0; i < div_size; i++) {
while (80 > rand_lim(100)) {
int bcol1 = rand_lim(div_size-1);
int bcol2 = rand_lim(div_size-1);
sudoku_swap_bcol(sudoku, bcol1, bcol2);
}
}
}
void generateEnemy(){
int room = DRoom -> room;
DRoom -> Enemy.atk = rand_lim(10 + room) + Player->level;
DRoom -> Enemy.def = rand_lim(10 + room) + Player->level;
DRoom -> Enemy.spd = rand_lim(10 + room) + Player->level;
DRoom -> Enemy.hp = rand_lim(10 + room) + Player->level;
int temp = rand_lim(nameSize);
strcpy(DRoom -> Enemy.name,enemyNames[temp]);
Enemy = &(DRoom -> Enemy);
//int temp = rand_lime(2);
//strcpy(EnemyList[temp],Enemy->name);
}
void Mesh::random_complexify()
{
int random_group_index = rand_lim(groups.size() - 1);
int random_face_index = rand_lim(groups[random_group_index]->getFaces().size() - 1);
face_selected.group_pos = random_group_index;
face_selected.face_pos = random_face_index;
face_selected.face = groups[random_group_index]->getFaceAt(random_face_index);
selection = SELECTION_FACE;
complexify();
}
void Goblin_update(Entity *self) {
if (self->ticks_idle > 30 / 4) {
if (self->x == self->destination.x &&
self->y == self->destination.y) {
self->destination.x = rand_lim(77) + 1;
self->destination.y = rand_lim(21) + 1;
}
self->moveToDestination(self);
self->ticks_idle = 0;
} else {
self->ticks_idle++;
}
}
int main(void) {
FILE *outFile;
srand(time(NULL));
int i, k, nums;
for (i = 0; i < 3; i++) {
if (i == 0) {
outFile = fopen("list0.txt", "w");
nums = 1000;
} else if (i == 1) {
outFile = fopen("list1.txt", "w");
nums = 1000;
} else {
outFile = fopen("list2.txt", "w");
nums = 1000;
}
for (k = 0; k < nums; k++) {
fprintf(outFile, "%d\n", rand_lim(1,1000));
}
fclose(outFile);
}
return 0;
}
//Flips a compeleted sudoku a random amounts of times around different axes
//http://dryicons.com/blog/2009/08/14/a-simple-algorithm-for-generating-sudoku-puzzles/
void sudoku_transform(Sudoku sudoku) {
//srand(time(NULL));
int i = 0;
while (i < 5000) { //Magic number, I know...
i++;
int val = rand_lim(150);
if (0 <= val && val < 25) {
sudoku_flip_vert(sudoku);
} else if (25 <= val && val < 50) {
sudoku_flip_hori(sudoku);
}
else if (50 <= val && val < 75) {
sudoku_flip_dia1(sudoku);
}
else if (75 <= val && val < 100) {
sudoku_flip_dia2(sudoku);
} else if (100 <= 125) {
sudoku_flip_box_rows(sudoku);
} else if (125 < 150) {
sudoku_flip_box_rows(sudoku);
} else if (150 < 175) {
sudoku_flip_rowbox(sudoku);
} else if (175 < 200) {
sudoku_flip_colbox(sudoku);
}
}
}
void accelerometer(void *arg)
{
RTIME now;
int acceptable;
/*
* Arguments: &task (NULL=self), start time, period
*/
rt_task_set_periodic(NULL, TM_NOW, 33333333);
while (isRunning) {
rt_task_wait_period(NULL);
acceptable = 0;
//acceptable = rand() % (800 - 0 + 1) + 0; // acceleration between 0-50
acceptable = rand_lim(20);
rt_mutex_acquire(&mutex_acc,TM_INFINITE);
if(acceptable > acc_sample)
acc_sample = acc_sample + 1;
else if(acceptable < acc_sample)
acc_sample = acc_sample - 1;
rt_mutex_release(&mutex_acc);
}
}
void wavelet_new_randshift (struct wavelet_plan_s* plan) {
int i;
int maxShift = 1 << (plan->numLevels_tr);
for(i = 0; i < plan->numdims_tr; i++) {
// Generate random shift value between 0 and maxShift
plan->randShift_tr[i] = rand_lim(&plan->state, maxShift);
}
}
//Swaps columns randomly within a box
void sudoku_flip_box_cols(Sudoku sudoku) {
int i, col, size = sudoku->size, div_size=sqrt(size);
int old_div=0, new_div=div_size;
for (i=0; i < size; i++) {
col = i % size;
while (80 > rand_lim(100)) { //Keep swapping with 70% chance
int col1 = old_div + rand_lim(div_size-1);
int col2 = old_div + rand_lim(div_size-1);
sudoku_swap_col(sudoku, col1, col2);
}
if ((col % (div_size) == 0) && (col != 0)) { //Entered a new box. Re-set boundaries.
old_div = new_div;
new_div += div_size;
}
}
}
//Flips rows randomly in each small box
void sudoku_flip_box_rows(Sudoku sudoku) {
int i, row, size = sudoku->size, div_size=sqrt(size);
int old_div=0, new_div=div_size;
for (i=0; i < (size*size); i+=size) {
row = i/size;
while (80 > rand_lim(100)) { //Keep swapping with 80% chance
int row1 = old_div + rand_lim(div_size-1);
int row2 = old_div + rand_lim(div_size-1);
sudoku_swap_row(sudoku, row1, row2);
}
if ((row % (div_size) == 0) && (row != 0)) { //Entered a new box. Re-set boundaries.
old_div = new_div;
new_div += div_size;
}
}
}
void generateRoom(){
int room = DRoom -> room;
DRoom -> room = DRoom -> room + 1;
generateEnemy();
printf("There is a %s in this room\n", Enemy->name);
DRoom -> roomClear= 0;
DRoom -> roomXp = rand_lim(Player->level) + Player->level + room;
generateWep(Player->level);
}
void genes_exchange(base **gene1, base **gene2, base **target)
{
int start_index = rand_lim(EQN_GENE_LENGTH - 1);
int end_index = start_index + rand_lim(EQN_GENE_LENGTH - start_index - 1);
for(int i = 0; i < EQN_GENE_LENGTH; i++)
{
if(i < start_index || i > end_index)
{
target[i]->value = gene1[i]->value;
target[i]->terminal = gene1[i]->terminal;
}
else
{
target[i]->value = gene2[i]->value;
target[i]->terminal = gene2[i]->terminal;
}
}
}
char* initializeBlock(bool data, int size) {
int tot = size * 1024;
char* buf = new char[tot];
const char* const num = "02390293402384092841" ;
if(data) {
for(int i = 0; i < tot; i++) {
*(buf+i) = num[rand_lim(20)];
}
}
return buf;
}
void gene_randomize(base **gene)
{
char *bases = "SIR01!gb+-*";
for(int i = 0; i < EQN_GENE_LENGTH; i++)
{
if(i < EQN_GENE_HEAD_LENGTH)
{
int choose_terminal = rand_lim(HEAD_TERMINAL_PROBABILITY);
int index;
if(choose_terminal == 0)
{
// Choose a terminal
index = rand_lim(NUM_TERMINALS - 1);
}
else
{
// Choose an operator
index = NUM_TERMINALS + rand_lim(NUM_OPERATORS - 1);
}
gene[i]->value = bases[index];
gene[i]->terminal = true;
if(bases[index] == '+' || bases[index] == '-' || bases[index] == '*')
{
gene[i]->terminal = false;
}
}
else
{
int index = rand_lim(NUM_TERMINALS - 1);
gene[i]->value = bases[index];
gene[i]->terminal = true;
}
}
}
int main(int argc, const char * argv[])
{
srand(time(NULL));
int k = atoi(argv[1]);
int n = atoi(argv[2]);
int i;
for(i = 0; i < n; i++) {
printf("%d\n", rand_lim(k));
}
return 0;
}
void sleep_rand(int max_ms) {
struct timespec rand_time;
unsigned int time_to_sleep = rand_lim(max_ms);
rand_time.tv_sec = 0;
rand_time.tv_nsec = time_to_sleep * 100000 + 1;
if (rand_time.tv_nsec > 999999999) {
rand_time.tv_nsec = 999999999;
}
//fprintf(stderr, "nsec val: %ld\n", rand_time.tv_nsec);
if (nanosleep(&rand_time, NULL) != 0) {
perror("nanosleep");
exit(1);
}
}
/**
* @brief A pitch will be written into pitch using the given values.
* @param pitch: (WIDTH*4-3)*9+9 minimum length, must contain only '\0' chars
* @param values: 16 ints, negative values become empty cells, WIDTH-2 maximum chars to write each value
*/
void create_pitch(int *values) {
call_srand();
int p_1 = 0;
int p_2 = 0;
while(p_1 == p_2) {
p_1 = rand_lim(15);
p_2 = rand_lim(15);
}
int p_1_v = rand_lim(3);
if (p_1_v < 3)
p_1_v = 2;
else
p_1_v = 4;
int p_2_v = rand_lim(3);
if (p_2_v < 3)
p_2_v = 2;
else
p_2_v = 4;
values[p_1] = p_1_v;
values[p_2] = p_2_v;
}
Weapon* generateWep(int currlevel){
Weapon *blank = (Weapon *) calloc(1,sizeof(Weapon));
blank -> type = rand_lim(MAX_WTYPES);
blank -> part1 = rand_lim(MAX_PART1);
blank -> part2 = rand_lim(MAX_PART2);
blank -> part3 = rand_lim(MAX_PART3);
blank -> lvl = rand_lim(currlevel) - rand_lim(currlevel/4) + currlevel/4;
blank -> attk = (int) (wTypeBase[blank->type] * Part1x[blank->part1]*Part2x[blank->part2]*Part3x[blank->part3]) * blank->lvl/( Part1x[blank->part1]+Part2x[blank->part2]+Part3x[blank->part3]);
return blank;
}
void Mesh::render_new_face(float* xyz) {
Vertex new_vertex = Vertex(xyz);
new_vertex.set_deletable(true);
unsigned int vertex_pos_first = 0;
unsigned int vertex_pos_second;
float min_dist = distance_bet(new_vertex, verts[vertex_pos_first]);
for (unsigned int i = 1; i < verts.size(); i++)
{
float dist = distance_bet(new_vertex, verts[i]);
if (dist < min_dist)
{
min_dist = dist;
vertex_pos_first = i;
}
}
do
vertex_pos_second = rand_lim(verts.size());
while (vertex_pos_second == vertex_pos_first);
min_dist = distance_bet(new_vertex, verts[vertex_pos_second]);
for (unsigned int i = 0; i < verts.size(); i++)
{
float dist = distance_bet(new_vertex, verts[i]);
if (dist < min_dist && i != vertex_pos_first)
{
min_dist = dist;
vertex_pos_second = i;
}
}
addVerts(new_vertex);
Face* new_face = new Face();
new_face->addVert(verts.size() - 1);
new_face->addVert(vertex_pos_first);
new_face->addVert(vertex_pos_second);
groups[groups.size() - 1]->addFace(new_face);
}
void gyroscope(void *arg)
{
RTIME now;
int randG, i, prev;
gyroIndex = 0;
/*
* Arguments: &task (NULL=self), start time, period
*/
rt_task_set_periodic(NULL, TM_NOW, 3333333);
while (isRunning) {
for(i=0; i<BUFFERSIZE; i++){
rt_task_wait_period(NULL);
//randG = rand() % (361 - 0 + 1) + 0; // angle between 0-361
randG = rand_lim(360);
rt_mutex_acquire(&mutex_gyro,TM_INFINITE);
//printf("Random: %d\n", randG);
prev = gyroIndex;
gyroIndex++;
if(gyro_sample[prev] >= 360 && randG > gyro_sample[prev])
gyro_sample[gyroIndex] = 1;
else if(gyro_sample[prev] <= 1 && randG < gyro_sample[prev])
gyro_sample[gyroIndex] = 360;
else if(randG > gyro_sample[prev])
gyro_sample[gyroIndex] = gyro_sample[prev] + 5;
else if(randG < gyro_sample[prev])
gyro_sample[gyroIndex] = gyro_sample[prev] - 5;
else
gyro_sample[gyroIndex] = gyro_sample[prev];
rt_mutex_release(&mutex_gyro);
}
rt_mutex_acquire(&mutex_gyro,TM_INFINITE);
gyroIndex = 0;
rt_mutex_release(&mutex_gyro);
}
}
/*
* Randomly shuffle the entire play queue
*
* Moves the entrie queue into an array of play_queue pointers.
* Shuffles the array, and relink the pointers from the array
* as the play_queue.
*/
void queue_shuffle()
{
struct play_queue *shuffle_array[queue_entry->size-1];
int cnt = 0;
struct play_queue *current = queue_entry->head;
if(current == NULL || current->next == NULL) {
//printf("Not enough tracks in queue to shuffle\n");
return;
}
while(cnt < queue_entry->size) {
shuffle_array[cnt] = current;
current = current->next;
cnt++;
}
int i = queue_entry->size-1;
struct play_queue *tmp;
for(i = queue_entry->size-1; i > 0; i--) {
int rand = rand_lim(i);
tmp = shuffle_array[rand];
shuffle_array[rand] = shuffle_array[i];
shuffle_array[i] = tmp;
}
cnt = 0;
queue_entry->head = shuffle_array[0];
current = queue_entry->head;
cnt++;
while(cnt < queue_entry->size-1) {
current->next = shuffle_array[cnt];
current = current->next;
cnt++;
}
current->next = shuffle_array[cnt];
current = current->next;
queue_entry->tail = current;
current->next = NULL;
queue_info();
}
void genes_recombine(base **gene1, base **gene2, base **target)
{
int crossover_index = rand_lim(EQN_GENE_LENGTH - 1);
for(int i = 0; i < EQN_GENE_LENGTH; i++)
{
if(i <= crossover_index)
{
target[i]->value = gene1[i]->value;
target[i]->terminal = gene1[i]->terminal;
}
else
{
target[i]->value = gene2[i]->value;
target[i]->terminal = gene2[i]->terminal;
}
}
}
static void wavelet3_thresh_apply(const operator_data_t* _data, float mu, complex float* out, const complex float* in)
{
const struct wavelet3_thresh_s* data = CAST_DOWN(wavelet3_thresh_s, _data);
long shift[data->N];
for (unsigned int i = 0; i < data->N; i++)
shift[i] = 0;
if (data->randshift) {
int levels = wavelet_num_levels(data->N, data->flags, data->dims, data->minsize, 4);
for (unsigned int i = 0; i < data->N; i++)
if (MD_IS_SET(data->flags, i))
shift[i] = rand_lim((unsigned int*)&data->rand_state, 1 << levels);
}
wavelet3_thresh(data->N, data->lambda * mu, data->flags, shift, data->dims,
out, in, data->minsize, 4, wavelet3_dau2);
}
int *createRightSides(int N, int d)
{
int* right_sides = malloc(N * d * sizeof(int));
int i, j;
for (i=0; i<N; ++i) {
for (j=0; j<d; ++j) {
right_sides[i*d+j] = i+N;
}
}
// shuffle right_sides
int temp,r;
for (i=N*d-1; i>1; --i) {
temp = right_sides[i];
r = rand_lim(i);
right_sides[i] = right_sides[r];
right_sides[r] = temp;
}
return right_sides;
}
void random_selector( long array_size, long num_of_points_retained, int *array)
{
printf("use array of %ld elements\n", array_size);
int i, j, m;
int *a; /* just a dynamic array */
a = (int *) malloc(array_size * sizeof(*a));
if (NULL == a) {
printf("Memory fails");
exit(1);
}
/* init array with ints between 0..array_size */
for (i = 0; i < array_size; ++i)
a[i] = i;
/* shuffle it */
srand(time(NULL));
for(i=0; i < array_size-1; i++)
{
m = i + rand_lim(array_size-i-1);
j = a[i];
a[i] = a[m];
a[m] = j;
}
for (i=0; i<num_of_points_retained; i++) {
array[i]=a[i];
// printf("DEBUG1: % d th original :%d \n",i, array[i]);
}
free(a);
}
