float Player::computeAzimuth (AudioObj* obj) const {
float Azimuth;
float xTemp=obj->getLocation().getX() - location.getX();
float yTemp=obj->getLocation().getY() - location.getY();
if (xTemp == 0) {
Azimuth = (yTemp>=0)?0:180;
} else if (yTemp == 0) {
Azimuth = (xTemp>0)?90:-90;
} else {
Azimuth = atan(fabs(xTemp/yTemp))*R2D;
if(yTemp<0)Azimuth = 180-Azimuth;
if(xTemp<0)Azimuth = -Azimuth;
}
Azimuth = Azimuth - getBearing();
if (Azimuth > 180) {
while (Azimuth > 180) {
Azimuth -=360;
}
} else if (Azimuth <= -180) {
while (Azimuth <= -180) {
Azimuth += 360;
}
}
return Azimuth;
}
/**
* Calculates the direction of the vector pointing to the outside
* of the area spanned by the two vectors.
*/
double outsideVector(QPoint center, QPoint p1, QPoint p2){
double v1=getBearing(center, p1);
double v2=getBearing(center, p2);
double res1=(v1+v2)/2;
double res2=res1+M_PI;
res1=normalize(res1);
res2=normalize(res2);
if(res1-std::min(v1,v2)<0.5 * M_PI) {
return res1;
} else {
return res2;
}
}
int main(int argc, const char * argv[])
{
if(argc < 5 || argc > 5)
{
printf("Usage: ./bikehelper start_long start_lat end_long end_lat (in degrees) \n");
exit(1);
}
int h;
for( h = 1; h < argc; h++)
{
checkInputError(h, argv);
}
if(-180 > atof(argv[1]) || atof(argv[1]) > 180.0)
{
printf("Longtitude between -180 and 180 only \n");
exit(1);
}
if(-180 > atof(argv[3]) || atof(argv[3]) > 180.0)
{
printf("Longtitude between -180 and 180 only \n");
exit(1);
}
if(-90 > atof(argv[2]) || atof(argv[2]) > 90 )
{
printf("Latitude between -90 and 90 only \n");
exit(1);
}
if(-90 > atof(argv[4]) || atof(argv[4]) > 90)
{
printf("Latitude between -90 and 90 only \n");
exit(1);
}
char *first_bikestop;
char *destination_file;
int file_size = (int)loadToMemory("/usr/local/unnc/ae1prg/npb/stops.txt" , &destination_file);
char *second_bikestop;
double longtitude_bus[3];
double latitude_bus[3];
char busStop_name[3][40];
char *direction[3];
int bearing[3];
printf("Starting from %s %s \n", argv[1], argv[2]);
/* ---------------------------------- First part of the output ----------------------------------- */
char *stop = toBikeStop(destination_file, atof(argv[1]), atof(argv[2]), file_size, &first_bikestop);
sscanf(first_bikestop, "%lf %lf %s", &longtitude_bus[0], &latitude_bus[0], busStop_name[0]);
bearing[0] = getBearing(atof(argv[1]), atof(argv[2]), longtitude_bus[0], latitude_bus[0]);
getDirection(bearing[0], &direction[0]);
printf("Walk %s to %s at %f, %f \n", direction[0], busStop_name[0], longtitude_bus[0], latitude_bus[0]);
/* ---------------------------------- Second part of the output ----------------------------------- */
char * stop1 = toBikeStop(destination_file, atof(argv[3]), atof(argv[4]), file_size, &second_bikestop);
sscanf(second_bikestop, "%lf %lf %s", &longtitude_bus[1], &latitude_bus[1], busStop_name[1]);
bearing[1] = getBearing(longtitude_bus[0], latitude_bus[0], longtitude_bus[1], latitude_bus[1]);
getDirection(bearing[1], &direction[1]);
printf("Cycle %s to %s at %f, %f \n", direction[1], busStop_name[1], longtitude_bus[1],latitude_bus[1]);
/* ---------------------------------- Third part of the output ----------------------------------- */
bearing[2] = getBearing(longtitude_bus[1], latitude_bus[1], atof(argv[3]), atof(argv[4])),
getDirection(bearing[2], &direction[2]);
printf("Walk %s to your destination at %f, %f \n",direction[2],atof(argv[3]), atof(argv[4]));
free(stop);
free(stop1);
free(destination_file);
return 0;
}
void OsmAnd::RoutePlanner::splitRoadsAndAttachRoadSegments( OsmAnd::RoutePlannerContext::CalculationContext* context, QVector< std::shared_ptr<RouteSegment> >& route )
{
for(auto itSegment = iteratorOf(route); itSegment; ++itSegment)
{
auto segment = *itSegment;
/*TODO:GC
if (ctx.checkIfMemoryLimitCritical(ctx.config.memoryLimitation)) {
ctx.unloadUnusedTiles(ctx.config.memoryLimitation);
}
*/
//TODO:GC:checkAndInitRouteRegion(context, segment->road);
const bool isIncrement = segment->startPointIndex < segment->endPointIndex;
for(auto pointIdx = segment->startPointIndex; pointIdx != segment->endPointIndex; isIncrement ? pointIdx++ : pointIdx--)
{
const auto nextIdx = (isIncrement ? pointIdx + 1 : pointIdx - 1);
if (pointIdx == segment->startPointIndex)
attachRouteSegments(context, route, itSegment.current, pointIdx, isIncrement);
if (nextIdx != segment->endPointIndex)
attachRouteSegments(context, route, itSegment.current, nextIdx, isIncrement);
if (nextIdx < 0 || nextIdx >= segment->attachedRoutes.size())
continue;
if (nextIdx >= 0 && nextIdx < segment->attachedRoutes.size() && nextIdx != segment->endPointIndex && !segment->road->isRoundabout())
{
const auto& attachedRoutes = segment->attachedRoutes[qAbs(static_cast<int64_t>(nextIdx) - segment->startPointIndex)];
auto before = segment->getBearing(nextIdx, !isIncrement);
auto after = segment->getBearing(nextIdx, isIncrement);
auto straight = qAbs(Utilities::normalizedAngleDegrees(before + 180.0 - after)) < (double)MinTurnAngle;
auto isSplit = false;
// split if needed
for(const auto& attachedSegment : constOf(attachedRoutes))
{
auto diff = Utilities::normalizedAngleDegrees(before + 180.0 - attachedSegment->getBearingBegin());
if (qAbs(diff) <= (double)MinTurnAngle)
isSplit = true;
else if (!straight && qAbs(diff) < 100.0)
isSplit = true;
}
if (isSplit)
{
std::shared_ptr<RouteSegment> split(new RouteSegment(segment->road, nextIdx, segment->endPointIndex));
//TODO:split.copyPreattachedRoutes(segment, qAbs(nextIdx - segment->startPointIndex));?
segment->_endPointIndex = nextIdx;
segment->_attachedRoutes.resize(qAbs(static_cast<int64_t>(segment->_endPointIndex) - static_cast<int64_t>(segment->_startPointIndex)) + 1);
itSegment.set(route.insert((++itSegment).current, split));
itSegment.update(route);
// switch current segment to the splited
segment = split;
}
}
}
}
}
/**
* Order of actions:
* a) transition of human into infected
* b) giving birth to children - changes input
* c) making love - changes input
* d) movement
*/
static void simulateStep2(WorldPtr input, WorldPtr output) {
simClock clock = output->clock;
// notice that we iterate over xx and yy
// and the real x and y are randomly switched between two directions
double xxDir = randomDouble();
double yyDir = randomDouble();
// we want to force static scheduling because we suppose that the load
// is distributed evenly over the map and we need to have predictable locking
#ifdef _OPENMP
// at least three columns per thread
int threads = omp_get_max_threads();
int numThreads = MIN(MAX(input->localWidth / 3, 1), threads);
#pragma omp parallel for num_threads(numThreads) schedule(static)
#endif
for (int xx = input->xStart; xx <= input->xEnd; xx++) {
int x = (xxDir < 0.5) ? xx : (input->xEnd + input->xStart - xx);
// stats are counted per column and summed at the end
Stats stats = NO_STATS;
lockColumn(output, x);
for (int yy = input->yStart; yy <= input->yEnd; yy++) {
int y = (yyDir < 0.5) ? yy : (input->yEnd + input->yStart - yy);
Entity entity = GET_CELL(input, x, y);
if (entity.type == NONE) {
continue;
}
// Convert Human to Infected
if (entity.type == HUMAN) {
int zombieCount = countNeighbouringZombies(input, x, y);
double infectionChance = zombieCount * PROBABILITY_INFECTION;
if (randomDouble() <= infectionChance) {
if (entity.gender == FEMALE) {
stats.humanFemalesBecameInfected++;
} else {
stats.humanMalesBecameInfected++;
}
toInfected(&entity, clock);
LOG_EVENT("A Human became infected\n");
}
}
// Here are performed natural processed of humans and infected
if (entity.type == HUMAN || entity.type == INFECTED) {
// giving birth
if (entity.gender == FEMALE && entity.children > 0) {
if (entity.origin + entity.borns <= clock) {
if (entity.type == HUMAN) {
stats.humanFemalesGivingBirth++;
} else {
stats.infectedFemalesGivingBirth++;
}
Entity * freePtr;
while (entity.children > 0 && (freePtr =
getFreeAdjacent(input, output, x, y)) != NULL) {
Entity child = giveBirth(&entity, clock);
if (child.type == HUMAN) {
if (child.gender == FEMALE) {
stats.humanFemalesBorn++;
} else {
stats.humanMalesBorn++;
}
} else {
if (child.gender == FEMALE) {
stats.infectedFemalesBorn++;
} else {
stats.infectedMalesBorn++;
}
}
*freePtr = child;
LOG_EVENT("A %s child was born\n",
child.type == HUMAN ? "Human" : "Infected");
}
} else {
if (entity.type == HUMAN) {
stats.humanFemalesPregnant++;
} else {
stats.infectedFemalesPregnant++;
}
}
}
// making love
if (entity.gender == FEMALE && entity.children == 0
&& clock >= entity.origin + entity.fertilityStart
&& clock < entity.origin + entity.fertilityEnd) { // can have baby
EntityPtr adjacentMale = findAdjacentFertileMale(input, x,
y, clock);
if (adjacentMale != NULL) {
stats.couplesMakingLove++;
makeLove(&entity, adjacentMale, clock, input->stats);
stats.childrenConceived += entity.children;
LOG_EVENT("A couple made love\n");
}
}
}
if (entity.type == HUMAN) {
if (entity.gender == FEMALE) {
stats.humanFemales++;
} else {
stats.humanMales++;
}
} else if (entity.type == INFECTED) {
if (entity.gender == FEMALE) {
stats.infectedFemales++;
} else {
stats.infectedMales++;
}
} else {
stats.zombies++;
}
// MOVEMENT
bearing bearing_ = getBearing(input, x, y); // optimal bearing
bearing_ += getRandomBearing() * BEARING_FLUCTUATION;
Direction dir = bearingToDirection(bearing_);
if (dir != STAY) {
double bearingRandomQuotient = (randomDouble() - 0.5)
* BEARING_ABS_QUOTIENT_VARIANCE
+ BEARING_ABS_QUOTIENT_MEAN;
entity.bearing = bearing_ / cabsf(bearing_)
* bearingRandomQuotient;
} else {
entity.bearing = bearing_;
}
// some randomness in direction
// the entity will never go in the opposite direction
if (dir != STAY) {
if (randomDouble() < getMaxSpeed(&entity, clock)) {
double dirRnd = randomDouble();
if (dirRnd < DIRECTION_MISSED) {
dir = DIRECTION_CCW(dir); // turn counter-clock-wise
} else if (dirRnd < DIRECTION_MISSED * 2) {
dir = DIRECTION_CW(dir); // turn clock-wise
} else if (dirRnd
> DIRECTION_FOLLOW + DIRECTION_MISSED * 2) {
dir = STAY;
}
} else {
dir = STAY;
}
} else {
// if the entity would STAY, we'll try again to make it move
// to make the entity bearing variable in terms of absolute value
double bearingRandomQuotient = (randomDouble() - 0.5)
* BEARING_ABS_QUOTIENT_VARIANCE
+ BEARING_ABS_QUOTIENT_MEAN;
bearing_ += getRandomBearing() * bearingRandomQuotient;
dir = bearingToDirection(bearing_);
}
// we will try to find the cell in the chosen direction
CellPtr destPtr = NULL;
if (dir != STAY) {
destPtr = IF_CAN_MOVE_TO(x, y, dir);
if (randomDouble() < MOVEMENT_TRY_ALTERNATIVE) {
if (destPtr == NULL) {
destPtr = IF_CAN_MOVE_TO(x, y, DIRECTION_CCW(dir));
}
if (destPtr == NULL) {
destPtr = IF_CAN_MOVE_TO(x, y, DIRECTION_CW(dir));
}
}
}
if (destPtr == NULL) {
destPtr = GET_CELL_PTR(output, x, y);
}
// actual assignment of entity to its destination
*destPtr = entity;
}
unlockColumn(output, x);
#ifdef _OPENMP
#pragma omp critical (StatsCriticalRegion2)
#endif
{
mergeStats(&output->stats, stats, true);
}
}
}
/**
* Function interprets incoming message, extracts relevant data based on message type
* and fills apropriate object variables with this data.
*
* Basestation SBS format message is basically single comma-separated-values (CSV) record.
* Basestation produces four different SBS message types. This type is determined by first field of csv record.
* Fields of which message consists are determined by this type.
*
* ------------------------------
* -----NEW AIRCRAFT MESSAGE-----
* ------------------------------
* This message is broadcasted when SBS-1 picks up a signal for an aircraft that isn't currently tracking,
* i.e. it's when a new aircraft appers on the aircraft list. Structure of this type:
*
* 1 AIR
* 2 [null]
* 3 System-generated sessionID
* 4 System-generated aircraftID
* 5 ICAO24 hex ident
* 6 System generated flightID
* 7 Date message detected
* 8 Time message detected
* 9 Date message logged
* 10 Time message logged
*
*
* --------------------
* -----ID MESSAGE-----
* --------------------
* This message is broadcasted when a callsign is first received, or is changed.
*
* 1 ID
* 2 [null]
* 3 System-generated sessionID
* 4 System-generated aircraftID
* 5 ICAO24 hex ident
* 6 System generated flightID
* 7 Date message detected
* 8 Time message detected
* 9 Date message logged
* 10 Time message logged
* 11 Callsign
*
*
* ----------------------------------
* -----SELECTION CHANGE MESSAGE-----
* ----------------------------------
* This is rather internal Basestation system message with no new information value.
* It is broadcasted when user changes the selection, or in special cases, it can be broadcasted,
* when new aircraft has been added (due to implementation).
*
* 1 SEL
* 2 [null]
* 3 System-generated sessionID
* 4 System-generated aircraftID
* 5 ICAO24 hex ident
* 6 System generated flightID
* 7 Date message detected
* 8 Time message detected
* 9 Date message logged
* 10 Time message logged
* 11 Callsign
*
*
* ------------------------------
* -----TRANSMISSION MESSAGE-----
* ------------------------------
* Finally, most important message. It is basically rebroadcasting of every ADS-B message
* received from aircraft - in decoded format.
* This format is produced by most ADS-B decoders as text based decoded format. It is convenient
* to use Basestation format for further use, due to computational complexity of decoding raw bitwise
* ADS-B messages.
*
* 1 MSG
* 2 Transmission Type
* 3 System generated sessionID
* 4 System generated aircraftID
* 5 ICAO24 hex ident
* 6 System generated flightID
* 7 Date message detected
* 8 Time message detected
* 9 Date message logged
* 10 Time message logged
* 11 Callsign
* 12 Altitude
* 13 Ground Speed
* 14 Track
* 15 Lat
* 16 Lon
* 17 Vertical speed
* 18 Squawk
* 19 Alert
* 20 Emergency
* 21 SPI
* 22 IsOnGround
*
* Based on second field - Transmission Type, we can distinguish a few more transmission types,
* of which each sets different fields:
*
* Transmission Type:
* 1 = ID message ----------------------- (Callsign)
* 2 = Surface position message --------- (Altitude, GroundSpeed, Track, Lat, Lon)
* 3 = Airborne position message -------- (Altitude, Lat, Lon, Alert, Emergency, SPI)
* 4 = Airborne velocity message -------- (GroundSpeed, Rate, VerticalSpeed)
* 5 = Surveillance Altitude message ---- (Altitude, Alert, SPI)
* 6 = Surveillance ID (Squawk) message - (Altitude, Squawk, Alert, Emergency, SPI)
* 8 = Air-Call Reply / TCAS Acquisition Squitter (None)
*
*
* Dump1090 emulates Basestation message broadcast. It outputs only MSG (Transmission) messages,
* as it rebroadcasts decoded ADS-B messages and there is no need to emulate internal SBS messages.
* This function takes single transmission message and processes containing info for statistical purposes.
*
* [ Thanks to Mr Dave Reid for comprehensive information on this topic ]
*
* @param message - incoming message converted to std::string
* @return 1 or 3 based on type of processed message, zero for discarded message.
*/
int data::processMessage(std::string message)
{
// Split message into individual csv fields
std::vector<std::string> fields = split(message, ',');
tFStamp stamp;
// Switch based on message type
switch (std::stoi(fields[1]))
{
case 1:
// ID message (hex+callsign available)
if ((fields[4] != "") && (fields[10] != ""))
{
stamp.hex = fields[4];
stamp.callsign = fields[10];
stamp.timestamp = std::time(nullptr);
if (! isInFBuffer(stamp))
{
std::locale loc;
std::string company = stamp.callsign.substr(0,3);
if ((std::isalpha(company[0])) && (std::isalpha(company[1])) && (std::isalpha(company[2])) && (std::isdigit(stamp.callsign[3])))
{
if ( companyPlot.find(company) == companyPlot.end() )
{
companyPlot[company] = 1;
}
else
{
companyPlot[company]++;
}
}
flightBuffer.push_back(stamp);
}
}
return 1;
break;
case 3:
// Airborne position message (Altitude+lat/lon available)
if ((fields[14] != "") && (fields[15] != ""))
{
tCoords mPos;
mPos.lat = std::stod(fields[14]);
mPos.lon = std::stod(fields[15]);
int bearing = (int) round(getBearing(ref, mPos));
double distance = getDistance(ref, mPos);
tCoords maxPos = polarRange[bearing];
double maxDistance = getDistance(ref, maxPos);
if (distance > maxDistance)
{
polarRange[bearing] = mPos;
}
char buf[32];
sprintf(buf, "%d%d", (int) round(mPos.lat * 100), (int) round(mPos.lon * 100));
std::string sIntPos = buf;
int intPos = std::stoi(sIntPos);
if (heatMap.find(intPos) == heatMap.end())
{
heatMap[intPos] = 1;
}
else
{
heatMap[intPos]++;
}
}
if (fields[11] != "")
{
int fl = std::stoi(fields[11]) / 100; // Convert altitude to FL
if (fl <= 500)
{
altPlot[fl]++;
}
}
return 3;
break;
}
return 0;
}