void SystemView::PutBody(const SystemBody *b, const vector3d &offset, const matrix4x4f &trans)
{
if (b->type == SystemBody::TYPE_STARPORT_SURFACE) return;
if (b->type != SystemBody::TYPE_GRAVPOINT) {
if (!m_bodyIcon) {
m_bodyIcon.reset(new Graphics::Drawables::Disk(m_renderer, Color::WHITE, 1.0f));
}
const double radius = b->GetRadius() * m_zoom;
matrix4x4f invRot = trans;
invRot.ClearToRotOnly();
invRot = invRot.InverseOf();
matrix4x4f bodyTrans = trans;
bodyTrans.Translate(vector3f(offset));
bodyTrans.Scale(radius);
m_renderer->SetTransform(bodyTrans * invRot);
m_bodyIcon->Draw(m_renderer);
m_renderer->SetTransform(trans);
PutLabel(b, offset);
}
Frame *frame = Pi::player->GetFrame();
if(frame->IsRotFrame()) frame = frame->GetNonRotFrame();
if(frame->GetSystemBody() == b && frame->GetSystemBody()->GetMass() > 0) {
const double t0 = Pi::game->GetTime();
Orbit playerOrbit = Pi::player->ComputeOrbit();
PutOrbit(&playerOrbit, offset, Color::RED, b->GetRadius());
PutSelectionBox(offset + playerOrbit.OrbitalPosAtTime(m_time - t0)* double(m_zoom), Color::RED);
}
if (b->children.size()) {
for(std::vector<SystemBody*>::const_iterator kid = b->children.begin(); kid != b->children.end(); ++kid) {
if (is_zero_general((*kid)->orbit.GetSemiMajorAxis())) continue;
if ((*kid)->orbit.GetSemiMajorAxis() * m_zoom < ROUGH_SIZE_OF_TURD) {
PutOrbit(&((*kid)->orbit), offset, Color(0, 255, 0, 255));
}
// not using current time yet
vector3d pos = (*kid)->orbit.OrbitalPosAtTime(m_time);
pos *= double(m_zoom);
PutBody(*kid, offset + pos, trans);
}
}
}
void TransferPlanner::AddStartTime(double timeStep) {
if(std::fabs(m_startTime) < 1.)
m_startTime = Pi::game->GetTime();
m_startTime += m_factor * timeStep;
double deltaT = m_startTime - Pi::game->GetTime();
if(deltaT > 0.)
{
Frame *frame = Pi::player->GetFrame()->GetNonRotFrame();
Orbit playerOrbit = Orbit::FromBodyState(Pi::player->GetPositionRelTo(frame), Pi::player->GetVelocityRelTo(frame), frame->GetSystemBody()->GetMass());
m_position = playerOrbit.OrbitalPosAtTime(deltaT);
m_velocity = playerOrbit.OrbitalVelocityAtTime(frame->GetSystemBody()->GetMass(), deltaT);
}
else
ResetStartTime();
}
void AmbientSounds::Update()
{
const float v_env = (Pi::worldView->GetCameraController()->IsExternal() ? 1.0f : 0.5f) * Sound::GetSfxVolume();
if (Pi::player->GetFlightState() == Ship::DOCKED) {
if (s_starNoise.IsPlaying()) {
const float target[2] = {0.0f,0.0f};
const float dv_dt[2] = {1.0f,1.0f};
s_starNoise.VolumeAnimate(target, dv_dt);
s_starNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
for(int i=0; i<eMaxNumAtmosphereSounds; i++) {
if (s_atmosphereNoises[i].IsPlaying()) {
const float target[2] = {0.0f,0.0f};
const float dv_dt[2] = {1.0f,1.0f};
s_atmosphereNoises[i].VolumeAnimate(target, dv_dt);
s_atmosphereNoises[i].SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
}
if (s_planetSurfaceNoise.IsPlaying()) {
const float target[2] = {0.0f,0.0f};
const float dv_dt[2] = {1.0f,1.0f};
s_planetSurfaceNoise.VolumeAnimate(target, dv_dt);
s_planetSurfaceNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
if (!s_stationNoise.IsPlaying()) {
// just use a random station noise until we have a
// concept of 'station size'
s_stationNoise.Play(s_stationNoiseSounds[Pi::player->GetDockedWith()->GetSystemBody()->GetSeed() % NUM_STATION_SOUNDS],
0.3f*v_env, 0.3f*v_env, Sound::OP_REPEAT);
}
} else if (Pi::player->GetFlightState() == Ship::LANDED) {
/* Planet surface noise on rough-landing */
if (s_starNoise.IsPlaying()) {
const float target[2] = {0.0f,0.0f};
const float dv_dt[2] = {1.0f,1.0f};
s_starNoise.VolumeAnimate(target, dv_dt);
s_starNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
for(int i=0; i<eMaxNumAtmosphereSounds; i++) {
if (s_atmosphereNoises[i].IsPlaying()) {
const float target[2] = {0.0f,0.0f};
const float dv_dt[2] = {1.0f,1.0f};
s_atmosphereNoises[i].VolumeAnimate(target, dv_dt);
s_atmosphereNoises[i].SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
}
if (s_stationNoise.IsPlaying()) {
const float target[2] = {0.0f,0.0f};
const float dv_dt[2] = {1.0f,1.0f};
s_stationNoise.VolumeAnimate(target, dv_dt);
s_stationNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
// lets try something random for the time being
if (!s_planetSurfaceNoise.IsPlaying()) {
const SystemBody *sbody = Pi::player->GetFrame()->GetSystemBody();
assert(sbody);
const char *sample = 0;
if (sbody->GetLifeAsFixed() > fixed(1,5)) {
sample = s_surfaceLifeSounds[sbody->GetSeed() % NUM_SURFACE_LIFE_SOUNDS];
}
else if (sbody->GetVolatileGasAsFixed() > fixed(1,2)) {
sample = s_surfaceSounds[sbody->GetSeed() % NUM_SURFACE_DEAD_SOUNDS];
}
else if (sbody->GetVolatileGasAsFixed() > fixed(1,10)) {
sample = "Wind";
}
if (sample) {
s_planetSurfaceNoise.Play(sample, 0.3f*v_env, 0.3f*v_env, Sound::OP_REPEAT);
}
}
} else if (s_planetSurfaceNoise.IsPlaying()) {
// s_planetSurfaceNoise.IsPlaying() - if we are out of the atmosphere then stop playing
if (Pi::player->GetFrame()->IsRotFrame()) {
const Body *astro = Pi::player->GetFrame()->GetBody();
if (astro->IsType(Object::PLANET)) {
const double dist = Pi::player->GetPosition().Length();
double pressure, density;
static_cast<const Planet*>(astro)->GetAtmosphericState(dist, &pressure, &density);
if (pressure < 0.001) {
// Stop playing surface noise once out of the atmosphere
s_planetSurfaceNoise.Stop();
}
}
}
} else {
if (s_stationNoise.IsPlaying()) {
const float target[2] = {0.0f,0.0f};
const float dv_dt[2] = {1.0f,1.0f};
s_stationNoise.VolumeAnimate(target, dv_dt);
s_stationNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
if (Pi::game->IsNormalSpace()) {
StarSystem *s = Pi::game->GetSpace()->GetStarSystem().Get();
if (astroNoiseSeed != s->GetSeed()) {
// change sound!
astroNoiseSeed = s->GetSeed();
const float target[2] = {0.0f,0.0f};
const float dv_dt[2] = {0.1f,0.1f};
s_starNoise.VolumeAnimate(target, dv_dt);
s_starNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
// XXX the way Sound::Event works isn't totally obvious.
// to destroy the object doesn't stop the sound. it is
// really just a sound event reference
s_starNoise = Sound::Event();
}
}
// when all the sounds are in we can use the body we are in frame of reference to
if (!s_starNoise.IsPlaying()) {
Frame *f = Pi::player->GetFrame();
if (!f) return; // When player has no frame (game abort) then get outta here!!
const SystemBody *sbody = f->GetSystemBody();
const char *sample = 0;
for (; sbody && !sample; sbody = f->GetSystemBody()) {
switch (sbody->GetType()) {
case SystemBody::TYPE_BROWN_DWARF: sample = "Brown_Dwarf_Substellar_Object"; break;
case SystemBody::TYPE_STAR_M: sample = "M_Red_Star"; break;
case SystemBody::TYPE_STAR_K: sample = "K_Star"; break;
case SystemBody::TYPE_WHITE_DWARF: sample = "White_Dwarf_Star"; break;
case SystemBody::TYPE_STAR_G: sample = "G_Star"; break;
case SystemBody::TYPE_STAR_F: sample = "F_Star"; break;
case SystemBody::TYPE_STAR_A: sample = "A_Star"; break;
case SystemBody::TYPE_STAR_B: sample = "B_Hot_Blue_STAR"; break;
case SystemBody::TYPE_STAR_O: sample = "Blue_Super_Giant"; break;
case SystemBody::TYPE_PLANET_GAS_GIANT: {
if (sbody->GetMassAsFixed() > fixed(400,1)) {
sample = "Very_Large_Gas_Giant";
} else if (sbody->GetMassAsFixed() > fixed(80,1)) {
sample = "Large_Gas_Giant";
} else if (sbody->GetMassAsFixed() > fixed(20,1)) {
sample = "Medium_Gas_Giant";
} else {
sample = "Small_Gas_Giant";
}
}
break;
default: sample = 0; break;
}
if (sample) {
s_starNoise.Play(sample, 0.0f, 0.0f, Sound::OP_REPEAT);
s_starNoise.VolumeAnimate(.3f*v_env, .3f*v_env, .05f, .05f);
} else {
// go up orbital hierarchy tree to see if we can find a sound
f = f->GetParent();
if (f == 0) break;
}
}
}
const Body *astro = Pi::player->GetFrame()->GetBody();
if (astro && Pi::player->GetFrame()->IsRotFrame() && (astro->IsType(Object::PLANET))) {
double dist = Pi::player->GetPosition().Length();
double pressure, density;
static_cast<const Planet*>(astro)->GetAtmosphericState(dist, &pressure, &density);
// maximum volume at around 2km/sec at earth density, pressure
const float pressureVolume = float(density * Pi::player->GetVelocity().Length() * 0.0005);
//volume = Clamp(volume, 0.0f, 1.0f) * v_env;
float volumes[eMaxNumAtmosphereSounds];
for(int i=0; i<eMaxNumAtmosphereSounds; i++) {
const float beg = s_rangeTable[i][0];
const float inv = s_rangeTable[i][1];
volumes[i] = Clamp((pressureVolume - beg) * inv, 0.0f, 1.0f) * v_env;
}
for(int i=0; i<eMaxNumAtmosphereSounds; i++) {
const float volume = volumes[i];
if (s_atmosphereNoises[i].IsPlaying()) {
const float target[2] = {volume, volume};
const float dv_dt[2] = {1.0f,1.0f};
s_atmosphereNoises[i].VolumeAnimate(target, dv_dt);
} else {
s_atmosphereNoises[i].Play(s_airflowTable[i], volume, volume, Sound::OP_REPEAT);
}
}
} else {
const float target[2] = {0.0f,0.0f};
const float dv_dt[2] = {1.0f,1.0f};
for(int i=0; i<eMaxNumAtmosphereSounds; i++) {
s_atmosphereNoises[i].VolumeAnimate(target, dv_dt);
s_atmosphereNoises[i].SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
}
}
}
/*
* Function: SpawnShipLandedNear
*
* Create a ship and place it on the surface near the given <Body>.
*
* > ship = Space.SpawnShipLandedNear(type, body, min, max)
*
* Parameters:
*
* type - the name of the ship
*
* body - the <Body> near which the ship should be spawned. It must be on the ground or close to it,
* i.e. it must be in the rotating frame of the planetary body.
*
* min - minimum distance from the surface point below the body to place the ship, in Km
*
* max - maximum distance to place the ship
*
* Return:
*
* ship - a <Ship> object for the new ship
*
* Example:
*
* > -- spawn a ship 10km from the player
* > local ship = Ship.SpawnShipLandedNear("viper_police", Game.player, 10, 10)
*
* Availability:
*
* July 2013
*
* Status:
*
* experimental
*/
static int l_space_spawn_ship_landed_near(lua_State *l)
{
if (!Pi::game)
luaL_error(l, "Game is not started");
LUA_DEBUG_START(l);
const char *type = luaL_checkstring(l, 1);
if (! ShipType::Get(type))
luaL_error(l, "Unknown ship type '%s'", type);
Body *nearbody = LuaObject<Body>::CheckFromLua(2);
const float min_dist = luaL_checknumber(l, 3);
const float max_dist = luaL_checknumber(l, 4);
if (min_dist > max_dist)
luaL_error(l, "min_dist must not be larger than max_dist");
Ship *ship = new Ship(type);
assert(ship);
// XXX protect against spawning inside the body
Frame * newframe = nearbody->GetFrame()->GetRotFrame();
if (!newframe->IsRotFrame())
luaL_error(l, "Body must be in rotating frame");
SystemBody *sbody = newframe->GetSystemBody();
if (sbody->GetSuperType() != SystemBody::SUPERTYPE_ROCKY_PLANET)
luaL_error(l, "Body is not on a rocky planet");
if (max_dist > sbody->GetRadius())
luaL_error(l, "max_dist too large for planet radius");
// We assume that max_dist is much smaller than the planet radius, i.e. that our area is reasonably flat
// So, we
const vector3d up = nearbody->GetPosition().Normalized();
vector3d x;
vector3d y;
// Calculate a orthonormal basis for a horizontal plane. For numerical reasons we do that determining the smallest
// coordinate and take the cross product with (1,0,0), (0,1,0) or (0,0,1) respectively to calculate the first vector.
// The second vector is just the cross product of the up-vector and out first vector.
if (up.x <= up.y && up.x <= up.z) {
x = vector3d(0.0, up.z, -up.y).Normalized();
y = vector3d(-up.y*up.y - up.z*up.z, up.x*up.y, up.x*up.z).Normalized();
} else if (up.y <= up.x && up.y <= up.z) {
x = vector3d(-up.z, 0.0, up.x).Normalized();
y = vector3d(up.x*up.y, -up.x*up.x - up.z*up.z, up.y*up.z).Normalized();
} else {
x = vector3d(up.y, -up.x, 0.0).Normalized();
y = vector3d(up.x*up.z, up.y*up.z, -up.x*up.x - up.y*up.y).Normalized();
}
Planet *planet = static_cast<Planet*>(newframe->GetBody());
const double radius = planet->GetSystemBody()->GetRadius();
const vector3d planar = MathUtil::RandomPointInCircle(min_dist * 1000.0, max_dist * 1000.0);
vector3d pos = (radius * up + x * planar.x + y * planar.y).Normalized();
float latitude = atan2(pos.y, sqrt(pos.x*pos.x + pos.z * pos.z));
float longitude = atan2(pos.x, pos.z);
Pi::game->GetSpace()->AddBody(ship);
ship->SetLandedOn(planet, latitude, longitude);
LuaObject<Ship>::PushToLua(ship);
LUA_DEBUG_END(l, 1);
return 1;
}
void SystemView::PutBody(const SystemBody *b, const vector3d &offset, const matrix4x4f &trans)
{
if (b->GetType() == SystemBody::TYPE_STARPORT_SURFACE)
return;
if (b->GetType() != SystemBody::TYPE_GRAVPOINT)
{
if (!m_bodyIcon)
{
Graphics::RenderStateDesc rsd;
auto solidState = m_renderer->CreateRenderState(rsd);
m_bodyIcon.reset(new Graphics::Drawables::Disk(m_renderer, solidState, Color::WHITE, 1.0f));
}
const double radius = b->GetRadius() * m_zoom;
matrix4x4f invRot = trans;
invRot.ClearToRotOnly();
invRot = invRot.Inverse();
matrix4x4f bodyTrans = trans;
bodyTrans.Translate(vector3f(offset));
bodyTrans.Scale(radius);
m_renderer->SetTransform(bodyTrans * invRot);
m_bodyIcon->Draw(m_renderer);
m_renderer->SetTransform(trans);
PutLabel(b, offset);
}
Frame *frame = Pi::player->GetFrame();
if(frame->IsRotFrame())
frame = frame->GetNonRotFrame();
// display the players orbit(?)
if(frame->GetSystemBody() == b && frame->GetSystemBody()->GetMass() > 0)
{
const double t0 = m_game->GetTime();
Orbit playerOrbit = Pi::player->ComputeOrbit();
PutOrbit(&playerOrbit, offset, Color::RED, b->GetRadius());
const double plannerStartTime = m_planner->GetStartTime();
if(!m_planner->GetPosition().ExactlyEqual(vector3d(0,0,0)))
{
Orbit plannedOrbit = Orbit::FromBodyState(m_planner->GetPosition(),
m_planner->GetVel(),
frame->GetSystemBody()->GetMass());
PutOrbit(&plannedOrbit, offset, Color::STEELBLUE, b->GetRadius());
if(std::fabs(m_time - t0) > 1. && (m_time - plannerStartTime) > 0.)
PutSelectionBox(offset + plannedOrbit.OrbitalPosAtTime(m_time - plannerStartTime) * static_cast<double>(m_zoom), Color::STEELBLUE);
else
PutSelectionBox(offset + m_planner->GetPosition() * static_cast<double>(m_zoom), Color::STEELBLUE);
}
PutSelectionBox(offset + playerOrbit.OrbitalPosAtTime(m_time - t0)* double(m_zoom), Color::RED);
}
// display all child bodies and their orbits
if (b->HasChildren())
{
for(const SystemBody* kid : b->GetChildren())
{
if (is_zero_general(kid->GetOrbit().GetSemiMajorAxis()))
continue;
const double axisZoom = kid->GetOrbit().GetSemiMajorAxis() * m_zoom;
if (axisZoom < DEFAULT_VIEW_DISTANCE)
{
const SystemBody::BodySuperType bst = kid->GetSuperType();
const bool showLagrange = (bst == SystemBody::SUPERTYPE_ROCKY_PLANET || bst == SystemBody::SUPERTYPE_GAS_GIANT);
PutOrbit(&(kid->GetOrbit()), offset, Color::GREEN, 0.0, showLagrange);
}
// not using current time yet
const vector3d pos = kid->GetOrbit().OrbitalPosAtTime(m_time) * double(m_zoom);
PutBody(kid, offset + pos, trans);
}
}
}
void AmbientSounds::Update()
{
float v_env = (Pi::worldView->GetActiveCamera()->IsExternal() ? 1.0f : 0.5f) * Sound::GetSfxVolume();
if (Pi::player->GetFlightState() == Ship::DOCKED) {
if (starNoise.IsPlaying()) {
float target[2] = {0.0f,0.0f};
float dv_dt[2] = {1.0f,1.0f};
starNoise.VolumeAnimate(target, dv_dt);
starNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
if (atmosphereNoise.IsPlaying()) {
float target[2] = {0.0f,0.0f};
float dv_dt[2] = {1.0f,1.0f};
atmosphereNoise.VolumeAnimate(target, dv_dt);
atmosphereNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
if (planetSurfaceNoise.IsPlaying()) {
float target[2] = {0.0f,0.0f};
float dv_dt[2] = {1.0f,1.0f};
planetSurfaceNoise.VolumeAnimate(target, dv_dt);
planetSurfaceNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
if (!stationNoise.IsPlaying()) {
const char *sounds[] = {
"Large_Station_ambient",
"Medium_Station_ambient",
"Small_Station_ambient"
};
// just use a random station noise until we have a
// concept of 'station size'
stationNoise.Play(sounds[Pi::player->GetDockedWith()->GetSystemBody()->seed % 3],
0.3f*v_env, 0.3f*v_env, Sound::OP_REPEAT);
}
} else if (Pi::player->GetFlightState() == Ship::LANDED) {
/* Planet surface noise on rough-landing */
if (starNoise.IsPlaying()) {
float target[2] = {0.0f,0.0f};
float dv_dt[2] = {1.0f,1.0f};
starNoise.VolumeAnimate(target, dv_dt);
starNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
if (atmosphereNoise.IsPlaying()) {
float target[2] = {0.0f,0.0f};
float dv_dt[2] = {1.0f,1.0f};
atmosphereNoise.VolumeAnimate(target, dv_dt);
atmosphereNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
if (stationNoise.IsPlaying()) {
float target[2] = {0.0f,0.0f};
float dv_dt[2] = {1.0f,1.0f};
stationNoise.VolumeAnimate(target, dv_dt);
stationNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
// lets try something random for the time being
if (!planetSurfaceNoise.IsPlaying()) {
SystemBody *sbody = Pi::player->GetFrame()->GetSystemBody();
assert(sbody);
const char *sample = NULL;
if (sbody->m_life > fixed(1,5)) {
const char *s[] = {
"Wind", "Thunder_1", "Thunder_2", "Thunder_3",
"Thunder_4", "Storm", "Rain_Light", "River",
"RainForestIntroducedNight", "RainForestIntroduced",
"NormalForestIntroduced"
};
sample = s[sbody->seed % 11];
}
else if (sbody->m_volatileGas > fixed(1,2)) {
const char *s[] = {
"Wind", "Thunder_1", "Thunder_2", "Thunder_3",
"Thunder_4", "Storm"
};
sample = s[sbody->seed % 6];
}
else if (sbody->m_volatileGas > fixed(1,10)) {
sample = "Wind";
}
if (sample) {
planetSurfaceNoise.Play(sample, 0.3f*v_env, 0.3f*v_env, Sound::OP_REPEAT);
}
}
} else if (planetSurfaceNoise.IsPlaying()) {
// planetSurfaceNoise.IsPlaying() - if we are out of the atmosphere then stop playing
if (Pi::player->GetFrame()->IsRotFrame()) {
Body *astro = Pi::player->GetFrame()->GetBody();
if (astro->IsType(Object::PLANET)) {
double dist = Pi::player->GetPosition().Length();
double pressure, density;
static_cast<Planet*>(astro)->GetAtmosphericState(dist, &pressure, &density);
if (pressure < 0.001) {
// Stop playing surface noise once out of the atmosphere
planetSurfaceNoise.Stop();
}
}
}
} else {
if (stationNoise.IsPlaying()) {
float target[2] = {0.0f,0.0f};
float dv_dt[2] = {1.0f,1.0f};
stationNoise.VolumeAnimate(target, dv_dt);
stationNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
{
if (Pi::game->IsNormalSpace()) {
StarSystem *s = Pi::game->GetSpace()->GetStarSystem().Get();
if (astroNoiseSeed != s->GetSeed()) {
// change sound!
astroNoiseSeed = s->GetSeed();
float target[2] = {0.0f,0.0f};
float dv_dt[2] = {0.1f,0.1f};
starNoise.VolumeAnimate(target, dv_dt);
starNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
// XXX the way Sound::Event works isn't totally obvious.
// to destroy the object doesn't stop the sound. it is
// really just a sound event reference
starNoise = Sound::Event();
}
}
}
// when all the sounds are in we can use the body we are in frame of reference to
if (!starNoise.IsPlaying()) {
Frame *f = Pi::player->GetFrame();
if (!f) return; // When player has no frame (game abort) then get outta here!!
const SystemBody *sbody = f->GetSystemBody();
const char *sample = 0;
for (; sbody && !sample; sbody = f->GetSystemBody()) {
switch (sbody->type) {
case SystemBody::TYPE_BROWN_DWARF: sample = "Brown_Dwarf_Substellar_Object"; break;
case SystemBody::TYPE_STAR_M: sample = "M_Red_Star"; break;
case SystemBody::TYPE_STAR_K: sample = "K_Star"; break;
case SystemBody::TYPE_WHITE_DWARF: sample = "White_Dwarf_Star"; break;
case SystemBody::TYPE_STAR_G: sample = "G_Star"; break;
case SystemBody::TYPE_STAR_F: sample = "F_Star"; break;
case SystemBody::TYPE_STAR_A: sample = "A_Star"; break;
case SystemBody::TYPE_STAR_B: sample = "B_Hot_Blue_STAR"; break;
case SystemBody::TYPE_STAR_O: sample = "Blue_Super_Giant"; break;
case SystemBody::TYPE_PLANET_GAS_GIANT: {
if (sbody->mass > fixed(400,1)) {
sample = "Very_Large_Gas_Giant";
} else if (sbody->mass > fixed(80,1)) {
sample = "Large_Gas_Giant";
} else if (sbody->mass > fixed(20,1)) {
sample = "Medium_Gas_Giant";
} else {
sample = "Small_Gas_Giant";
}
}
break;
default: sample = 0; break;
}
if (sample) {
starNoise.Play(sample, 0.0f, 0.0f, Sound::OP_REPEAT);
starNoise.VolumeAnimate(.3f*v_env, .3f*v_env, .05f, .05f);
} else {
// go up orbital hierarchy tree to see if we can find a sound
f = f->GetParent();
if (f == 0) break;
}
}
}
Body *astro;
if ((astro = Pi::player->GetFrame()->GetBody())
&& Pi::player->GetFrame()->IsRotFrame() && (astro->IsType(Object::PLANET))) {
double dist = Pi::player->GetPosition().Length();
double pressure, density;
static_cast<Planet*>(astro)->GetAtmosphericState(dist, &pressure, &density);
// maximum volume at around 2km/sec at earth density, pressure
float volume = float(density * Pi::player->GetVelocity().Length() * 0.0005);
volume = Clamp(volume, 0.0f, 1.0f) * v_env;
if (atmosphereNoise.IsPlaying()) {
float target[2] = {volume, volume};
float dv_dt[2] = {1.0f,1.0f};
atmosphereNoise.VolumeAnimate(target, dv_dt);
} else {
atmosphereNoise.Play("Atmosphere_Flying", volume, volume, Sound::OP_REPEAT);
}
} else {
float target[2] = {0.0f,0.0f};
float dv_dt[2] = {1.0f,1.0f};
atmosphereNoise.VolumeAnimate(target, dv_dt);
atmosphereNoise.SetOp(Sound::OP_REPEAT | Sound::OP_STOP_AT_TARGET_VOLUME);
}
}
}
