int main()
try {
int width, height;
cin >> width >> height;
print_area(width, height);
}
catch (runtime_error e) {
cout << "caught in main: " << e.what() << "\n";
}
// Function to perform the monte carlo integration
void monte_carlo(frame &anim, double threshold, double box_length){
// Creating random numbers with mt19937
static std::random_device rd;
int seed = rd();
static std::mt19937 gen(seed);
// integer to hold the max number our vectors should count to
int vec_count = 1, prev_print_count = 0;
// Creating vector to hold points for visualization later
std::vector<pos> points(1024);
std::vector<color> pt_clrs(1024), area_clrs(1024), pe_clrs(1024);
color pt_clr, area_clr, pe_clr;
double count_in = 0;
double ratio;
std::vector<double> area(1024), pe_vec(1024);
//double true_area = circle_area(0.5 * box_length);
double true_area = batman_area(anim.res_x * 0.03);
double temp_area;
//double container_area = box_length * box_length;
pos oval_radius;
oval_radius.x = box_length / 2.0;
oval_radius.y = box_length / 4.0;
double container_area = oval_area(oval_radius);
// distribution for box
std::uniform_real_distribution<double> box_dist(-0.5,0.5);
// distribution for oval?
//std::uniform_real_distribution<double> oval_dist;
// defining location of dot
pos loc;
// pe is the percent error -- setting arbitrarily high for now...
double pe = 10;
std::cout << "performing monte_carlo..." << '\n';
// number of generations to wor with
int iterations = 200;
int final_count = 1;
for (int i = 0; i < iterations; ++i){
if (final_count < 1024){
final_count *= 2;
}
else{
final_count += 1024;
}
}
//while (abs(pe) > threshold){
for (int count = 1; count < final_count; ++count){
loc.x = box_dist(gen) * box_length + anim.origin.x;
loc.y = box_dist(gen) * box_length + anim.origin.y;
//while (!in_square(loc, box_length, anim.origin)){
while(!in_oval(loc, oval_radius, anim.origin)){
//std::cout << "regenerating point" << '\n';
loc.x = box_dist(gen) * box_length + anim.origin.x;
loc.y = box_dist(gen) * box_length + anim.origin.y;
}
if (is_batman(loc, anim.origin, anim.res_x * 0.03)){
count_in += 1;
pt_clr.b = 0.0;
pt_clr.g = 0.0;
pt_clr.r = 0.0;
}
else{
pt_clr.b = 0.0;
pt_clr.g = 1.0;
pt_clr.r = 1.0;
}
/*
// Color scheme for circle
if (in_circle(anim, loc, box_length/2)){
count_in += 1;
pt_clr.b = 0.0;
pt_clr.g = 1.0;
pt_clr.r = 0.0;
}
else{
pt_clr.b = 0.0;
pt_clr.g = 0.0;
pt_clr.r = 1.0;
}
*/
//points.push_back(loc);
points[count - prev_print_count - 1] = loc;
//std::cout << count - prev_print_count << '\t'
// << points[count - prev_print_count - 1].x << '\t'
// << points[count - prev_print_count - 1].y << '\n';
//pt_clrs.push_back(pt_clr);
pt_clrs[count - prev_print_count - 1] = pt_clr;
temp_area = (((double)count_in/(double)count)*container_area);
ratio = ((double)count_in/(double)count);
//area.push_back(temp_area);
pe = (temp_area - true_area) / true_area;
//pe_vec.push_back(abs(pe));
if (abs(pe) < threshold){
area_clr.r = 0;
area_clr.g = 1;
area_clr.b = 0;
pe_clr.r = 0;
pe_clr.g = 1;
pe_clr.b = 0;
}
if (abs(pe) >= threshold){
area_clr.r = 1;
area_clr.g = 0;
area_clr.b = 0;
pe_clr.r = 1;
pe_clr.g = 0;
pe_clr.b = 0;
}
//area_clrs.push_back(area_clr);
//pe_clrs.push_back(pe_clr);
/*
draw_point(anim, loc, pt_clr);
if (anim.curr_frame + 1 < num_frames){
anim.curr_frame++;
}
*/
if (count - prev_print_count == vec_count){
//std::cout << "printing..." << '\n';
for (int j = 0; j < vec_count; ++j){
draw_point(anim, points[j], pt_clrs[j]);
//std::cout << points[j].x << '\t' << points[j].y << '\n';
}
print_area(anim, ratio, area_clr);
print_pe(anim, abs(pe), pe_clr);
print_count(anim, count);
if (vec_count < 1024){
vec_count *= 2;
}
if (anim.curr_frame + 1 < num_frames){
anim.curr_frame++;
}
prev_print_count = count;
}
//std::cout << count << '\t' << vec_count << '\t'
// << prev_print_count << '\t' << temp_area
// << '\t' << pe << '\n';
//std::cout << count << '\n';
}
//std::cout << anim.curr_frame << '\n';
}
/*
* Name: dissect_osi_options()
*
* Description:
* Main entry area for esis de-mangling. This will build the
* main esis tree data and call the sub-protocols as needed.
*
* Input:
* guchar : length of option section
* tvbuff_t * : tvbuff containing packet data
* int : offset into packet where we are (packet_data[offset]== start
* of what we care about)
* proto_tree * : tree of display data. May be NULL.
*
* Output:
* void, but we will add to the proto_tree if it is not NULL.
*/
void
dissect_osi_options( guchar opt_len, tvbuff_t *tvb,
int offset, proto_tree *tree) {
proto_item *ti;
proto_tree *osi_option_tree = NULL;
guchar parm_len = 0;
guchar parm_type = 0;
guint8 octet;
if (tree) {
if ( 0 == opt_len ) {
proto_tree_add_text( tree, tvb, offset, 0,
"### No Options for this PDU ###" );
return;
}
ti = proto_tree_add_text( tree, tvb, offset, opt_len,
"### Option Section ###" );
osi_option_tree = proto_item_add_subtree( ti, ott_osi_options );
while ( 0 < opt_len ) {
parm_type = (int) tvb_get_guint8(tvb, offset);
offset++;
parm_len = (int) tvb_get_guint8(tvb, offset);
offset++;
switch ( parm_type ) {
case OSI_OPT_QOS_MAINTANANCE:
octet = tvb_get_guint8(tvb, offset);
dissect_option_qos( (guchar) (octet&OSI_OPT_QOS_MASK),
(guchar) (octet&OSI_OPT_QOS_SUB_MASK),
offset, parm_len, tvb, osi_option_tree );
break;
case OSI_OPT_SECURITY:
octet = tvb_get_guint8(tvb, offset);
if ( clnp_decode_atn_options ){
dissect_option_atn_security_label(octet,parm_len,tvb, offset, osi_option_tree );
}else {
proto_tree_add_text( osi_option_tree, tvb, offset, parm_len,
"Security type: %s",
val_to_str( octet&OSI_OPT_SEC_MASK,
osi_opt_sec_vals, "Unknown (0x%x)") );
}
break;
case OSI_OPT_PRIORITY:
octet = tvb_get_guint8(tvb, offset);
if ( OSI_OPT_MAX_PRIORITY >= octet ) {
proto_tree_add_text( osi_option_tree, tvb, offset, parm_len,
"Priority : %u", octet );
}
else {
proto_tree_add_text( osi_option_tree, tvb, offset, parm_len,
"Priority : %u ( Invalid )",
octet );
}
break;
case OSI_OPT_ADDRESS_MASK:
proto_tree_add_text( osi_option_tree, tvb, offset, parm_len,
"Address Mask: %s",
print_area( tvb_get_ptr(tvb, offset, parm_len), parm_len ) );
break;
case OSI_OPT_SNPA_MASK:
proto_tree_add_text( osi_option_tree, tvb, offset, parm_len,
"SNPA Mask : %s",
print_system_id( tvb_get_ptr(tvb, offset, parm_len), parm_len ));
break;
case OSI_OPT_ES_CONFIG_TIMER:
proto_tree_add_text( osi_option_tree, tvb, offset, parm_len,
"ESCT : %u seconds", tvb_get_ntohs( tvb, offset ) );
break;
case OSI_OPT_PADDING:
proto_tree_add_text( osi_option_tree, tvb, offset, parm_len,
"Padding : %u Octets", parm_len ) ;
break;
case OSI_OPT_SOURCE_ROUTING:
case OSI_OPT_RECORD_OF_ROUTE:
dissect_option_route( parm_type,
offset, parm_len, tvb, osi_option_tree );
break;
case OSI_OPT_REASON_OF_DISCARD:
dissect_option_rfd( tvb_get_guint8(tvb, offset),
tvb_get_guint8(tvb, offset + 1),
offset, parm_len, tvb, osi_option_tree );
break;
}
opt_len -= parm_len + 2;
offset += parm_len;
}
}
} /* dissect-osi-options */