int main(void)
{
int matrix[3][5] = {{ 1, 2, 3, 4, 5},
{ 11, 12, 13, 14,15},
{ 21, 22, 23, 24, 25}
};
void scalar_multiply(int matrix[3][5], int scalar);
void display_matrix(int matrix[3][5]);
printf("Original Matrix:\n");
display_matrix(matrix);
scalar_multiply(matrix, 2);
printf("\nMultiplied by 2:\n");
display_matrix(matrix);
scalar_multiply(matrix, -1);
printf("\nMultiplied by -1:\n");
display_matrix(matrix);
return 0;
}
void main()
{
int row1, column1, row2, column2;
int matrix1[100][100], matrix2[100][100], final_matrix[100][100];
printf("Enter number of rows and columns of matrix 1\n");
scanf_s("%d%d", &row1, &column1);
printf("Enter elements of matrix 1\n");
read_matrix(row1, column1, matrix1);
printf("Enter number of rows and columns of matrix 2\n");
scanf_s("%d%d", &row2, &column2);
if (column1 != row2)
printf("Matrices cannot be multiplied \n");
else
{
printf("Enter elements of matrix 2\n");
read_matrix(row2, column2, matrix2);
}
printf("Matrix 1 is as follows \n");
display_matrix(row1, column1, matrix1);
printf("Mtrix 2 is as follows \n");
display_matrix(row2, column2, matrix2);
multiply_matrix(row1, column1, matrix1, row2, column2, matrix2, final_matrix);
printf("Resultant Matrix is as follows \n");
display_matrix(row1, column2, final_matrix);
getchar();
getchar();
getchar();
}
int main(void) {
char cmd_buff[MAX_CMD_LENGTH];
init();
init_matrix(4, 4);
print_help();
display_matrix();
wrefresh(display_wnd);
while (true) {
int wy, wx;
getyx(work_wnd, wy, wx);
wgetstr(work_wnd, cmd_buff);
wclear(display_wnd);
wborder(display_wnd,'|','|','=','=','*','*','*','*');
if (wy > WORK_HEIGHT - 3)
wclear(work_wnd);
eval(cmd_buff);
if (matrix != NULL)
display_matrix();
wrefresh(display_wnd);
wrefresh(work_wnd);
}
finish();
return 0;
}
int main(void){
int choice;
char done;
printmenu();
printf("play??\n");
scanf("%d, &choice");
if(choice == 2)
return;
done = ' ';
init_matrix();
do{
display_matrix();
player_move();
/* see if player is winner */
done = check();
if(done != ' ')
break; /* player is winner!*/
computer_move();
done = check(); /* see if computer is winner */
}
while(done == ' ');
if(done == 'X')
printf("-----YOU WON!!!-----\n");
else{
printf("-----I WON!!!!-----\n");
printf("-----OOPS!!! YOU LOSE...TRY NEXT TIME-----\n");
printmenu();
}
display_matrix(); /* show final positions */
return 0;
}
void tispellb_state::prepare_display()
{
// almost same as snspell
UINT16 gridmask = (m_display_decay[15][16] != 0) ? 0xffff : 0x8000; // vfd filament on/off
set_display_segmask(0xff, 0x3fff);
display_matrix(16+1, 16, m_plate | 1<<16, m_grid & gridmask);
}
void tispellb_state::prepare_display()
{
// almost same as snspell
u16 gridmask = vfd_filament_on() ? 0xffff : 0x8000;
set_display_segmask(0xff, 0x3fff);
display_matrix(16+1, 16, m_plate | 1<<16, m_grid & gridmask);
}
void fidel68k_state::eag_prepare_display()
{
// 8*7seg leds, (8+1)*8 chessboard leds
UINT8 seg_data = BITSWAP8(m_7seg_data,0,1,3,2,7,5,6,4);
set_display_segmask(0x1ef, 0x7f);
display_matrix(16, 9, m_led_data << 8 | seg_data, m_inp_mux);
}
void fidel68k_state::eag_prepare_display()
{
// Excel 68000: 4*7seg leds, 8*8 chessboard leds
// EAG: 8*7seg leds(2 panels), (8+1)*8 chessboard leds
uint8_t seg_data = BITSWAP8(m_7seg_data,0,1,3,2,7,5,6,4);
set_display_segmask(0x1ff, 0x7f);
display_matrix(16, 9, m_led_data << 8 | seg_data, m_inp_mux);
}
void Main_win::load_clicked()
{
try
{
QString q_form = QFileDialog::getOpenFileName(this, tr("Load Matrix"));
std::ifstream f;
f.open(q_form.toStdString(), std::ios_base::in);
if(f.is_open())
{
int row = 0;
int col = 0;
char c = 0;
bool flag = true;
while(f.get(c))
{
if(flag && (c == ' '))
col++;
if(c == '\n')
{
row++;
flag = false;
}
}
f.clear();
f.seekg(0, f.beg);
std::istream_iterator<double> ii{f};
std::istream_iterator<double> eos{};
std::vector<double> v{ii, eos};
f.close();
remove_matrix();
build_matrix(row, col);
mat_dim_.first = row;
mat_dim_.second = col;
mat_dim_tmp_.first = row;
mat_dim_tmp_.second = col;
display_matrix(row, col, v);
}
else throw std::ios_base::failure("cannot open file");
}
catch(std::exception& e)
{
e.what();
to_display(e.what());
}
}
/**
* \brief perform a gauss experiment with n x n matrix
*
* \param n dimension of the matrix the inverse
*/
void experiment(int n) {
/* create a system to solve */
a = random_matrix(n, 2 * n);
/* display the matrix */
if (n <= 10) {
display_matrix(stdout, a, n, 2 * n);
}
/* perform the Gauss algorithm */
gauss();
/* display the matrix */
if (n <= 10) {
display_matrix(stdout, a, n, 2 * n);
}
free(a);
}
//convert the ray to the matrix visualisation
void ray_of_ints_to_matrix_picture(struct ray* r){
int mtx_rows = r->length;
// TODO: change mtx_cols to max int in array (within reason ...)
int mtx_cols = r->length;
printf("%i\n", r->length);
char m[mtx_rows][mtx_cols];
populate_matrix(mtx_rows,mtx_cols, m, r->array, UNIT, BLANK);
display_matrix(mtx_rows,mtx_cols, m);
}
int main()
{
int N;
scanf("%d",&N);
int *matrix_a = (int *)malloc(N * N * sizeof(int));
int *matrix_b = (int *)malloc(N * N * sizeof(int));
int *matrix_c = (int *)malloc(N * N * sizeof(int));
read_matrix(matrix_a, N);
read_matrix(matrix_b, N);
multiply_matrix_3(matrix_a, matrix_b, matrix_c, N);
display_matrix(matrix_c, N);
}
void Main_win::display_result(const Matrix& m)
{
remove_matrix();
build_matrix(m.rows(), m.cols());
mat_dim_.first = m.rows();
mat_dim_.second = m.cols();
mat_dim_tmp_.first = m.rows();
mat_dim_tmp_.second = m.cols();
display_matrix(m);
}
void get_inputs_and_solve(int* p_sle_solver){
Matrix *matrix, *initial_guess, *solution_matrix, *roots;
int rows, columns, single_column = 1, iter, error, error_code = 0;
get_row_col(&rows, &columns,
"Enter no. of rows of coefficient matrix: ",
"Enter no. of columns of coefficient matrix: ",
"Error! Coefficient matrix is not a square matrix. Try again.\n",
is_square_matrix);
printf("\n");
matrix = get_input_matrix(&rows, &columns, 1, 1, 'A');
display_matrix(matrix, "Coefficient Matrix A: \n");
printf("\nEnter solution matrix values: \n");
solution_matrix = get_input_matrix(&rows, &single_column, 0, 0, 'C');
display_matrix(solution_matrix, "\nSolution Matrix C: \n");
printf("\nEnter unknown matrix initial guesses: \n");
initial_guess = get_input_matrix(&rows, &single_column, 0, 0, 'X');
display_matrix(initial_guess, "\nInitial Unknown Matrix X: \n");
get_iter_error(&iter, &error);
roots = iterative_method(p_sle_solver, matrix, initial_guess,
solution_matrix, &iter, &error, display_iteration, &error_code);
if(0 == roots && error_code == 1)
printf("Division by zero.\n");
else{
printf("The unknowns of the system of equations are:\n\n");
display_roots(roots, 'x');
mtx_delete_matrix(roots);
}
mtx_delete_matrix(matrix);
mtx_delete_matrix(solution_matrix);
mtx_delete_matrix(initial_guess);
}
void display_print(uint8_t column) {
if (column == 2)display_matrix(column, ~(pattern[encode(print_char)][0]));
else if (column == 3)display_matrix(column, ~(pattern[encode(print_char)][1]));
else if (column == 4)display_matrix(column, ~(pattern[encode(print_char)][2]));
else if (column == 5)display_matrix(column, ~(pattern[encode(print_char)][3]));
else if (column == 6)display_matrix(column, ~(pattern[encode(print_char)][4]));
else display_matrix(column, 0x00);
}
void solve(t_tet *lst)
{
t_matrix matrix;
int len;
len = nk_sqrt(list_count(lst));
matrix = create_matrix(len, len);
while ((matrix.map = recurse(matrix, lst, return_pos(0, 0))) == NULL)
{
matrix = create_matrix(len, len);
len++;
}
display_matrix(matrix);
free_lst(lst);
free_matrix(matrix.map, matrix.size_y);
}
int main(int argc, char** argv)
{
if (argc < 3) {
puts("Nombre de parametres insuffisants");
return 1;
}
size_a = strlen(argv[1]);
size_b = strlen(argv[2]);
// int size_lcs = get_size_of_lcs(argv[1], argv[2], 0, 0);
// printf("%d\n", size_lcs);
char** matrix = build_path(argv[1], argv[2]);
display_matrix(matrix, size_a+2, size_b+2);
print_LCS(matrix, argv[1], argv[2], size_a, size_b);
return 0;
}
void display_scroll(uint8_t column) {
if (scroll_pointer + column < DISPLAY_WIDTH || scroll_pointer + column >= DISPLAY_WIDTH + scroll_char_pointer * 6 || (scroll_pointer + column - DISPLAY_WIDTH) % 6 == 5)display_matrix(column, 0x00);
else display_matrix(column, ~(pattern[encode(scroll_char[(scroll_pointer + column - DISPLAY_WIDTH) / 6])][(scroll_pointer + column - DISPLAY_WIDTH) % 6]));
}
int main(int argc, char *argv[]){
double mmvalues[] = {2.0,3.0,1.0,1.0,4.0,2.0,2.0,1.0,2.0,1.0,4.0,2.0,2.0,3.0,1.0,1.0,4.0,2.0,2.0,1.0,2.0,1.0,4.0,2.0,5.0,4.0,2.0,2.0,1.0,2.0,\
4.0,2.0,2.0,1.0,2.0,1.0,6.0,3.0,1.0,1.0,4.0,2.0,2.0,1.0,9.0,1.0,4.0,2.0,5.0,4.0,2.0,2.0,1.0,2.0,5.0,5.0,2.0,2.0,1.0,2.0};
matrix_t mm, ma, mb, mc, md, mx, my, mz;
init_matrix(&mm, 'm', 6, 6, mmvalues);
init_matrix(&ma, 'a', 3, 3, NULL);
init_matrix(&mb, 'b', 3, 3, NULL);
init_matrix(&mc, 'c', 3, 3, NULL);
display_matrix(&mm);
display_matrix(&ma);
display_matrix(&mb);
display_matrix(&mc);
free_matrix(&ma);
ma = get_submatrix(&mm, 2, 1, 4, 4);
display_matrix(&ma);
free_matrix(&mb);
mb = get_submatrix(&mm, 3, 2, 4, 4);
display_matrix(&mb);
mx = matrix_mul(&ma, &mb, 'X');
my = square_matrix_mul_recursive(&ma, &mb, 'Y');
mz = square_matrix_mul_strassen(&ma, &mb, 'Z');
printf("the result is \n");
display_matrix(&mx);
display_matrix(&my);
display_matrix(&mz);
ma = get_submatrix(&mm, 1, 2, 6, 1);
mb = get_submatrix(&mm, 2, 1, 1, 6);
display_matrix(&ma);
display_matrix(&mb);
mc = matrix_mul(&mb, &ma, '1');
display_matrix(&mc);
md = matrix_mul(&ma, &mb, 'S');
display_matrix(&md);
free_matrix(&mc);
mc = matrix_scale(&md, 2, '2');
display_matrix(&mc);
free_matrix(&ma);
free_matrix(&mb);
free_matrix(&mc);
free_matrix(&md);
free_matrix(&mx);
free_matrix(&my);
free_matrix(&mz);
return 0;
}//main
/*
* PURPOSE: Runs various commands for the operations to be performed on the matrices
* INPUTS: command array, matrix array, size of matrix array
* RETURN: Nothing
**/
void run_commands (Commands_t* cmd, Matrix_t** mats, unsigned int num_mats) {
if(cmd == NULL || mats == NULL || num_mats <= 0)
return;
/*Parsing and calling of commands*/
if (strncmp(cmd->cmds[0],"display",strlen("display") + 1) == 0
&& cmd->num_cmds == 2) {
/*find the requested matrix*/
int idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
if (idx >= 0) {
display_matrix (mats[idx]);
}
else {
printf("Matrix (%s) doesn't exist\n", cmd->cmds[1]);
return;
}
}
else if (strncmp(cmd->cmds[0],"add",strlen("add") + 1) == 0
&& cmd->num_cmds == 4) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
int mat2_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[2]);
if (mat1_idx >= 0 && mat2_idx >= 0) {
Matrix_t* c = NULL;
if( !create_matrix (&c,cmd->cmds[3], mats[mat1_idx]->rows,
mats[mat1_idx]->cols)) {
printf("Failure to create the result Matrix (%s)\n", cmd->cmds[3]);
return;
}
if(add_matrix_to_array(mats,c, num_mats) == -1){
printf("Failed to add matrix to the array");
return;
}
if (! add_matrices(mats[mat1_idx], mats[mat2_idx],c) ) {
printf("Failure to add %s with %s into %s\n", mats[mat1_idx]->name, mats[mat2_idx]->name,c->name);
return;
}
}
}
else if (strncmp(cmd->cmds[0],"duplicate",strlen("duplicate") + 1) == 0
&& cmd->num_cmds == 3 && strlen(cmd->cmds[1]) + 1 <= MATRIX_NAME_LEN) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
if (mat1_idx >= 0 ) {
Matrix_t* dup_mat = NULL;
if( !create_matrix (&dup_mat,cmd->cmds[2], mats[mat1_idx]->rows,
mats[mat1_idx]->cols)) {
return;
}
if(duplicate_matrix (mats[mat1_idx], dup_mat) == false){
printf("Duplication Failed\n");
return;
}
if(add_matrix_to_array(mats,dup_mat,num_mats) == -1){
printf("Failed to add matrix to array\n");
return;
}
printf ("Duplication of %s into %s finished\n", mats[mat1_idx]->name, cmd->cmds[2]);
}
else {
printf("Duplication Failed\n");
return;
}
}
else if (strncmp(cmd->cmds[0],"equal",strlen("equal") + 1) == 0
&& cmd->num_cmds == 3) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
int mat2_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[2]);
if (mat1_idx >= 0 && mat2_idx >= 0) {
if ( equal_matrices(mats[mat1_idx],mats[mat2_idx]) ) {
printf("SAME DATA IN BOTH\n");
}
else {
printf("DIFFERENT DATA IN BOTH\n");
}
}
else {
printf("Equal Failed\n");
return;
}
}
else if (strncmp(cmd->cmds[0],"shift",strlen("shift") + 1) == 0
&& cmd->num_cmds == 4) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
const int shift_value = atoi(cmd->cmds[3]);
if (mat1_idx <= 0 ) {
printf("Matrix shift failed\n");
return;
}
if(bitwise_shift_matrix(mats[mat1_idx],cmd->cmds[2][0], shift_value) == false){
printf("Matrix shift failed\n");
return;
}
else
printf("Matrix (%s) has been shifted by %d\n", mats[mat1_idx]->name, shift_value);
}
else if (strncmp(cmd->cmds[0],"read",strlen("read") + 1) == 0
&& cmd->num_cmds == 2) {
Matrix_t* new_matrix = NULL;
if(! read_matrix(cmd->cmds[1],&new_matrix)) {
printf("Read Failed\n");
return;
}
if(add_matrix_to_array(mats,new_matrix, num_mats) == -1){
printf("Failed to add matrix to the array");
;
}
printf("Matrix (%s) is read from the filesystem\n", cmd->cmds[1]);
}
else if (strncmp(cmd->cmds[0],"write",strlen("write") + 1) == 0
&& cmd->num_cmds == 2) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
if(! write_matrix(mats[mat1_idx]->name,mats[mat1_idx])) {
printf("Write Failed\n");
return;
}
else {
printf("Matrix (%s) is wrote out to the filesystem\n", mats[mat1_idx]->name);
}
}
else if (strncmp(cmd->cmds[0], "create", strlen("create") + 1) == 0
&& strlen(cmd->cmds[1]) + 1 <= MATRIX_NAME_LEN && cmd->num_cmds == 4) {
Matrix_t* new_mat = NULL;
const unsigned int rows = atoi(cmd->cmds[2]);
const unsigned int cols = atoi(cmd->cmds[3]);
if(create_matrix(&new_mat,cmd->cmds[1],rows, cols) == false){
printf("Failed to create the matrix");
return;
}
if(add_matrix_to_array(mats,new_mat,num_mats) == -1){
printf("Failed to add matrix to the array");
return;
}
printf("Created Matrix (%s,%u,%u)\n", new_mat->name, new_mat->rows, new_mat->cols);
}
else if (strncmp(cmd->cmds[0], "random", strlen("random") + 1) == 0
&& cmd->num_cmds == 4) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
const unsigned int start_range = atoi(cmd->cmds[2]);
const unsigned int end_range = atoi(cmd->cmds[3]);
if(random_matrix(mats[mat1_idx],start_range, end_range) == false){
printf("Failed to randomize\n");
return;//TODO ERROR CHECK NEEDED
}
printf("Matrix (%s) is randomized between %u %u\n", mats[mat1_idx]->name, start_range, end_range);
}
else {
printf("Not a command in this application\n");
}
}
void SyntopReducer::reduce(HadoopPipes::ReduceContext& context) { // NOLINT
boost::split(temp_string_components_, context.getInputKey(),
boost::is_any_of("_"));
float sum = 0;
while (context.nextValue()) {
sum += HadoopUtils::toFloat(context.getInputValue());
}
if (boost::starts_with(temp_string_components_[0], "gamma")) {
context.emit(context.getInputKey(), boost::lexical_cast<string>(sum));
} else if (boost::starts_with(temp_string_components_[0], "lhood")) {
// sum += GlobalLikelihoodTerm();
sum += GlobalWeightTerm(vars_->nu_.get(),
vars_->beta_.get(),
params_->alpha_trans(),
params_->alpha_top(),
params_->finite());
context.emit(context.getInputKey(), boost::lexical_cast<string>(sum));
} else {
if (boost::starts_with(temp_string_components_[2], "~")) {
// cout << "optimizing" << endl;
Optimize();
Emit(&output);
StringMap::const_iterator last = (output).end();
for (StringMap::const_iterator itr = (output).begin();
itr != last; itr++) {
// cout << itr->first << "\t" << itr->second << endl;
context.emit(itr->first, boost::lexical_cast<string>(itr->second));
}
output.clear();
last = (output).end();
for (StringMap::const_iterator itr = (output).begin();
itr != last; itr++) {
// cout << "output is\t" << itr->first << "\t" << itr->second << endl;
// context.emit(itr->first, boost::lexical_cast<string>(itr->second));
}
index = boost::lexical_cast<int>(temp_string_components_[1]);
vars_ = new VariationalParameters(*params_);
display_matrix(vars_->tau_est_top_.get(), "tau_est_top is\n");
display_vector(vars_->tau_est_bottom_.get(), "tau_est_bottom is\n");
tau_coordinate_ = -1;
nu_coordinate_ = -1;
} else {
ProcessKey(context.getInputKey(), sum);
// cout << "processing\t" << context.getInputKey() << "\t" << sum << endl;
}
/*
if (index == -1) {
index = boost::lexical_cast<double>(temp_string_components_[1]);
// reduceContext = context;
} else {
if (index != boost::lexical_cast<int>(temp_string_components_[1])) {
Optimize();
Emit(&output);
StringMap::const_iterator last = (output).end();
for (StringMap::const_iterator itr = (output).begin();
itr != last; itr++) {
// cout << itr->first << "\t" << itr->second << endl;
context.emit(itr->first, boost::lexical_cast<string>(itr->second));
}
output.clear();
index = boost::lexical_cast<int>(temp_string_components_[1]);
vars_ = new VariationalParameters(*params_);
tau_coordinate_ = -1;
nu_coordinate_ = -1;
}
}
*/
}
// }
}
/*
* PURPOSE: run the commands which user entered
* INPUTS:
* cmd double pointer that holds all commands
* mats the matrix list
* num_mats the number of matrix in the list
* RETURN: void
* If no errors occurred during process then return nothing
* else print error message
**/
void run_commands (Commands_t* cmd, Matrix_t** mats, unsigned int num_mats) {
//TODO ERROR CHECK INCOMING PARAMETERS
if(!cmd){
printf("commands array is null\n");
return;
}
if(!(*mats)){
printf("matrix list is null\n");
return;
}
/*Parsing and calling of commands*/
if (strncmp(cmd->cmds[0],"display",strlen("display") + 1) == 0
&& cmd->num_cmds == 2) {
/*find the requested matrix*/
int idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
if (idx >= 0) {
display_matrix (mats[idx]);
}
else {
printf("Matrix (%s) doesn't exist\n", cmd->cmds[1]);
return;
}
}
else if (strncmp(cmd->cmds[0],"add",strlen("add") + 1) == 0
&& cmd->num_cmds == 4) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
int mat2_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[2]);
if (mat1_idx >= 0 && mat2_idx >= 0) {
Matrix_t* c = NULL;
if( !create_matrix (&c,cmd->cmds[3], mats[mat1_idx]->rows,
mats[mat1_idx]->cols)) {
printf("Failure to create the result Matrix (%s)\n", cmd->cmds[3]);
return;
}
if(add_matrix_to_array(mats,c, num_mats) == 999){
perror("PROGRAM FAILED TO ADD MATRIX TO ARRAY\n");
return;
} //TODO ERROR CHECK NEEDED
if (! add_matrices(mats[mat1_idx], mats[mat2_idx],c) ) {
printf("Failure to add %s with %s into %s\n", mats[mat1_idx]->name, mats[mat2_idx]->name,c->name);
return;
}
}
}
else if (strncmp(cmd->cmds[0],"duplicate",strlen("duplicate") + 1) == 0
&& cmd->num_cmds == 3 && strlen(cmd->cmds[1]) + 1 <= MATRIX_NAME_LEN) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
if (mat1_idx >= 0 ) {
Matrix_t* dup_mat = NULL;
if( !create_matrix (&dup_mat,cmd->cmds[2], mats[mat1_idx]->rows,
mats[mat1_idx]->cols)) {
return;
}
if(!duplicate_matrix (mats[mat1_idx], dup_mat)){
perror("PROGRAM FAILED TO DUPLICATE MATRIX\n");
return;
} //TODO ERROR CHECK NEEDED
if(add_matrix_to_array(mats,dup_mat,num_mats) == 999){
perror("PROGRAM FAILED TO ADD MATRIX TO ARRAY\n");
return;
} //TODO ERROR CHECK NEEDED
printf ("Duplication of %s into %s finished\n", mats[mat1_idx]->name, cmd->cmds[2]);
}
else {
printf("Duplication Failed\n");
return;
}
}
else if (strncmp(cmd->cmds[0],"equal",strlen("equal") + 1) == 0
&& cmd->num_cmds == 2) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
int mat2_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[2]);
if (mat1_idx >= 0 && mat2_idx >= 0) {
if ( equal_matrices(mats[mat1_idx],mats[mat2_idx]) ) {
printf("SAME DATA IN BOTH\n");
}
else {
printf("DIFFERENT DATA IN BOTH\n");
}
}
else {
printf("Equal Failed\n");
return;
}
}
else if (strncmp(cmd->cmds[0],"shift",strlen("shift") + 1) == 0
&& cmd->num_cmds == 4) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
const int shift_value = atoi(cmd->cmds[3]);
if (mat1_idx >= 0 ) {
if(!bitwise_shift_matrix(mats[mat1_idx],cmd->cmds[2][0], shift_value)){
perror("PROGRAM FAILED TO SHIFT MATRIX\n");
return;
} //TODO ERROR CHECK NEEDED
printf("Matrix (%s) has been shifted by %d\n", mats[mat1_idx]->name, shift_value);
}
else {
printf("Matrix shift failed\n");
return;
}
}
else if (strncmp(cmd->cmds[0],"read",strlen("read") + 1) == 0
&& cmd->num_cmds == 2) {
Matrix_t* new_matrix = NULL;
if(! read_matrix(cmd->cmds[1],&new_matrix)) {
printf("Read Failed\n");
return;
}
if(add_matrix_to_array(mats,new_matrix, num_mats) == 999){
perror("PROGRAM FAILED TO ADD MATRIX TO ARRAY\n");
return;
} //TODO ERROR CHECK NEEDED
printf("Matrix (%s) is read from the filesystem\n", cmd->cmds[1]);
}
else if (strncmp(cmd->cmds[0],"write",strlen("write") + 1) == 0
&& cmd->num_cmds == 2) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
if(! write_matrix(mats[mat1_idx]->name,mats[mat1_idx])) {
printf("Write Failed\n");
return;
}
else {
printf("Matrix (%s) is wrote out to the filesystem\n", mats[mat1_idx]->name);
}
}
else if (strncmp(cmd->cmds[0], "create", strlen("create") + 1) == 0
&& strlen(cmd->cmds[1]) + 1 <= MATRIX_NAME_LEN && cmd->num_cmds == 4) {
Matrix_t* new_mat = NULL;
const unsigned int rows = atoi(cmd->cmds[2]);
const unsigned int cols = atoi(cmd->cmds[3]);
if(!create_matrix(&new_mat,cmd->cmds[1],rows, cols)){
perror("PROGRAM FAILED TO ADD CREATE TO ARRAY\n");
return;
} //TODO ERROR CHECK NEEDED
if(add_matrix_to_array(mats,new_mat,num_mats) == 999){
perror("PROGRAM FAILED TO ADD MATRIX TO ARRAY\n");
return;
} // TODO ERROR CHECK NEEDED
printf("Created Matrix (%s,%u,%u)\n", new_mat->name, new_mat->rows, new_mat->cols);
}
else if (strncmp(cmd->cmds[0], "random", strlen("random") + 1) == 0
&& cmd->num_cmds == 4) {
int mat1_idx = find_matrix_given_name(mats,num_mats,cmd->cmds[1]);
const unsigned int start_range = atoi(cmd->cmds[2]);
const unsigned int end_range = atoi(cmd->cmds[3]);
if(!random_matrix(mats[mat1_idx],start_range, end_range)) {
perror("PROGRAM FAILED TO RANDOMIZE MATRIX\n");
return;
} //TODO ERROR CHECK NEEDED
printf("Matrix (%s) is randomized between %u %u\n", mats[mat1_idx]->name, start_range, end_range);
}
else {
printf("Not a command in this application\n");
}
}
template<class T> void SGMatrix<T>::display_matrix(const char* name) const
{
display_matrix(matrix, num_rows, num_cols, name);
}
int main(int arc, char**argv) {
if (arc != 2) {
print_trace(TRACE_ERROR, "Veuillez indiquer un fichier où stocker la matrice de calibration.\n");
return EXIT_FAILURE;
}
struct Matrix *matrice = create_matrix(NB_LIGNES,NB_COLONNES, NUM_CAPTORS);
pthread_mutex_init(&mutexMatrice, NULL);
for (uint8_t i = 0; i < NUM_CAPTORS; i++) {
mesures[i] = calloc(200, sizeof(char));
}
bdaddr_t controllerAdd, server1Mac, server2Mac, server3Mac, sensorMac;
str2ba(btControllerAdd, &controllerAdd);
str2ba(server1Add, &server1Mac);
str2ba(server2Add, &server2Mac);
str2ba(server3Add, &server3Mac);
str2ba(sensorAdd, &sensorMac);
hci_controller_t hci_controller = hci_open_controller(&controllerAdd, "MAIN_SERVER");
sensor = bt_device_create(sensorMac, PUBLIC_DEVICE_ADDRESS, NULL, "SENSOR_TAG");
server1 = bt_device_create(server1Mac, PUBLIC_DEVICE_ADDRESS, NULL, "SERVER_1");
server2 = bt_device_create(server2Mac, PUBLIC_DEVICE_ADDRESS, NULL, "SERVER_2");
server3 = bt_device_create(server3Mac, PUBLIC_DEVICE_ADDRESS, NULL, "SERVER_3");
hci_LE_clear_white_list(NULL, &hci_controller);
hci_LE_add_white_list(NULL, &hci_controller, sensor);
// Création des trois clients :
l2cap_client_t clients[NUM_CAPTORS-1] = {0};
l2cap_client_create(&clients[0], &server1Mac, 0x1001, 500, NULL, &(send_req_func));
l2cap_client_create(&clients[1], &server2Mac, 0x1001, 500, NULL, &(send_req_func));
l2cap_client_create(&clients[2], &server3Mac, 0x1001, 500, NULL, &(send_req_func));
if (l2cap_client_connect(&clients[0]) != 0) {
perror("client_connect : unable to connect client 1");
return EXIT_FAILURE;
}
if (l2cap_client_connect(&clients[1]) != 0) {
perror("client_connect : unable to connect client 2");
return EXIT_FAILURE;
}
if (l2cap_client_connect(&clients[2]) != 0) {
perror("client_connect : unable to connect client 3");
return EXIT_FAILURE;
}
fprintf(stderr, "\n-------------------\n");
fprintf(stderr, "----Calibration----\n");
fprintf(stderr, "-------------------\n");
pthread_t clients_threads[NUM_CAPTORS];
struct routine_data_t routine_data[NUM_CAPTORS];
for (uint8_t k = 0; k < NUM_CAPTORS; k++) {
routine_data[k].timeout = 4500;
routine_data[k].num_captor = k;
routine_data[k].hci_controller = &hci_controller;
routine_data[k].sensor = sensor;
if (k < NUM_CAPTORS-1) {
routine_data[k].client = &(clients[k]);
} else {
routine_data[k].client = NULL;
}
routine_data[k].matrice = matrice;
}
char command[20] = {0};
char *status;
char retry = 0;
for (uint8_t i = 0; i < NB_LIGNES; i++) {
for (uint8_t j = 0; j < NB_COLONNES; j++) {
scan:
retry = 0;
fprintf(stdout, "Position courante : %i, %i\n", i, j);
scanf("%s", command);
for (uint8_t k = 0; k < NUM_CAPTORS; k++) {
routine_data[k].num_row = i;
routine_data[k].num_col = j;
pthread_create(&(clients_threads[k]), NULL,
&(get_rssi_thread_routine),
(void *)&routine_data[k]);
}
for (uint8_t k = 0; k < 4; k ++) {
pthread_join(clients_threads[k], (void **)&status);
retry = retry || *status;
}
if (retry) {
print_trace(TRACE_WARNING, "Attention : impossible d'acquérir les mesures pour cette case, veuillez réessayer.\n");
goto scan;
}
}
}
// Fermeture des clients :
// Envoie des demandes de fin de connexion :
l2cap_client_send(&clients[0], 3000, CLIENT_CLOSE_CONNECTION);
l2cap_client_send(&clients[1], 3000, CLIENT_CLOSE_CONNECTION);
l2cap_client_send(&clients[2], 3000, CLIENT_CLOSE_CONNECTION);
// Destruction des clients :
l2cap_client_close(&clients[0]);
l2cap_client_close(&clients[1]);
l2cap_client_close(&clients[2]);
display_matrix(matrice);
save_matrix(argv[1], *matrice);
pthread_mutex_destroy(&mutexMatrice);
hci_close_controller(&hci_controller);
display_hci_socket_list(hci_controller.sockets_list);
bt_destroy_device_table();
}
void
Rank(int n)
{
int N, i, k, r;
double p_value, product, chi_squared, arg1, p_32, p_31, p_30, R, F_32, F_31, F_30;
BitSequence **matrix = create_matrix(32, 32);
N = n/(32*32);
if ( isZero(N) ) {
fprintf(stats[TEST_RANK], "\t\t\t\tRANK TEST\n");
fprintf(stats[TEST_RANK], "\t\tError: Insuffucient # Of Bits To Define An 32x32 (%dx%d) Matrix\n", 32, 32);
p_value = 0.00;
}
else {
r = 32; /* COMPUTE PROBABILITIES */
product = 1;
for ( i=0; i<=r-1; i++ )
product *= ((1.e0-pow(2, i-32))*(1.e0-pow(2, i-32)))/(1.e0-pow(2, i-r));
p_32 = pow(2, r*(32+32-r)-32*32) * product;
r = 31;
product = 1;
for ( i=0; i<=r-1; i++ )
product *= ((1.e0-pow(2, i-32))*(1.e0-pow(2, i-32)))/(1.e0-pow(2, i-r));
p_31 = pow(2, r*(32+32-r)-32*32) * product;
p_30 = 1 - (p_32+p_31);
F_32 = 0;
F_31 = 0;
for ( k=0; k<N; k++ ) { /* FOR EACH 32x32 MATRIX */
def_matrix(32, 32, matrix, k);
#if (DISPLAY_MATRICES == 1)
display_matrix(32, 32, matrix);
#endif
R = computeRank(32, 32, matrix);
if ( R == 32 )
F_32++; /* DETERMINE FREQUENCIES */
if ( R == 31 )
F_31++;
}
F_30 = (double)N - (F_32+F_31);
chi_squared =(pow(F_32 - N*p_32, 2)/(double)(N*p_32) +
pow(F_31 - N*p_31, 2)/(double)(N*p_31) +
pow(F_30 - N*p_30, 2)/(double)(N*p_30));
arg1 = -chi_squared/2.e0;
fprintf(stats[TEST_RANK], "\t\t\t\tRANK TEST\n");
fprintf(stats[TEST_RANK], "\t\t---------------------------------------------\n");
fprintf(stats[TEST_RANK], "\t\tCOMPUTATIONAL INFORMATION:\n");
fprintf(stats[TEST_RANK], "\t\t---------------------------------------------\n");
fprintf(stats[TEST_RANK], "\t\t(a) Probability P_%d = %f\n", 32,p_32);
fprintf(stats[TEST_RANK], "\t\t(b) P_%d = %f\n", 31,p_31);
fprintf(stats[TEST_RANK], "\t\t(c) P_%d = %f\n", 30,p_30);
fprintf(stats[TEST_RANK], "\t\t(d) Frequency F_%d = %d\n", 32,(int)F_32);
fprintf(stats[TEST_RANK], "\t\t(e) F_%d = %d\n", 31,(int)F_31);
fprintf(stats[TEST_RANK], "\t\t(f) F_%d = %d\n", 30,(int)F_30);
fprintf(stats[TEST_RANK], "\t\t(g) # of matrices = %d\n", N);
fprintf(stats[TEST_RANK], "\t\t(h) Chi^2 = %f\n", chi_squared);
fprintf(stats[TEST_RANK], "\t\t(i) NOTE: %d BITS WERE DISCARDED.\n", n%(32*32));
fprintf(stats[TEST_RANK], "\t\t---------------------------------------------\n");
p_value = exp(arg1);
if ( isNegative(p_value) || isGreaterThanOne(p_value) )
fprintf(stats[TEST_RANK], "WARNING: P_VALUE IS OUT OF RANGE.\n");
for ( i=0; i<32; i++ ) /* DEALLOCATE MATRIX */
free(matrix[i]);
free(matrix);
}
fprintf(stats[TEST_RANK], "%s\t\tp_value = %f\n\n", p_value < ALPHA ? "FAILURE" : "SUCCESS", p_value); fflush(stats[TEST_RANK]);
fprintf(results[TEST_RANK], "%f\n", p_value); fflush(results[TEST_RANK]);
}