int main(int argc, char const *argv[])
{
double operating_time, operating_current;
double discharge_time;
//ask user for battery info
printf("%s", "Enter battery voltage > ");
scanf("%lf", &bat.voltage);
printf("%s", "Enter power rating of the battery (in joules) > ");
scanf("%lf", &bat.energy_limit);
printf("%s", "What is battery’s available energy (in joules) > ");
scanf("%lf", &bat.energy_available);
printf("%s", "What is operating time (in seconds) > ");
scanf("%lf", &operating_time);
printf("%s", "What is operating current (int amps) > ");
scanf("%lf", &operating_current);
/****** start calculation *******/
bat = power_device (bat, operating_time, operating_current);
printf("\n\nthe outcome is %d\n",bat.dec);
printf("the updated energy is %f\n\n\n",bat.energy_available);
discharge_time = max_time(bat, operating_time, operating_current);
printf("%s%f\n", "Discharge time with current load:\n", discharge_time);
bat = recharge (bat);
discharge_time = max_time(bat, operating_time, operating_current);
printf("%s%f\n", "Discharge time after the battery is fully recharged:\n",
discharge_time);
//debug
//printf("%f %f %f\n", bat.voltage, bat.energy_limit, bat.energy_available);
return 0;
}
void connection_queue::on_timeout(error_code const& e)
{
mutex_t::scoped_lock l(m_mutex);
INVARIANT_CHECK;
#ifdef TORRENT_DEBUG
function_guard guard_(m_in_timeout_function);
#endif
TORRENT_ASSERT(!e || e == asio::error::operation_aborted);
if (e) return;
ptime next_expire = max_time();
ptime now = time_now_hires() + milliseconds(100);
std::list<entry> timed_out;
for (std::list<entry>::iterator i = m_queue.begin();
!m_queue.empty() && i != m_queue.end();)
{
if (i->connecting && i->expires < now)
{
std::list<entry>::iterator j = i;
++i;
timed_out.splice(timed_out.end(), m_queue, j, i);
--m_num_connecting;
continue;
}
if (i->expires < next_expire)
next_expire = i->expires;
++i;
}
// we don't want to call the timeout callback while we're locked
// since that is a recepie for dead-locks
l.unlock();
for (std::list<entry>::iterator i = timed_out.begin()
, end(timed_out.end()); i != end; ++i)
{
#ifndef BOOST_NO_EXCEPTIONS
try {
#endif
i->on_timeout();
#ifndef BOOST_NO_EXCEPTIONS
} catch (std::exception&) {}
#endif
}
l.lock();
if (next_expire < max_time())
{
error_code ec;
m_timer.expires_at(next_expire, ec);
m_timer.async_wait(boost::bind(&connection_queue::on_timeout, this, _1));
}
try_connect(l);
}
Event count(const events_t & events) {
if (events.empty()) {
return {};
}
return events.front().copy().set_metric(events.size())
.set_time(max_time(events));
}
void connection_queue::check_invariant() const
{
int num_connecting = 0;
for (std::list<entry>::const_iterator i = m_queue.begin();
i != m_queue.end(); ++i)
{
if (i->connecting) ++num_connecting;
else TORRENT_ASSERT(i->expires == max_time());
}
TORRENT_ASSERT(num_connecting == m_num_connecting);
}
Event mean(const events_t & events) {
if (events.empty()) {
return {};
}
Event e(events.front());
e.set_metric_d(reduce(sum_fn, events) / events.size());
e.set_time(max_time(events));
return e;
}
Event maximum(const events_t & events) {
if (events.empty()) {
return {};
}
double max = events[0].metric();
for (const auto & e: events) {
auto tmp = e.metric();
if (tmp > max) {
max = tmp;
}
}
Event e(events.front());
e.set_metric_d(max);
e.set_time(max_time(events));
return e;
}
Event minimum(const events_t & events) {
if (events.empty()) {
return {};
}
double min = metric_to_double(events[0]);
for (const auto & e: events) {
auto tmp = metric_to_double(e);
if (tmp < min) {
min = tmp;
}
}
Event e(events.front());
e.set_metric_d(min);
e.set_time(max_time(events));
return e;
}
void connection_queue::on_timeout(error_code const& e)
{
#if defined TORRENT_ASIO_DEBUGGING
complete_async("connection_queue::on_timeout");
#endif
mutex_t::scoped_lock l(m_mutex);
--m_num_timers;
INVARIANT_CHECK;
#ifdef TORRENT_DEBUG
function_guard guard_(m_in_timeout_function);
#endif
TORRENT_ASSERT(!e || e == error::operation_aborted);
// if there was an error, it's most likely operation aborted,
// we should just quit. However, in case there are still connections
// in connecting state, and there are no other timer invocations
// we need to stick around still.
if (e && (m_num_connecting == 0 || m_num_timers > 0)) return;
ptime next_expire = max_time();
ptime now = time_now_hires() + milliseconds(100);
std::list<entry> timed_out;
for (std::list<entry>::iterator i = m_queue.begin();
!m_queue.empty() && i != m_queue.end();)
{
if (i->connecting && i->expires < now)
{
std::list<entry>::iterator j = i;
++i;
timed_out.splice(timed_out.end(), m_queue, j, i);
--m_num_connecting;
continue;
}
if (i->connecting && i->expires < next_expire)
next_expire = i->expires;
++i;
}
// we don't want to call the timeout callback while we're locked
// since that is a recepie for dead-locks
l.unlock();
for (std::list<entry>::iterator i = timed_out.begin()
, end(timed_out.end()); i != end; ++i)
{
TORRENT_ASSERT(i->connecting);
TORRENT_ASSERT(i->ticket != -1);
TORRENT_TRY {
i->on_timeout();
} TORRENT_CATCH(std::exception&) {}
}
l.lock();
if (next_expire < max_time())
{
#if defined TORRENT_ASIO_DEBUGGING
add_outstanding_async("connection_queue::on_timeout");
#endif
error_code ec;
m_timer.expires_at(next_expire, ec);
m_timer.async_wait(boost::bind(&connection_queue::on_timeout, this, _1));
++m_num_timers;
}
try_connect(l);
}
entry(): connecting(false), ticket(0), expires(max_time()), priority(0) {}
std::unique_ptr<intermediate> run(
const std::atomic_bool& keep_going) const {
// RAYTRACER /////////////////////////////////////////////////////////
const auto rays_to_visualise = std::min(32ul, raytracer_.rays);
engine_state_changed_(state::starting_raytracer, 1.0);
auto raytracer_output = raytracer::canonical(
compute_context_,
voxels_and_mesh_.voxels,
source_,
receiver_,
environment_,
raytracer_,
rays_to_visualise,
keep_going,
[&](auto step, auto total_steps) {
engine_state_changed_(state::running_raytracer,
step / (total_steps - 1.0));
});
if (!(keep_going && raytracer_output)) {
return nullptr;
}
engine_state_changed_(state::finishing_raytracer, 1.0);
raytracer_reflections_generated_(std::move(raytracer_output->visual),
source_);
// look for the max time of an impulse
const auto max_stochastic_time =
max_time(raytracer_output->aural.stochastic);
// WAVEGUIDE /////////////////////////////////////////////////////////
engine_state_changed_(state::starting_waveguide, 1.0);
auto waveguide_output = waveguide_->run(
compute_context_,
voxels_and_mesh_,
source_,
receiver_,
environment_,
max_stochastic_time,
keep_going,
[&](auto& queue, const auto& buffer, auto step, auto steps) {
// If there are node pressure listeners.
if (!waveguide_node_pressures_changed_.empty()) {
auto pressures =
core::read_from_buffer<float>(queue, buffer);
const auto time =
step / waveguide_->compute_sampling_frequency();
const auto distance =
time * environment_.speed_of_sound;
waveguide_node_pressures_changed_(std::move(pressures),
distance);
}
engine_state_changed_(state::running_waveguide,
step / (steps - 1.0));
});
if (!(keep_going && waveguide_output)) {
return nullptr;
}
engine_state_changed_(state::finishing_waveguide, 1.0);
return make_intermediate_impl_ptr(
make_combined_results(std::move(raytracer_output->aural),
std::move(*waveguide_output)),
source_,
receiver_,
room_volume_,
environment_);
}
int main(int argc, char **argv){
if(argc<2){
printf("Usage: ./trace domain \n for example: ./trace www.utdallas.edu\n");
exit(0);
}
char command[200];
strcpy(command, "traceroute ");
strcat(command, argv[1]);
strcat(command, " > output.txt");
system(command);
FILE * fp;
char * line = NULL;
size_t len = 0;
ssize_t read;
char *token;
char delimiter[5] = " (),";
char* strArray[12];
fp = fopen("output.txt", "r"); // open file
if (fp == NULL)
exit(EXIT_FAILURE);
int line_number = 0;
int currentLine = 0;
int tokenNumber = 0;
float time[3];
float min, max, avg;
while ((read = getline(&line, &len, fp)) != -1) { //while line present do following
printf("%s", line);
tokenNumber = 0;
token = strtok(line, delimiter); // token separated
if(currentLine == 0)
{
//code for fist line
while(token != NULL)
{
strArray[tokenNumber] = (char*)malloc(strlen(token) + 1);
strcpy(strArray[tokenNumber], token); //token copy
tokenNumber++;
token = strtok(NULL, delimiter);
}
printf("DNS = %s\nIP = %s\n\n",strArray[2],strArray[3]);
currentLine++;
}
else
{
//code for other lines
while(token != NULL)
{
strArray[tokenNumber] = (char*)malloc(strlen(token) + 1);
strcpy(strArray[tokenNumber], token);
if(tokenNumber == 3)
{
time[0] = atof(strArray[tokenNumber]); //time token saved by converting it to float
}
if(tokenNumber == 5)
{
time[1] = strtod(strArray[tokenNumber],NULL); //time token saved by converting it to float
}
if(tokenNumber == 7)
{
time[2] = strtod(strArray[tokenNumber],NULL); //time token saved by converting it to float
}
tokenNumber++;
token = strtok(NULL, delimiter);
}
min = min_time(time, 3); //find min
max = max_time(time, 3); // find max
avg = avg_time(time, 3); // find avg
printf("DNS = %s\nIP = %s\n",strArray[1],strArray[2]);
printf( "time 1 = %f, time 2 = %f, time 3 = %f\n",time[0], time[1], time[2]);
printf( "min time = %f\nmax time = %f\navg time = %f\n\n",min, max, avg);
}
}
fclose(fp); //close file
printf(" ** end of mytrace program ** \n");
}
