void PlotData(const char *title, const char *xaxis, const char *yaxis,
double xmin, double xmax, std::vector<double> &values)
{
CImg<double> y(values.data(), values.size());
const unsigned int plot_type = 1;
const unsigned int vertex_type = 0;
if (y.is_empty()) return;
CImgDisplay disp;
disp.assign(cimg_fitscreen(640,480,1),0,0).set_title(title);
show_graph(disp, y, plot_type, vertex_type, xaxis, xmin, xmax, yaxis);
}
int main(){
int G[MAX][MAX]={0},V;
printf("Enter the number of nodes of the graph: ");
scanf("%d",&V);
//read_graph(G,V);
addEdge(G,V,0,1);
addEdge(G,V,0,3);
addEdge(G,V,1,0);
addEdge(G,V,2,0);
addEdge(G,V,2,1);
addEdge(G,V,3,0);
addEdge(G,V,3,2);
show_graph(G,V);
dfs(G,V,2);
return 0;
}
void Scope2(const char *title, std::vector<double> &values)
{
CImg<double> y(values.data(), values.size());
float x0 = 0.0f;
float x1 = 1.25f * values.size();
const unsigned int plot_type = 1;
const unsigned int vertex_type = 0;
if (y.is_empty()) return;
CImgDisplay disp;
disp.assign(cimg_fitscreen(640,480,1),0,0).set_title(title);
show_graph(disp, y, plot_type, vertex_type, "t / ns", x0, x1, "adc units");
// y.display_graph(title ,plot_type, vertex_type, "t / ns", x0,x1, "adc units");
}
static void doProc(FILE *out, F_frame frame, T_stm body)
{
//printStm(body);
AS_proc proc;
T_stmList stmList;
AS_instrList iList;
stmList = C_linearize(body);
stmList = C_traceSchedule(C_basicBlocks(stmList));
//printStmList(stdout, stmList);
iList = codegen(frame, stmList); /* 9 */
G_graph g = FG_AssemFlowGraph(iList);
//G_show(stdout, G_nodes(g), show_instr);
//show_graph(g);
struct L_graph lg = L_liveness(g);
show_graph(lg.graph);
fprintf(out, "BEGIN %s\n", Temp_labelstring(F_name(frame)));
AS_printInstrList (out, iList, Temp_layerMap(F_tempMap,Temp_name()));
fprintf(out, "END %s\n\n", Temp_labelstring(F_name(frame)));
}
static int
iter_bar(strm_stream* strm, strm_value data)
{
struct bar_data* d = strm->data;
double f, max = 1.0;
if (interrupt) {
interrupt = FALSE;
strm_unsignal(SIGINT, sigupdate);
move_cursor(d->row-1, 1);
show_cursor();
exit(1);
}
if (!strm_number_p(data)) {
strm_raise(strm, "invalid data");
return STRM_NG;
}
if (winch) {
winch = FALSE;
free(d->data);
if (init_bar(d) == STRM_NG) {
strm_stream_close(strm);
return STRM_NG;
}
}
f = strm_value_float(data);
if (f < 0) f = 0;
d->data[d->offset++] = f;
max = 1.0;
for (int i=0; i<d->dlen; i++) {
f = d->data[i];
if (f > max) max = f;
}
d->max = max;
if (d->offset == d->dlen) {
d->offset = 0;
}
show_graph(d);
return STRM_OK;
}
/*
* on_tree_view_row_selected
* Evento "doppio-click" su una riga del treeview
*
*/
void on_tree_view_row_selected (GtkTreeView *tree_view, GtkTreePath *path, GtkTreeViewColumn *column, gpointer user_data)
{
GtkTreeIter iter;
GtkTreeModel *model;
gint id;
VESLog *veslog = (VESLog *) user_data;
/* Recupero le informazioni sulla riga selezionata */
model = gtk_tree_view_get_model(tree_view);
if (gtk_tree_model_get_iter(model, &iter, path)) {
gtk_tree_model_get(model, &iter, COL_ID, &id, -1);
}
printf("puppa\n");
/*
* Richiamo la funzione show_graph() per visualizzare la finestra di dialogo
* con i grafici e i dati realativi alla riga selezionata
*/
show_graph(veslog->Data[(int)id]);
}
static void decode(struct holder *holder)
{
unsigned int channels = holder->ininfo.channels;
float buf[channels * holder->samples_count];
int count, short_read;
do {
count = sf_readf_float(holder->infile, buf,
holder->samples_count);
if (count <= 0)
break;
/* the last chunk? */
short_read = count != holder->samples_count;
if (!short_read) {
compute_avg(holder, buf, count);
compute_fftw(holder);
show_graph(holder);
}
write_snd(holder, buf, count);
} while (!short_read);
}
int main()
{
graph_link gl;
init_graph(&gl);
insert_vertex(&gl, 'A');
insert_vertex(&gl, 'B');
insert_vertex(&gl, 'C');
insert_vertex(&gl, 'D');
insert_vertex(&gl, 'E');
insert_vertex(&gl, 'F');
insert_vertex(&gl, 'G');
insert_vertex(&gl, 'H');
insert_vertex(&gl, 'I');
insert_vertex(&gl, 'J');
insert_vertex(&gl, 'K');
insert_vertex(&gl, 'L');
insert_vertex(&gl, 'M');
insert_edge(&gl, 'A', 'B');
insert_edge(&gl, 'A', 'C');
insert_edge(&gl, 'A', 'F');
insert_edge(&gl, 'A', 'L');
insert_edge(&gl, 'B', 'M');
insert_edge(&gl, 'L', 'J');
insert_edge(&gl, 'L', 'M');
insert_edge(&gl, 'J', 'M');
insert_edge(&gl, 'D', 'E');
insert_edge(&gl, 'G', 'H');
insert_edge(&gl, 'G', 'I');
insert_edge(&gl, 'G', 'K');
insert_edge(&gl, 'H', 'K');
printf("\n");
show_graph(&gl);
printf("Depth First Search(DFS) all nodes of the graph: \n");
depth_first_search(&gl, 'D');
printf("Nul\n");
printf("Breadth First Search(BFS) all nodes of the graph: \n");
breadth_first_search(&gl, 'A');
printf("Nul\n");
printf("Non connect graph DFS: \n");
components(&gl);
printf("Nul\n");
//int v = get_first_neighbor(&gl, 'A');
//printf("The first neighbor node of 'A' is: %d\n", v);
//int v1 = get_next_neighbor(&gl, 'B', 'E');
//printf("The next neighbor node of 'B' and 'E' is: %d\n", v1);
//printf("\n");
//delete_edge(&gl, 'B', 'C');
//show_graph(&gl);
//delete_vertex(&gl, 'C');
destroy_graph(&gl);
}
