/*
* private functions
*
*/
void mode_bounce::configure_pointer(mode_bounce_pointer *pPointer, size_t pSize)
{
pPointer->size = pSize;
pPointer->position = -1.0f;
pPointer->increasing = -1.0f;
pPointer->rotationPtr = randomf(0.0f, 359.0f);
pPointer->speed = randomf(0.3f, 3.0f);
pPointer->colorSpeed = randomf(20.0f, 50.0f);
pPointer->acceleration = 0.0f;
pPointer->colorAcceleration = 0.0f;
pPointer->color = hue_float_to_rgb(pPointer->rotationPtr);
pPointer->nextColor = hue_float_to_rgb(pPointer->rotationPtr);
}
/* ----------------------------------------------------------------------------
* Emits the particles, regardless of the timer.
* manager: The particle manager to place these particles on.
*/
void particle_generator::emit(particle_manager &manager) {
size_t final_nr =
max(
0,
(int) number +
randomi((int) (0 - number_deviation), (int) number_deviation)
);
for(size_t p = 0; p < final_nr; ++p) {
particle new_p = base_particle;
new_p.duration =
max(
0.0f,
new_p.duration +
randomf(-duration_deviation, duration_deviation)
);
new_p.time = new_p.duration;
new_p.friction +=
randomf(-friction_deviation, friction_deviation);
new_p.gravity +=
randomf(-gravity_deviation, gravity_deviation);
new_p.x +=
randomf(-x_deviation, x_deviation);
new_p.y +=
randomf(-y_deviation, y_deviation);
new_p.size =
max(
0.0f,
new_p.size +
randomf(-size_deviation, size_deviation)
);
//For speed, let's decide if we should use
//(speed_x and speed_y) or (speed and angle).
//We'll use whichever one is not all zeros.
if(angle != 0 || speed != 0) {
angle_to_coordinates(
angle + randomf(-angle_deviation, angle_deviation),
speed + randomf(-speed_deviation, speed_deviation),
&new_p.speed_x, &new_p.speed_y
);
} else {
new_p.speed_x +=
randomf(-speed_x_deviation, speed_x_deviation);
new_p.speed_y +=
randomf(-speed_y_deviation, speed_y_deviation);
}
manager.add(new_p);
}
}
BALL()
{
r = random(20) + 20;
x = random(LEN - r * 2) + r;
y = random(WID - r * 2) + r;
vx = (6 * randomf() + 0.1f) * (random(2) * 2.0 - 1);
vy = (6 * randomf() + 0.1f) * (random(2) * 2.0 - 1);
color = HSVtoRGB(randomf() * 360.0f, 1.0f, 0.8f);
float a = randomf();//随机下每个对象的摩擦系数
fa = 1 / (100.0);
goon = 1;
}
/* ----------------------------------------------------------------------------
* Gives an Onion some Pikmin, and makes the Onion spew seeds out,
** depending on how many Pikmin there are in the field (don't spew if 100).
*/
void give_pikmin_to_onion(onion* o, const unsigned amount) {
unsigned total_after = pikmin_list.size() + amount;
unsigned pikmin_to_spit = amount;
unsigned pikmin_to_keep = 0; // Pikmin to keep inside the Onion, without spitting.
if(total_after > max_pikmin_in_field) {
pikmin_to_keep = total_after - max_pikmin_in_field;
pikmin_to_spit = amount - pikmin_to_keep;
}
for(unsigned p = 0; p < pikmin_to_spit; p++) {
float angle = randomf(0, M_PI * 2);
float sx = cos(angle) * 60;
float sy = sin(angle) * 60;
pikmin* new_pikmin = new pikmin(o->x, o->y, o->oni_type->pik_type, 0, "");
new_pikmin->set_state(PIKMIN_STATE_BURIED);
new_pikmin->z = 320;
new_pikmin->speed_z = 200;
new_pikmin->speed_x = sx;
new_pikmin->speed_y = sy;
create_mob(new_pikmin);
}
for(unsigned p = 0; p < pikmin_to_keep; p++) {
pikmin_in_onions[o->oni_type->pik_type]++;
}
}
// 主函数
int main( int argc, char* argv[] ) {
int i, ms_x = -1024, ms_y = -1024, exitflag = 0;
int fps = 60;
double dtime;
int mode = preinit( argc, argv ); // 记录初始化模式
if ( mode < 0 ) return 0;
randomize(); // 初始化随机种子
initgraph( -1, -1 ); // 打开图形窗口，以全屏模式
showmouse( mode );
sc_width = getwidth();
sc_heigh = getheight();
// 初始化所有星星
for ( i = 0; i < g_max; i++ ) {
InitStar( i );
star[i].x = randomf();
}
// 绘制星空，按任意键或移动鼠标退出
setfont( 12, 6, "宋体" );
setrendermode( RENDER_MANUAL );
dtime = fclock();
while ( kbmsg() ) getkey();
for ( ; !exitflag && is_run() && kbmsg() == 0; delay_fps( fps ) ) { //每秒画120帧，kbhit(1)是获取键盘任意键的消息，详见pdf
// 如果有鼠标消息
while ( mousemsg() ) {
mouse_msg msg = getmouse();
if ( ms_x <= -1024 ) {
ms_x = msg.x;
ms_y = msg.y;
}
// 处理鼠标，移动超出范围就退出
if ( mode == 0 ) { // 仅全屏模式才处理鼠标
int x = msg.x, y = msg.y;
x -= ms_x;
y -= ms_y;
if ( x * x + y * y > 400 ) exitflag = 1;
}
}
// 显示星星
double dt = 1.0 / fps; //fclock() - dtime;
dtime += dt;
for ( int i = 0; i < g_max; i++ ) {
MoveStar( i, dt );
}
// 显示FPS
{
char str[60];
sprintf( str, "%8.2f FPS", getfps());
outtextxy( 0, 0, str ); //显示fps
}
}
closegraph(); // 关闭图形窗口
return 0;
}
// 初始化星星
void InitStar( int i ) {
double speed = 0.006;
star[i].x = 0;
star[i].y = random( sc_heigh );
star[i].step = randomf() * speed * 0.9 + speed * 0.1;
star[i].color = ( int )( star[i].step * 255 / speed + 0.5 ); // 速度越快，颜色越亮
if ( star[i].color > 255 ) {
star[i].color = 255;
}
star[i].color = RGB( star[i].color, star[i].color, star[i].color );
}
TapNoteScore GetTapNoteScore()
{
float fRand = randomf(0,1);
float fCumulativePercent = 0;
for( int i=0; i<=TNS_MARVELOUS; i++ )
{
fCumulativePercent += fPercent[i];
if( fRand <= fCumulativePercent+1e-4 ) /* rounding error */
return (TapNoteScore)i;
}
ASSERT(0); // the fCumulativePercents must sum to 1.0, so we should never get here!
return TNS_MARVELOUS;
}
void Inventory::Update( float fDelta )
{
if( m_pPlayerState->m_bAttackEndedThisUpdate )
m_soundItemEnding.Play(false);
// TODO: remove use of PlayerNumber
PlayerNumber pn = m_pPlayerState->m_PlayerNumber;
// check to see if they deserve a new item
if( STATSMAN->m_CurStageStats.m_player[pn].m_iCurCombo != m_iLastSeenCombo )
{
unsigned int iOldCombo = m_iLastSeenCombo;
m_iLastSeenCombo = STATSMAN->m_CurStageStats.m_player[pn].m_iCurCombo;
unsigned int iNewCombo = m_iLastSeenCombo;
#define CROSSED(i) (iOldCombo<i)&&(iNewCombo>=i)
#define BROKE_ABOVE(i) (iNewCombo<iOldCombo)&&(iOldCombo>=i)
for( unsigned i=0; i<g_Items.size(); i++ )
{
bool bEarnedThisItem = false;
if( PREFSMAN->m_bBreakComboToGetItem )
bEarnedThisItem = BROKE_ABOVE(g_Items[i].iCombo);
else
bEarnedThisItem = CROSSED(g_Items[i].iCombo);
if( bEarnedThisItem )
{
AwardItem( i );
break;
}
}
}
Song &song = *GAMESTATE->m_pCurSong;
// use items if this player is CPU-controlled
if( m_pPlayerState->m_PlayerController != PC_HUMAN &&
GAMESTATE->m_Position.m_fSongBeat < song.GetLastBeat() )
{
// every 1 seconds, try to use an item
int iLastSecond = (int)(RageTimer::GetTimeSinceStartFast() - fDelta);
int iThisSecond = (int)RageTimer::GetTimeSinceStartFast();
if( iLastSecond != iThisSecond )
{
for( int s=0; s<NUM_INVENTORY_SLOTS; s++ )
if( !m_pPlayerState->m_Inventory[s].IsBlank() )
if( randomf(0,1) < ITEM_USE_PROBABILITY )
UseItem( s );
}
}
}
void initpolys(struct polys* p, int npoly, int npoint) //初始化多边形队列组
{
int i,j;
p->n_poly = npoly;
j = 0;
p->p[j].n_point = npoint;
for (i=0; i<npoint; ++i)
{
p->p[j].p[i].x = random(width);
p->p[j].p[i].y = random(height);
p->p[j].p[i].dx = (randomf() * 2 + 1);
p->p[j].p[i].dy = (randomf() * 2 + 1);
p->p[j].p[i].color = 0;
p->p[j].p[i].prevcolor = 0;
p->p[j].p[i].nextcolor = hsv2rgb((float)random(360), 1.0f, 0.5f);
p->p[j].p[i].chtime = 1000;
p->p[j].p[i].nowtime = 0;
p->p[j].p[i].nextcolortime = 1000;
}
for (j=1; j<npoly; ++j)
{
p->p[j] = p->p[j-1];
}
}
/* ----------------------------------------------------------------------------
* Ticks some logic specific to Pikmin.
*/
void pikmin::tick_class_specifics() {
//Carrying object.
if(carrying_mob) {
if(!carrying_mob->carry_info) {
fsm.run_event(MOB_EVENT_FOCUSED_MOB_UNCARRIABLE);
}
}
//Is it dead?
if(health <= 0) {
dead = true;
}
if(dead) {
to_delete = true;
pikmin_fsm::notify_leader_release(this, NULL, NULL);
particle par(
PARTICLE_TYPE_PIKMIN_SPIRIT, pos, LARGE_FLOAT,
pik_type->radius * 2, 2.0f
);
par.bitmap = bmp_pikmin_spirit;
par.speed.x = randomf(-20, 20);
par.speed.y = randomf(-70, -30);
par.friction = 0.8;
par.gravity = -0.2;
par.color = pik_type->main_color;
particles.add(par);
sfx_pikmin_dying.play(0.03, false);
}
//Tick the timer for the "missed" attack animation.
missed_attack_timer.tick(delta_t);
}
void mode_bounce::pointer_tasks(mode_bounce_pointer *pPointer, float pStep)
{
pPointer->position = pPointer->position + pStep * pPointer->increasing * (pPointer->speed + pPointer->acceleration);
if(pPointer->position < 0.0f) pPointer->position = 0.0f;
if(pPointer->position > 1.0f) pPointer->position = 1.0f;
if(pPointer->position == 0.0f || pPointer->position == 1.0f)
{
pPointer->increasing = pPointer->increasing * -1.0f;
pPointer->color = pPointer->nextColor;
//pPointer->rotationPtr = pPointer->rotationPtr - (pPointer->colorSpeed + pPointer->colorAcceleration);
pPointer->rotationPtr = pPointer->rotationPtr+ randomf(40.0f,319.9f);
if(pPointer->rotationPtr > 359.0f) pPointer->rotationPtr = pPointer->rotationPtr - 359.0f;
pPointer->nextColor = hue_float_to_rgb(pPointer->rotationPtr);
}
if(pPointer->acceleration > 0.0) pPointer->acceleration = pPointer->acceleration - 1.0f;
if(pPointer->colorAcceleration > 0.0) pPointer->colorAcceleration = pPointer->colorAcceleration - 0.5f;
}
/* ----------------------------------------------------------------------------
* Spews out the converted seeds.
*/
void converter::spew() {
size_t total_to_spit = amount_in_buffer * con_type->pikmin_per_conversion;
for(size_t s = 0; s < total_to_spit; ++s) {
if(pikmin_list.size() == max_pikmin_in_field) break;
float horizontal_strength =
CONVERTER_SPEW_H_SPEED +
randomf(
-CONVERTER_SPEW_H_SPEED_DEVIATION,
CONVERTER_SPEW_H_SPEED_DEVIATION
);
spew_pikmin_seed(
pos, z + CONVERTER_NEW_SEED_Z_OFFSET, current_type,
next_spew_angle, horizontal_strength, CONVERTER_SPEW_V_SPEED
);
next_spew_angle += CONVERTER_SPEW_ANGLE_SHIFT;
next_spew_angle = normalize_angle(next_spew_angle);
}
amount_in_buffer = 0;
}
void Actor::BeginDraw() // set the world matrix and calculate actor properties
{
DISPLAY->PushMatrix(); // we're actually going to do some drawing in this function
//
// set temporary drawing properties based on Effects
//
if( m_Effect == no_effect )
{
m_pTempState = &m_current;
}
else
{
m_pTempState = &m_tempState;
m_tempState = m_current;
/* EffectPeriodSeconds is the total time of the effect (including delay).
* m_fEffectDelay is the amount of time to stick on 0%. Offset shifts the
* entire thing forwards. For example, if m_fEffectPeriodSeconds is 1,
* the effect can happen from .40 to .55 by setting offset to .40 and
* delay to .85. */
const float fTotalPeriod = m_fEffectPeriodSeconds + m_fEffectDelay;
CHECKPOINT_M( ssprintf("%f = %f + %f", fTotalPeriod, m_fEffectPeriodSeconds, m_fEffectDelay) );
const float fSecsIntoPeriod = fmodfp( m_fSecsIntoEffect+m_fEffectOffset, fTotalPeriod );
CHECKPOINT_M( ssprintf("%f = fmodfp(%f + %f, %f)", fSecsIntoPeriod, m_fSecsIntoEffect, m_fEffectOffset, fTotalPeriod) );
float fPercentThroughEffect = SCALE( fSecsIntoPeriod, 0, m_fEffectPeriodSeconds, 0, 1 );
CHECKPOINT_M( ssprintf("%f = SCALE(%f, 0, %f, 0, 1)", fPercentThroughEffect, fSecsIntoPeriod, m_fEffectPeriodSeconds) );
fPercentThroughEffect = clamp( fPercentThroughEffect, 0, 1 );
ASSERT_M( fPercentThroughEffect >= 0 && fPercentThroughEffect <= 1,
ssprintf("%f", fPercentThroughEffect) );
bool bBlinkOn = fPercentThroughEffect > 0.5f;
float fPercentBetweenColors = sinf( (fPercentThroughEffect + 0.25f) * 2 * PI ) / 2 + 0.5f;
ASSERT_M( fPercentBetweenColors >= 0 && fPercentBetweenColors <= 1,
ssprintf("%f, %f", fPercentBetweenColors, fPercentThroughEffect) );
float fOriginalAlpha = m_tempState.diffuse[0].a;
int i;
switch( m_Effect )
{
case diffuse_blink:
/* XXX: Should diffuse_blink and diffuse_shift multiply the tempState color?
* (That would have the same effect with 1,1,1,1, and allow tweening the diffuse
* while blinking and shifting.) */
for(i=0; i<4; i++)
m_tempState.diffuse[i] = bBlinkOn ? m_effectColor1 : m_effectColor2;
break;
case diffuse_shift:
for(i=0; i<4; i++)
m_tempState.diffuse[i] = m_effectColor1*fPercentBetweenColors + m_effectColor2*(1.0f-fPercentBetweenColors);
break;
case glow_blink:
m_tempState.glow = bBlinkOn ? m_effectColor1 : m_effectColor2;
m_tempState.glow.a *= fOriginalAlpha; // don't glow if the Actor is transparent!
break;
case glow_shift:
m_tempState.glow = m_effectColor1*fPercentBetweenColors + m_effectColor2*(1.0f-fPercentBetweenColors);
m_tempState.glow.a *= fOriginalAlpha; // don't glow if the Actor is transparent!
break;
case rainbow:
m_tempState.diffuse[0] = RageColor(
cosf( fPercentBetweenColors*2*PI ) * 0.5f + 0.5f,
cosf( fPercentBetweenColors*2*PI + PI * 2.0f / 3.0f ) * 0.5f + 0.5f,
cosf( fPercentBetweenColors*2*PI + PI * 4.0f / 3.0f) * 0.5f + 0.5f,
fOriginalAlpha );
for( i=1; i<4; i++ )
m_tempState.diffuse[i] = m_tempState.diffuse[0];
break;
case wag:
m_tempState.rotation += m_vEffectMagnitude * sinf( fPercentThroughEffect * 2.0f * PI );
break;
case spin:
// nothing needs to be here
break;
case vibrate:
m_tempState.pos.x += m_vEffectMagnitude.x * randomf(-1.0f, 1.0f) * GetZoom();
m_tempState.pos.y += m_vEffectMagnitude.y * randomf(-1.0f, 1.0f) * GetZoom();
m_tempState.pos.z += m_vEffectMagnitude.z * randomf(-1.0f, 1.0f) * GetZoom();
break;
case bounce:
{
float fPercentOffset = sinf( fPercentThroughEffect*PI );
m_tempState.pos += m_vEffectMagnitude * fPercentOffset;
m_tempState.pos.x = roundf( m_tempState.pos.x );
m_tempState.pos.y = roundf( m_tempState.pos.y );
m_tempState.pos.z = roundf( m_tempState.pos.z );
}
break;
case bob:
{
float fPercentOffset = sinf( fPercentThroughEffect*PI*2 );
m_tempState.pos += m_vEffectMagnitude * fPercentOffset;
m_tempState.pos.x = roundf( m_tempState.pos.x );
m_tempState.pos.y = roundf( m_tempState.pos.y );
m_tempState.pos.z = roundf( m_tempState.pos.z );
}
break;
case pulse:
{
float fMinZoom = m_vEffectMagnitude[0];
float fMaxZoom = m_vEffectMagnitude[1];
float fPercentOffset = sinf( fPercentThroughEffect*PI );
float fZoom = SCALE( fPercentOffset, 0.f, 1.f, fMinZoom, fMaxZoom );
m_tempState.scale *= fZoom;
}
break;
default:
ASSERT(0); // invalid Effect
}
}
DISPLAY->Translate(
m_pTempState->pos.x,
m_pTempState->pos.y,
m_pTempState->pos.z );
DISPLAY->Scale(
m_pTempState->scale.x * m_baseScale.x,
m_pTempState->scale.y * m_baseScale.y,
m_pTempState->scale.z * m_baseScale.z );
/* The only time rotation and quat should normally be used simultaneously
* is for m_baseRotation. */
if( m_pTempState->rotation.x + m_baseRotation.x != 0 )
DISPLAY->RotateX( m_pTempState->rotation.x + m_baseRotation.x );
if( m_pTempState->rotation.y + m_baseRotation.y != 0 )
DISPLAY->RotateY( m_pTempState->rotation.y + m_baseRotation.y );
if( m_pTempState->rotation.z + m_baseRotation.z != 0 )
DISPLAY->RotateZ( m_pTempState->rotation.z + m_baseRotation.z );
if( m_pTempState->quat.x != 0 || m_pTempState->quat.y != 0 || m_pTempState->quat.z != 0 || m_pTempState->quat.w != 1 )
{
RageMatrix mat;
RageMatrixFromQuat( &mat, m_pTempState->quat );
DISPLAY->MultMatrix(mat);
}
}
void ScreenJukebox::SetSong()
{
ThemeMetric<bool> ALLOW_ADVANCED_MODIFIERS(m_sName,"AllowAdvancedModifiers");
vector<Song*> vSongs;
/* Check to see if there is a theme course. If there is a course that has
* the exact same name as the theme, then we pick a song from this course. */
Course *pCourse = SONGMAN->GetCourseFromName( THEME->GetCurThemeName() );
if( pCourse != NULL )
for ( unsigned i = 0; i < pCourse->m_vEntries.size(); i++ )
if( pCourse->m_vEntries[i].IsFixedSong() )
vSongs.push_back( pCourse->m_vEntries[i].songID.ToSong() );
if ( vSongs.size() == 0 )
vSongs = SONGMAN->GetSongs( GAMESTATE->m_sPreferredSongGroup );
// Still nothing?
if( vSongs.size() == 0 )
return;
// Calculate what difficulties to show
vector<Difficulty> vDifficultiesToShow;
if( m_bDemonstration )
{
// HACK: This belongs in ScreenDemonstration.
ThemeMetricDifficultiesToShow DIFFICULTIES_TO_SHOW_HERE(m_sName,"DifficultiesToShow");
vDifficultiesToShow = DIFFICULTIES_TO_SHOW_HERE.GetValue();
}
else
{
if( GAMESTATE->m_PreferredDifficulty[PLAYER_1] != Difficulty_Invalid )
{
vDifficultiesToShow.push_back( GAMESTATE->m_PreferredDifficulty[PLAYER_1] );
}
else
{
FOREACH_ENUM( Difficulty, dc )
vDifficultiesToShow.push_back( dc );
}
}
ASSERT( !vDifficultiesToShow.empty() );
// Search for a Song and Steps to play during the demo.
for( int i=0; i<1000; i++ )
{
Song* pSong = vSongs[RandomInt(vSongs.size())];
ASSERT( pSong != NULL );
if( !pSong->HasMusic() )
continue; // skip
if( !pSong->NormallyDisplayed() )
continue;
if( !pSong->ShowInDemonstrationAndRanking() )
continue; // skip
Difficulty dc = vDifficultiesToShow[ RandomInt(vDifficultiesToShow.size()) ];
Steps* pSteps = SongUtil::GetStepsByDifficulty( pSong, GAMESTATE->GetCurrentStyle()->m_StepsType, dc );
if( pSteps == NULL )
continue; // skip
if( !PREFSMAN->m_bAutogenSteps && pSteps->IsAutogen())
continue; // skip
// Found something we can use!
GAMESTATE->m_pCurSong.Set( pSong );
// We just changed the song. Reset the original sync data.
AdjustSync::ResetOriginalSyncData();
FOREACH_PlayerNumber( p )
GAMESTATE->m_pCurSteps[p].Set( pSteps );
bool bShowModifiers = randomf(0,1) <= SHOW_COURSE_MODIFIERS_PROBABILITY;
if( bShowModifiers )
{
/* If we have a modifier course containing this song, apply its
* modifiers. Only check fixed course entries. */
vector<Course*> apCourses;
SONGMAN->GetAllCourses( apCourses, false );
vector<const CourseEntry *> apOptions;
vector<Course*> apPossibleCourses;
for( unsigned j = 0; j < apCourses.size(); ++j )
{
Course *lCourse = apCourses[j];
const CourseEntry *pEntry = lCourse->FindFixedSong( pSong );
if( pEntry == NULL || pEntry->attacks.size() == 0 )
continue;
if( !ALLOW_ADVANCED_MODIFIERS )
{
// There are some confusing mods that we don't want to show in demonstration.
bool bModsAreOkToShow = true;
AttackArray aAttacks = pEntry->attacks;
if( !pEntry->sModifiers.empty() )
aAttacks.push_back( Attack::FromGlobalCourseModifier( pEntry->sModifiers ) );
FOREACH_CONST( Attack, aAttacks, a )
{
RString s = a->sModifiers;
s.MakeLower();
// todo: allow themers to modify this list? -aj
if( s.find("dark") != string::npos ||
s.find("stealth") != string::npos )
{
bModsAreOkToShow = false;
break;
}
}
if( !bModsAreOkToShow )
continue; // skip
}
apOptions.push_back( pEntry );
apPossibleCourses.push_back( pCourse );
}
if( !apOptions.empty() )
{
int iIndex = RandomInt( apOptions.size() );
m_pCourseEntry = apOptions[iIndex];
Course *lCourse = apPossibleCourses[iIndex];
PlayMode pm = CourseTypeToPlayMode( lCourse->GetCourseType() );
GAMESTATE->m_PlayMode.Set( pm );
GAMESTATE->m_pCurCourse.Set( lCourse );
FOREACH_PlayerNumber( p )
{
GAMESTATE->m_pCurTrail[p].Set( lCourse->GetTrail( GAMESTATE->GetCurrentStyle()->m_StepsType ) );
ASSERT( GAMESTATE->m_pCurTrail[p] != NULL );
}
}
/////////////////////////////////////////////////
// 主函数
/////////////////////////////////////////////////
int main(int argc, char* argv[])
{
// 初始化绘图窗口及颜色
setinitmode(0x005, 0, 0);
if (argc < 2)
{
MessageBoxW(NULL, L"本屏幕保护程序无配置", L"JuliaSet", MB_OK);
return 0;
}
else if (stricmp(argv[1], "/p") == 0)
{
HWND hwnd;
sscanf(argv[2], "%d", &hwnd);
attachHWND(hwnd);
setinitmode(0x107, 0, 0);
}
else if (stricmp(argv[1], "/s"))
{
MessageBoxW(NULL, L"本屏幕保护程序无配置", L"JuliaSet", MB_OK);
return 0;
}
//initgraph(320, 240);
initgraph(-1, -1);
randomize();
showmouse(0);
FlushMouseMsgBuffer();
while(kbhit()) getch();
//InitColor();
InitLog();
g_w = getwidth(NULL);
g_h = getheight(NULL);
g_st = (state*)malloc(g_w * g_h * sizeof(state));
COMPLEX c = {0.262, 0.002}, z = {0, 0};
double r = 1.5, d = g_w / (double)g_h, rotate = 0, sr = sin(rotate), cr = cos(rotate);
init_st(g_w, g_h);
int n_update = 0;
double ftime = fclock();
{
double dc = 64, dca = 128, db = 16;
col_r = randomf() * dc + db;
col_g = randomf() * dc + db;
col_b = randomf() * dc + db;
col_ar = randomf() * dca;
col_ag = randomf() * dca;
col_ab = randomf() * dca;
rotate = randomf() * 360;
sr = sin(rotate), cr = cos(rotate);
}
setrendermode(RENDER_MANUAL);
for (int loop = 1; kbmouhit() == 0; ++loop)
{
int ret;
if (loop <= 4)
{
ret = JDraw(c, z.re - r * d, z.im - r, z.re + r * d, z.im + r, sr, cr);
if (loop == 4)
{
g_udlist.swap();
for(int y=0; y<g_h; y++)
{
for(int x=0; x<g_w; x++)
{
if (g_st[y * g_w + x].ed == 0)
{
g_udlist.push(x, y);
}
}
}
g_udlist.swap();
}
}
else
{
static int t = 0;
ret = JDrawA(c, z.re - r * d, z.im - r, z.re + r * d, z.im + r);
if (clock() - t > 30)
{
delay(1);
t = clock();
}
}
if (g_updatepoint == 0)
{
n_update++;
}
else
{
n_update = 0;
}
if (0)
{
char str[500];
sprintf(str, "%d %d %f %f", g_w, g_h, r, d);
outtextxy(0, 0, str);
}
if (ret == 0 || n_update > 8 || loop > 1000)
{
loop = 0;
if (g_mi[0][0] == 0)
{
delay(1);
memset(pMap, 0, BF_W * BF_H * sizeof(state));
g_udlist.clear();
for (int i = 0; i < BF_W; ++i)
{
addpoint(i, 0);
addpoint(i, BF_H - 1);
}
for (int i = 0; i < 4; )
{
if (MDraw(-1.9, -1.2, 0.5, 1.2) == 0)
{
++i;
}
else
{
i = 0;
}
if (kbmouhit()) return 0;
}
}
double dc = 64, dca = 128, db = 16;
col_r = randomf() * dc + db;
col_g = randomf() * dc + db;
col_b = randomf() * dc + db;
col_ar = randomf() * dca;
col_ag = randomf() * dca;
col_ab = randomf() * dca;
rotate = randomf() * 360;
sr = sin(rotate), cr = cos(rotate);
do
{
c.re = randomf() * 2.4 - 1.9;
c.im = randomf() * 2.4 - 1.2;
int ir = (int)((c.re - (-1.9)) / (0.5 - (-1.9)) * BF_W);
int im = (int)((c.im - (-1.2)) / (1.2 - (-1.2)) * BF_H);
if (g_mi[im][ir] >= 16)
{
break;
}
} while (1);
init_st(g_w, g_h);
n_update = 0;
if (fclock() - ftime < 3)
{
delay_ms((int)((3 - (fclock() - ftime)) * 1000));
}
else
{
delay(1);
}
ftime = fclock();
}
}
closegraph();
return 0;
}
int main(){
int i, j, k, test, mode, mode1;
double zA[1+Q][1+m], zB[1+Q][1+m], zavg[1+m];
double movesize, gradsize, dlnLsize, maxsize, temp;
double crit_move, crit_grad, crit_dlnL, x[1+m];
double mlnlold, dmlnLold[1+m], H[1+m][1+m], K[1+m], S[1+m][1+m];
double rc, a[1+m], aold[1+m], alpha0[1+m];
double mlnl, dmlnL[1+m], alnLmax[1+m+1+1];
FILE *convergence;
getdata(zA, zB);
for(j=0;j<=m;j=j+1){
zavg[j] = 0.0;
}
for(i=1;i<=zA[0][0];i=i+1){
for(j=1;j<=m;j=j+1){
zavg[j] = zavg[j] + zA[i][j];
}
}
for(j=1;j<=m;j=j+1){
zavg[j] = zavg[j]/((double)zA[0][0]);
alpha0[j] = 0.0;
}
crit_move = 0.001;
crit_grad = 0.01;
crit_dlnL = 0.0001;
maxsize = 0.1;
/***** SCREEN FOR STARTING VALUES *****/
if(m == 1){
printf("\n GET INITIAL VALUES BY RANDOM NUMBERS");
for(i=1;i<=16;i=i+1){
a[1] = randomf(-2.0, 2.0);
a[0] = -a[1]*zavg[j];
mlnl = mlnL(a, zA, zB);
if( mlnl < mlnL(alpha0, zA, zB) ){
for(j=0;j<=1;j=j+1){
alpha0[j] = a[j];
printf("\n improvement %lf a: %.3f %.3f",
mlnl, a[0], a[1]);
}
}
}
}else{
printf("\n GET INITIAL VALUES FROM BEST SUB-MODEL");
convergence = fopen("initial.txt", "r");
for(i=0;i<=m;i=i+1){
fscanf(convergence, "%lf", &temp);
alpha0[i] = temp;
}
fclose(convergence);
}
printf("\n initial a: ");
for(j=0;j<=m;j=j+1){
a[j] = alpha0[j];
printf(" %.3f ", a[j]);
for(k=0;k<=m;k=k+1){
H[j][k] = 0.0;
}
H[j][j] = 1.0 + randomf(0.0, 0.1);
}
convergence = fopen("convergence.txt", "w");
test = 0;
for(i=1;test==0;i=i+1){
if(i != 1){
mlnlold = mlnl;
for(j=0;j<=m;j=j+1){
dmlnLold[j] = dmlnL[j];
}
}
mlnl = grad(a, zA, zB, dmlnL);
printf("\n dmlnL = %f %f", dmlnL[0], dmlnL[1]);
if(i!=1){
BFGS_update(x, dmlnL, dmlnLold, H);
}
diagonalize(H, S, K);
dlnLsize = dmlnL - dmlnLold;
gradsize = sqrt(dot(dmlnL, dmlnL));
fprintf(convergence,"\n %d %f %f", i, gradsize, mlnl);
printf("\n\n gradients: %d mlnL: %f gradsize: %f", i, mlnl, gradsize);
fflush(convergence);
fflush(stdout);
for(j=0;j<=m;j=j+1){
x[j] = 0.0;
for(k=0;k<=m;k=k+1){
x[j] = x[j] - (dot(S[k],dmlnL)/K[k])*S[k][j];
}
}
movesize = sqrt(dot(x,x));
printf("\n RAW MOVESIZE/(B): %f", movesize);
if(movesize > maxsize){
for(j=0;j<=m;j=j+1){
x[j] = x[j]*maxsize/movesize;
}
}
printf("\n NEW MOVESIZE/(B): %f ALPHA: ", sqrt(dot(x,x)));
for(j=0;j<=m;j=j+1){
aold[j] = a[j];
a[j] = a[j] + x[j];
printf(" %.3f", a[j]);
}
printf("\n CONVERGENCE TESTING");
printf("\n movesize:tolerance %f::%f", movesize, crit_move);
printf("\n gradsize:tolerance %f::%f", gradsize, crit_grad);
printf("\n deltaE:|tolerance| %f::%f", dlnLsize, crit_dlnL);
if(movesize < crit_move && gradsize < crit_grad){
test = 1;
}
if(movesize < crit_move && fabs(dlnLsize) < crit_dlnL){
test = 1;
}
if(fabs(dlnLsize) < crit_dlnL && gradsize < crit_grad){
test = 1;
}
if(test == 1){
printf("\n CONVERGED ");
for(j=0;j<=m;j=j+1){
alnLmax[j] = a[j];
}
alnLmax[m+1] = -mlnl;
}
}
fclose(convergence);
convergence = fopen("answer.txt", "w");
fprintf(convergence, "%f ", alnLmax[m+1]);
for(j=0;j<=m;j=j+1){
fprintf(convergence, "%f ", alnLmax[j]);
}
fclose(convergence);
printf("\n");
return 0;
}
// FX
void NG_FXUpdate(void)
{
int32_t i, delta;
int32_t t = V3X.Time.ms;
SGEffect *p;
for (p=g_SGGame.pExpl, i=g_SGGame.numEffects;i!=0;p++, i--)
{
if (!p->Dispo)
{
int alpha = 255;
if (p->FxCode>=0)
{
if (p->PlaySample)
{
p->TagFx = NG_Audio3DPlay(p->FxCode, p->pos, NULL);
p->PlaySample = 0;
}
else
{
if ((p->TagFx)&&(!NG_Audio3DUpdate(p->pos, NULL, p->TagFx, p->FxCode)))
p->TagFx=0;
}
}
delta = (t - p->LastFrame) / ( 1 + p->Sprite->speed);
if (p->useKeep)
p->OVI->state|=V3XSTATE_MATRIXUPDATE;
if ((p->type==FX_DEBRIS)||(p->type==FX_SMOKE))
{
float scale = randomf(p->type==FX_DEBRIS ? 3+4 : 2+8);
V3XVector_PolarSet(p->pos, &p->cent, (V3XSCALAR)p->angle.x, (int32_t)p->angle.y, (int32_t)p->angle.z);
p->angle.x+= (int)(g_cTimer.fCounter * scale);
p->OVI->state|=V3XSTATE_MATRIXUPDATE;
if (p->type == FX_DEBRIS)
alpha = 255;
else
alpha = 128;
}
if (delta)
{
p->Step[1]=p->Step[0];
p->Step[0]+=delta;
p->LastFrame = t;
if (p->Step[0]>=p->Sprite->maxItem-1)
{
p->Nloop--;
if (p->Nloop==0)
{
p->Dispo = 1;
p->fce.visible = 0;
}
else
{
p->Step[0]%=p->Sprite->maxItem;
p->PlaySample = 1;
}
}
// Fade out (on last frame)
if (p->Nloop == 1)
{
unsigned a = p->Step[0] > p->FadeStart ? alpha - ((alpha*(p->Step[0] - p->FadeStart))
/ (p->Sprite->maxItem - p->FadeStart)) : alpha;
RGB_Set(p->material.diffuse, a, a, a);
}
}
if ((!p->Dispo)&&(p->type==FX_FINISH)&&(p->OVI->state&V3XSTATE_HIDDEN))
{
p->Dispo = 1;
p->fce.visible = 0;
}
if (!p->Dispo)
{
int j;
for (j=0;j<2;j++)
{
if (V3XVector_TransformProject_pts(p->pos, &p->pos2D[j]))
{
V3XSCALAR sx = V3X.ViewPort.Focal / p->pos2D[j].z;
p->size2D[j].y = p->Size * sx;
p->size2D[j].x = p->size2D[j].y * V3X.ViewPort.Ratio;
p->pos2D[j].z = -p->pos2D[j].z;
if (j == 0)
p->fce.visible = 1;
}
else
{
if (j == 0)
p->fce.visible = 0;
}
}
p->pos2D[1] = p->pos2D[0];
}
}
}
}
//自定义函数，用来返回一个0 - m之间的浮点数
float myrand(float m)
{
// randomf() 返回一个 0 到 1 之间的随机浮点数
return (float)(randomf() * m);
}
void BGAnimationLayer::LoadFromAniLayerFile( const RString& sPath )
{
/* Generic BGAs are new. Animation directories with no INI are old and obsolete.
* Don't combine them. */
RString lcPath = sPath;
lcPath.MakeLower();
if( lcPath.find("usesongbg") != RString::npos )
{
const Song* pSong = GAMESTATE->m_pCurSong;
RString sSongBGPath;
if( pSong && pSong->HasBackground() )
sSongBGPath = pSong->GetBackgroundPath();
else
sSongBGPath = THEME->GetPathG("Common","fallback background");
Sprite* pSprite = new Sprite;
pSprite->Load( Sprite::SongBGTexture(sSongBGPath) );
pSprite->StretchTo( FullScreenRectF );
this->AddChild( pSprite );
return; // this will ignore other effects in the file name
}
enum Effect {
EFFECT_CENTER,
EFFECT_STRETCH_STILL,
EFFECT_STRETCH_SCROLL_LEFT,
EFFECT_STRETCH_SCROLL_RIGHT,
EFFECT_STRETCH_SCROLL_UP,
EFFECT_STRETCH_SCROLL_DOWN,
EFFECT_STRETCH_WATER,
EFFECT_STRETCH_BUBBLE,
EFFECT_STRETCH_TWIST,
EFFECT_STRETCH_SPIN,
EFFECT_PARTICLES_SPIRAL_OUT,
EFFECT_PARTICLES_SPIRAL_IN,
EFFECT_PARTICLES_FLOAT_UP,
EFFECT_PARTICLES_FLOAT_DOWN,
EFFECT_PARTICLES_FLOAT_LEFT,
EFFECT_PARTICLES_FLOAT_RIGHT,
EFFECT_PARTICLES_BOUNCE,
EFFECT_TILE_STILL,
EFFECT_TILE_SCROLL_LEFT,
EFFECT_TILE_SCROLL_RIGHT,
EFFECT_TILE_SCROLL_UP,
EFFECT_TILE_SCROLL_DOWN,
EFFECT_TILE_FLIP_X,
EFFECT_TILE_FLIP_Y,
EFFECT_TILE_PULSE,
NUM_EFFECTS, // leave this at the end
EFFECT_INVALID
};
const RString EFFECT_STRING[NUM_EFFECTS] = {
"center",
"stretchstill",
"stretchscrollleft",
"stretchscrollright",
"stretchscrollup",
"stretchscrolldown",
"stretchwater",
"stretchbubble",
"stretchtwist",
"stretchspin",
"particlesspiralout",
"particlesspiralin",
"particlesfloatup",
"particlesfloatdown",
"particlesfloatleft",
"particlesfloatright",
"particlesbounce",
"tilestill",
"tilescrollleft",
"tilescrollright",
"tilescrollup",
"tilescrolldown",
"tileflipx",
"tileflipy",
"tilepulse",
};
Effect effect = EFFECT_CENTER;
for( int i=0; i<NUM_EFFECTS; i++ )
if( lcPath.find(EFFECT_STRING[i]) != string::npos )
effect = (Effect)i;
switch( effect )
{
case EFFECT_CENTER:
{
m_Type = TYPE_SPRITE;
Sprite* pSprite = new Sprite;
this->AddChild( pSprite );
pSprite->Load( sPath );
pSprite->SetXY( SCREEN_CENTER_X, SCREEN_CENTER_Y );
}
break;
case EFFECT_STRETCH_STILL:
case EFFECT_STRETCH_SCROLL_LEFT:
case EFFECT_STRETCH_SCROLL_RIGHT:
case EFFECT_STRETCH_SCROLL_UP:
case EFFECT_STRETCH_SCROLL_DOWN:
case EFFECT_STRETCH_WATER:
case EFFECT_STRETCH_BUBBLE:
case EFFECT_STRETCH_TWIST:
{
m_Type = TYPE_SPRITE;
Sprite* pSprite = new Sprite;
this->AddChild( pSprite );
RageTextureID ID(sPath);
ID.bStretch = true;
pSprite->Load( Sprite::SongBGTexture(ID) );
pSprite->StretchTo( FullScreenRectF );
pSprite->SetCustomTextureRect( RectF(0,0,1,1) );
switch( effect )
{
case EFFECT_STRETCH_SCROLL_LEFT: m_fTexCoordVelocityX = +0.5f; m_fTexCoordVelocityY = 0; break;
case EFFECT_STRETCH_SCROLL_RIGHT: m_fTexCoordVelocityX = -0.5f; m_fTexCoordVelocityY = 0; break;
case EFFECT_STRETCH_SCROLL_UP: m_fTexCoordVelocityX = 0; m_fTexCoordVelocityY = +0.5f; break;
case EFFECT_STRETCH_SCROLL_DOWN: m_fTexCoordVelocityX = 0; m_fTexCoordVelocityY = -0.5f; break;
default: break;
}
}
break;
case EFFECT_STRETCH_SPIN:
{
m_Type = TYPE_SPRITE;
Sprite* pSprite = new Sprite;
this->AddChild( pSprite );
pSprite->Load( Sprite::SongBGTexture(sPath) );
const RectF StretchedFullScreenRectF(
FullScreenRectF.left-200,
FullScreenRectF.top-200,
FullScreenRectF.right+200,
FullScreenRectF.bottom+200 );
pSprite->ScaleToCover( StretchedFullScreenRectF );
pSprite->SetEffectSpin( RageVector3(0,0,60) );
}
break;
case EFFECT_PARTICLES_SPIRAL_OUT:
case EFFECT_PARTICLES_SPIRAL_IN:
case EFFECT_PARTICLES_FLOAT_UP:
case EFFECT_PARTICLES_FLOAT_DOWN:
case EFFECT_PARTICLES_FLOAT_LEFT:
case EFFECT_PARTICLES_FLOAT_RIGHT:
case EFFECT_PARTICLES_BOUNCE:
{
m_Type = TYPE_PARTICLES;
Sprite s;
s.Load( sPath );
int iSpriteArea = int( s.GetUnzoomedWidth()*s.GetUnzoomedHeight() );
const int iMaxArea = int(SCREEN_WIDTH*SCREEN_HEIGHT);
int iNumParticles = iMaxArea / iSpriteArea;
iNumParticles = min( iNumParticles, MAX_SPRITES );
for( int i=0; i<iNumParticles; i++ )
{
Sprite* pSprite = new Sprite;
this->AddChild( pSprite );
pSprite->Load( sPath );
pSprite->SetZoom( 0.7f + 0.6f*i/(float)iNumParticles );
switch( effect )
{
case EFFECT_PARTICLES_BOUNCE:
pSprite->SetX( randomf( GetGuardRailLeft(pSprite), GetGuardRailRight(pSprite) ) );
pSprite->SetY( randomf( GetGuardRailTop(pSprite), GetGuardRailBottom(pSprite) ) );
break;
default:
pSprite->SetX( randomf( GetOffScreenLeft(pSprite), GetOffScreenRight(pSprite) ) );
pSprite->SetY( randomf( GetOffScreenTop(pSprite), GetOffScreenBottom(pSprite) ) );
break;
}
switch( effect )
{
case EFFECT_PARTICLES_FLOAT_UP:
case EFFECT_PARTICLES_SPIRAL_OUT:
m_vParticleVelocity.push_back( RageVector3( 0, -PARTICLE_SPEED*pSprite->GetZoom(), 0 ) );
break;
case EFFECT_PARTICLES_FLOAT_DOWN:
case EFFECT_PARTICLES_SPIRAL_IN:
m_vParticleVelocity.push_back( RageVector3( 0, PARTICLE_SPEED*pSprite->GetZoom(), 0 ) );
break;
case EFFECT_PARTICLES_FLOAT_LEFT:
m_vParticleVelocity.push_back( RageVector3( -PARTICLE_SPEED*pSprite->GetZoom(), 0, 0 ) );
break;
case EFFECT_PARTICLES_FLOAT_RIGHT:
m_vParticleVelocity.push_back( RageVector3( +PARTICLE_SPEED*pSprite->GetZoom(), 0, 0 ) );
break;
case EFFECT_PARTICLES_BOUNCE:
m_bParticlesBounce = true;
pSprite->SetZoom( 1 );
m_vParticleVelocity.push_back( RageVector3( randomf(), randomf(), 0 ) );
RageVec3Normalize( &m_vParticleVelocity[i], &m_vParticleVelocity[i] );
m_vParticleVelocity[i].x *= PARTICLE_SPEED;
m_vParticleVelocity[i].y *= PARTICLE_SPEED;
break;
default:
FAIL_M(ssprintf("Unrecognized layer effect: %i", effect));
}
}
}
break;
case EFFECT_TILE_STILL:
case EFFECT_TILE_SCROLL_LEFT:
case EFFECT_TILE_SCROLL_RIGHT:
case EFFECT_TILE_SCROLL_UP:
case EFFECT_TILE_SCROLL_DOWN:
case EFFECT_TILE_FLIP_X:
case EFFECT_TILE_FLIP_Y:
case EFFECT_TILE_PULSE:
{
m_Type = TYPE_TILES;
RageTextureID ID(sPath);
ID.bStretch = true;
Sprite s;
s.Load( ID );
m_iNumTilesWide = 2+int(SCREEN_WIDTH /s.GetUnzoomedWidth());
m_iNumTilesWide = min( m_iNumTilesWide, MAX_TILES_WIDE );
m_iNumTilesHigh = 2+int(SCREEN_HEIGHT/s.GetUnzoomedHeight());
m_iNumTilesHigh = min( m_iNumTilesHigh, MAX_TILES_HIGH );
m_fTilesStartX = s.GetUnzoomedWidth() / 2;
m_fTilesStartY = s.GetUnzoomedHeight() / 2;
m_fTilesSpacingX = s.GetUnzoomedWidth();
m_fTilesSpacingY = s.GetUnzoomedHeight();
for( int x=0; x<m_iNumTilesWide; x++ )
{
for( int y=0; y<m_iNumTilesHigh; y++ )
{
Sprite* pSprite = new Sprite;
this->AddChild( pSprite );
pSprite->Load( ID );
pSprite->SetTextureWrapping( true ); // gets rid of some "cracks"
switch( effect )
{
case EFFECT_TILE_STILL:
break;
case EFFECT_TILE_SCROLL_LEFT:
m_fTileVelocityX = -PARTICLE_SPEED;
break;
case EFFECT_TILE_SCROLL_RIGHT:
m_fTileVelocityX = +PARTICLE_SPEED;
break;
case EFFECT_TILE_SCROLL_UP:
m_fTileVelocityY = -PARTICLE_SPEED;
break;
case EFFECT_TILE_SCROLL_DOWN:
m_fTileVelocityY = +PARTICLE_SPEED;
break;
case EFFECT_TILE_FLIP_X:
pSprite->SetEffectSpin( RageVector3(180,0,0) );
break;
case EFFECT_TILE_FLIP_Y:
pSprite->SetEffectSpin( RageVector3(0,180,0) );
break;
case EFFECT_TILE_PULSE:
pSprite->SetEffectPulse( 1, 0.3f, 1.f );
break;
default:
FAIL_M(ssprintf("Not a tile effect: %i", effect));
}
}
}
}
break;
default:
FAIL_M(ssprintf("Unrecognized layer effect: %i", effect));
}
RString sHint = sPath;
sHint.MakeLower();
if( sHint.find("cyclecolor") != RString::npos )
for( unsigned i=0; i<m_SubActors.size(); i++ )
m_SubActors[i]->SetEffectRainbow( 5 );
if( sHint.find("cyclealpha") != RString::npos )
for( unsigned i=0; i<m_SubActors.size(); i++ )
m_SubActors[i]->SetEffectDiffuseShift( 2, RageColor(1,1,1,1), RageColor(1,1,1,0) );
if( sHint.find("startonrandomframe") != RString::npos )
for( unsigned i=0; i<m_SubActors.size(); i++ )
m_SubActors[i]->SetState( RandomInt(m_SubActors[i]->GetNumStates()) );
if( sHint.find("dontanimate") != RString::npos )
for( unsigned i=0; i<m_SubActors.size(); i++ )
m_SubActors[i]->StopAnimating();
if( sHint.find("add") != RString::npos )
for( unsigned i=0; i<m_SubActors.size(); i++ )
m_SubActors[i]->SetBlendMode( BLEND_ADD );
}
static inline bool rnd_choice(float possib)
{
return randomf() < possib;
}
double rand_float(double dv, double db) //返回一个db 到 db+dv之间的随机浮点数
{
return randomf()*dv + db;
}
static inline float deviation_apply(float val, float dev)
{
return (2 * dev * randomf() - dev + 1) * val;
}
void BGAnimationLayer::LoadFromNode( const XNode* pNode )
{
{
bool bCond;
if( pNode->GetAttrValue("Condition", bCond) && !bCond )
return;
}
bool bStretch = false;
{
RString type = "sprite";
pNode->GetAttrValue( "Type", type );
type.MakeLower();
/* The preferred way of stretching a sprite to fit the screen is "Type=sprite"
* and "stretch=1". "type=1" is for backwards-compatibility. */
pNode->GetAttrValue( "Stretch", bStretch );
// Check for string match first, then do integer match.
// "if(StringType(type)==0)" was matching against all string matches.
// -Chris
if( type.EqualsNoCase("sprite") )
{
m_Type = TYPE_SPRITE;
}
else if( type.EqualsNoCase("particles") )
{
m_Type = TYPE_PARTICLES;
}
else if( type.EqualsNoCase("tiles") )
{
m_Type = TYPE_TILES;
}
else if( StringToInt(type) == 1 )
{
m_Type = TYPE_SPRITE;
bStretch = true;
}
else if( StringToInt(type) == 2 )
{
m_Type = TYPE_PARTICLES;
}
else if( StringToInt(type) == 3 )
{
m_Type = TYPE_TILES;
}
else
{
m_Type = TYPE_SPRITE;
}
}
pNode->GetAttrValue( "FOV", m_fFOV );
pNode->GetAttrValue( "Lighting", m_bLighting );
pNode->GetAttrValue( "TexCoordVelocityX", m_fTexCoordVelocityX );
pNode->GetAttrValue( "TexCoordVelocityY", m_fTexCoordVelocityY );
// compat:
pNode->GetAttrValue( "StretchTexCoordVelocityX", m_fTexCoordVelocityX );
pNode->GetAttrValue( "StretchTexCoordVelocityY", m_fTexCoordVelocityY );
// particle and tile stuff
float fZoomMin = 1;
float fZoomMax = 1;
pNode->GetAttrValue( "ZoomMin", fZoomMin );
pNode->GetAttrValue( "ZoomMax", fZoomMax );
float fVelocityXMin = 10, fVelocityXMax = 10;
float fVelocityYMin = 0, fVelocityYMax = 0;
float fVelocityZMin = 0, fVelocityZMax = 0;
float fOverrideSpeed = 0; // 0 means don't override speed
pNode->GetAttrValue( "VelocityXMin", fVelocityXMin );
pNode->GetAttrValue( "VelocityXMax", fVelocityXMax );
pNode->GetAttrValue( "VelocityYMin", fVelocityYMin );
pNode->GetAttrValue( "VelocityYMax", fVelocityYMax );
pNode->GetAttrValue( "VelocityZMin", fVelocityZMin );
pNode->GetAttrValue( "VelocityZMax", fVelocityZMax );
pNode->GetAttrValue( "OverrideSpeed", fOverrideSpeed );
int iNumParticles = 10;
pNode->GetAttrValue( "NumParticles", iNumParticles );
pNode->GetAttrValue( "ParticlesBounce", m_bParticlesBounce );
pNode->GetAttrValue( "TilesStartX", m_fTilesStartX );
pNode->GetAttrValue( "TilesStartY", m_fTilesStartY );
pNode->GetAttrValue( "TilesSpacingX", m_fTilesSpacingX );
pNode->GetAttrValue( "TilesSpacingY", m_fTilesSpacingY );
pNode->GetAttrValue( "TileVelocityX", m_fTileVelocityX );
pNode->GetAttrValue( "TileVelocityY", m_fTileVelocityY );
switch( m_Type )
{
case TYPE_SPRITE:
{
Actor* pActor = ActorUtil::LoadFromNode( pNode, this );
this->AddChild( pActor );
if( bStretch )
pActor->StretchTo( FullScreenRectF );
}
break;
case TYPE_PARTICLES:
{
RString sFile;
ActorUtil::GetAttrPath( pNode, "File", sFile );
FixSlashesInPlace( sFile );
CollapsePath( sFile );
for( int i=0; i<iNumParticles; i++ )
{
Actor* pActor = ActorUtil::MakeActor( sFile, this );
if( pActor == NULL )
continue;
this->AddChild( pActor );
pActor->SetXY( randomf(float(FullScreenRectF.left),float(FullScreenRectF.right)),
randomf(float(FullScreenRectF.top),float(FullScreenRectF.bottom)) );
pActor->SetZoom( randomf(fZoomMin,fZoomMax) );
m_vParticleVelocity.push_back( RageVector3(
randomf(fVelocityXMin,fVelocityXMax),
randomf(fVelocityYMin,fVelocityYMax),
randomf(fVelocityZMin,fVelocityZMax) ) );
if( fOverrideSpeed != 0 )
{
RageVec3Normalize( &m_vParticleVelocity[i], &m_vParticleVelocity[i] );
m_vParticleVelocity[i] *= fOverrideSpeed;
}
}
}
break;
case TYPE_TILES:
{
RString sFile;
ActorUtil::GetAttrPath( pNode, "File", sFile );
FixSlashesInPlace( sFile );
CollapsePath( sFile );
AutoActor s;
s.Load( sFile );
if( m_fTilesSpacingX == -1 )
m_fTilesSpacingX = s->GetUnzoomedWidth();
if( m_fTilesSpacingY == -1 )
m_fTilesSpacingY = s->GetUnzoomedHeight();
m_iNumTilesWide = 2+(int)(SCREEN_WIDTH /m_fTilesSpacingX);
m_iNumTilesHigh = 2+(int)(SCREEN_HEIGHT/m_fTilesSpacingY);
unsigned NumSprites = m_iNumTilesWide * m_iNumTilesHigh;
for( unsigned i=0; i<NumSprites; i++ )
{
Actor* pSprite = ActorUtil::MakeActor( sFile, this );
if( pSprite == NULL )
continue;
this->AddChild( pSprite );
pSprite->SetTextureWrapping( true ); // gets rid of some "cracks"
pSprite->SetZoom( randomf(fZoomMin,fZoomMax) );
}
}
break;
default:
FAIL_M(ssprintf("Unrecognized layer type: %i", m_Type));
}
bool bStartOnRandomFrame = false;
pNode->GetAttrValue( "StartOnRandomFrame", bStartOnRandomFrame );
if( bStartOnRandomFrame )
{
for( unsigned i=0; i<m_SubActors.size(); i++ )
m_SubActors[i]->SetState( RandomInt(m_SubActors[i]->GetNumStates()) );
}
}
void ScreenJukebox::SetSong()
{
ThemeMetric<bool> ALLOW_ADVANCED_MODIFIERS(m_sName,"AllowAdvancedModifiers");
vector<Song*> vSongs;
//Check to see if there is a theme-course
//I.E. If there is a course called exactly the theme name,
//then we pick a song from this course.
Course *pCourse = SONGMAN->GetCourseFromName( THEME->GetCurThemeName() );
if( pCourse != NULL )
for ( unsigned i = 0; i < pCourse->m_entries.size(); i++ )
vSongs.push_back( pCourse->m_entries[i].pSong );
if ( vSongs.size() == 0 )
SONGMAN->GetSongs( vSongs, GAMESTATE->m_sPreferredSongGroup );
//
// Calculate what difficulties to show
//
vector<Difficulty> vDifficultiesToShow;
if( m_bDemonstration )
{
// HACK: This belongs in ScreenDemonstration
ThemeMetricDifficultiesToShow DIFFICULTIES_TO_SHOW_HERE(m_sName,"DifficultiesToShow");
vDifficultiesToShow = DIFFICULTIES_TO_SHOW_HERE.GetValue();
}
else
{
if( GAMESTATE->m_PreferredDifficulty[PLAYER_1] != DIFFICULTY_INVALID )
{
vDifficultiesToShow.push_back( GAMESTATE->m_PreferredDifficulty[PLAYER_1] );
}
else
{
FOREACH_Difficulty( dc )
vDifficultiesToShow.push_back( dc );
}
}
ASSERT( !vDifficultiesToShow.empty() )
//
// Search for a Song and Steps to play during the demo
//
for( int i=0; i<1000; i++ )
{
if( vSongs.size() == 0 )
return;
Song* pSong = vSongs[rand()%vSongs.size()];
if( !pSong->HasMusic() )
continue; // skip
if( UNLOCKMAN->SongIsLocked(pSong) )
continue;
if( !pSong->ShowInDemonstrationAndRanking() )
continue; // skip
Difficulty dc = vDifficultiesToShow[ rand()%vDifficultiesToShow.size() ];
Steps* pSteps = pSong->GetStepsByDifficulty( GAMESTATE->GetCurrentStyle()->m_StepsType, dc );
if( pSteps == NULL )
continue; // skip
if( !PREFSMAN->m_bAutogenSteps && pSteps->IsAutogen())
continue; // skip
// Found something we can use!
GAMESTATE->m_pCurSong.Set( pSong );
// We just changed the song. Reset the original sync data.
GAMESTATE->ResetOriginalSyncData();
FOREACH_PlayerNumber( p )
GAMESTATE->m_pCurSteps[p].Set( pSteps );
bool bShowModifiers = randomf(0,1) <= SHOW_COURSE_MODIFIERS_PROBABILITY;
if( bShowModifiers )
{
/* If we have a modifier course containing this song, apply its modifiers. Only check
* fixed course entries. */
vector<Course*> apCourses;
SONGMAN->GetAllCourses( apCourses, false );
vector<const CourseEntry *> apOptions;
vector<Course*> apPossibleCourses;
for( unsigned i = 0; i < apCourses.size(); ++i )
{
Course *pCourse = apCourses[i];
const CourseEntry *pEntry = pCourse->FindFixedSong( pSong );
if( pEntry == NULL || pEntry->attacks.size() == 0 )
continue;
if( !ALLOW_ADVANCED_MODIFIERS )
{
// There are some confusing mods that we don't want to show in demonstration.
bool bModsAreOkToShow = true;
AttackArray aAttacks = pEntry->attacks;
if( !pEntry->modifiers.empty() )
aAttacks.push_back( Attack::FromGlobalCourseModifier( pEntry->modifiers ) );
FOREACH_CONST( Attack, aAttacks, a )
{
CString s = a->sModifiers;
s.MakeLower();
if( s.find("dark") != CString::npos ||
s.find("stealth") != CString::npos )
{
bModsAreOkToShow = false;
break;
}
}
if( !bModsAreOkToShow )
continue; // skip
}
apOptions.push_back( pEntry );
apPossibleCourses.push_back( pCourse );
}
if( !apOptions.empty() )
{
int iIndex = rand()%apOptions.size();
m_pCourseEntry = apOptions[iIndex];
Course *pCourse = apPossibleCourses[iIndex];
GAMESTATE->m_PlayMode = CourseTypeToPlayMode( pCourse->GetCourseType() );
GAMESTATE->m_pCurCourse.Set( pCourse );
FOREACH_PlayerNumber( p )
{
GAMESTATE->m_pCurTrail[p].Set( pCourse->GetTrail( GAMESTATE->GetCurrentStyle()->m_StepsType ) );
ASSERT( GAMESTATE->m_pCurTrail[p] );
}
}
void ScreenEvaluation::Init()
{
LOG->Trace( "ScreenEvaluation::Init()" );
// debugging
// Only fill StageStats with fake info if we're the InitialScreen
// (i.e. StageStats not already filled)
if( PREFSMAN->m_sTestInitialScreen.Get() == m_sName )
{
PROFILEMAN->LoadFirstAvailableProfile(PLAYER_1);
PROFILEMAN->LoadFirstAvailableProfile(PLAYER_2);
STATSMAN->m_vPlayedStageStats.clear();
STATSMAN->m_vPlayedStageStats.push_back( StageStats() );
StageStats &ss = STATSMAN->m_vPlayedStageStats.back();
GAMESTATE->m_PlayMode.Set( PLAY_MODE_REGULAR );
GAMESTATE->SetCurrentStyle( GAMEMAN->GameAndStringToStyle(GAMEMAN->GetDefaultGame(),"versus"), PLAYER_INVALID );
ss.m_playMode = GAMESTATE->m_PlayMode;
ss.m_Stage = Stage_1st;
enum_add( ss.m_Stage, rand()%3 );
ss.m_EarnedExtraStage = (EarnedExtraStage)(rand() % NUM_EarnedExtraStage);
GAMESTATE->SetMasterPlayerNumber(PLAYER_1);
GAMESTATE->m_pCurSong.Set( SONGMAN->GetRandomSong() );
ss.m_vpPlayedSongs.push_back( GAMESTATE->m_pCurSong );
ss.m_vpPossibleSongs.push_back( GAMESTATE->m_pCurSong );
GAMESTATE->m_pCurCourse.Set( SONGMAN->GetRandomCourse() );
GAMESTATE->m_iCurrentStageIndex = 0;
FOREACH_ENUM( PlayerNumber, p )
GAMESTATE->m_iPlayerStageTokens[p] = 1;
FOREACH_PlayerNumber( p )
{
ss.m_player[p].m_pStyle = GAMESTATE->GetCurrentStyle(p);
if( RandomInt(2) )
PO_GROUP_ASSIGN_N( GAMESTATE->m_pPlayerState[p]->m_PlayerOptions, ModsLevel_Stage, m_bTransforms, PlayerOptions::TRANSFORM_ECHO, true ); // show "disqualified"
SO_GROUP_ASSIGN( GAMESTATE->m_SongOptions, ModsLevel_Stage, m_fMusicRate, 1.1f );
GAMESTATE->JoinPlayer( p );
GAMESTATE->m_pCurSteps[p].Set( GAMESTATE->m_pCurSong->GetAllSteps()[0] );
if( GAMESTATE->m_pCurCourse )
{
vector<Trail*> apTrails;
GAMESTATE->m_pCurCourse->GetAllTrails( apTrails );
if( apTrails.size() )
GAMESTATE->m_pCurTrail[p].Set( apTrails[0] );
}
ss.m_player[p].m_vpPossibleSteps.push_back( GAMESTATE->m_pCurSteps[PLAYER_1] );
ss.m_player[p].m_iStepsPlayed = 1;
PO_GROUP_ASSIGN( GAMESTATE->m_pPlayerState[p]->m_PlayerOptions, ModsLevel_Stage, m_fScrollSpeed, 2.0f );
PO_GROUP_CALL( GAMESTATE->m_pPlayerState[p]->m_PlayerOptions, ModsLevel_Stage, ChooseRandomModifiers );
}
for( float f = 0; f < 100.0f; f += 1.0f )
{
float fP1 = fmodf(f/100*4+.3f,1);
ss.m_player[PLAYER_1].SetLifeRecordAt( fP1, f );
ss.m_player[PLAYER_2].SetLifeRecordAt( 1-fP1, f );
}
FOREACH_PlayerNumber( p )
{
float fSeconds = GAMESTATE->m_pCurSong->GetStepsSeconds();
ss.m_player[p].m_iActualDancePoints = RandomInt( 3 );
ss.m_player[p].m_iPossibleDancePoints = 2;
if( RandomInt(2) )
ss.m_player[p].m_iCurCombo = RandomInt(15000);
else
ss.m_player[p].m_iCurCombo = 0;
ss.m_player[p].UpdateComboList( 0, true );
ss.m_player[p].m_iCurCombo += 50;
ss.m_player[p].UpdateComboList( 0.10f * fSeconds, false );
ss.m_player[p].m_iCurCombo = 0;
ss.m_player[p].UpdateComboList( 0.15f * fSeconds, false );
ss.m_player[p].m_iCurCombo = 1;
ss.m_player[p].UpdateComboList( 0.25f * fSeconds, false );
ss.m_player[p].m_iCurCombo = 50;
ss.m_player[p].UpdateComboList( 0.35f * fSeconds, false );
ss.m_player[p].m_iCurCombo = 0;
ss.m_player[p].UpdateComboList( 0.45f * fSeconds, false );
ss.m_player[p].m_iCurCombo = 1;
ss.m_player[p].UpdateComboList( 0.50f * fSeconds, false );
ss.m_player[p].m_iCurCombo = 100;
ss.m_player[p].UpdateComboList( 1.00f * fSeconds, false );
if( RandomInt(5) == 0 )
{
ss.m_player[p].m_bFailed = true;
}
ss.m_player[p].m_iTapNoteScores[TNS_W1] = RandomInt( 3 );
ss.m_player[p].m_iTapNoteScores[TNS_W2] = RandomInt( 3 );
ss.m_player[p].m_iTapNoteScores[TNS_W3] = RandomInt( 3 );
ss.m_player[p].m_iPossibleGradePoints = 4*ScoreKeeperNormal::TapNoteScoreToGradePoints(TNS_W1, false);
ss.m_player[p].m_fLifeRemainingSeconds = randomf( 90, 580 );
ss.m_player[p].m_iScore = rand() % (900*1000*1000);
ss.m_player[p].m_iPersonalHighScoreIndex = (rand() % 3) - 1;
ss.m_player[p].m_iMachineHighScoreIndex = (rand() % 3) - 1;
ss.m_player[p].m_PeakComboAward = (PeakComboAward)(rand()%NUM_PeakComboAward);
ss.m_player[p].m_StageAward = (StageAward)(rand()%NUM_StageAward);
FOREACH_ENUM( RadarCategory, rc )
{
switch( rc )
{
case RadarCategory_Stream:
case RadarCategory_Voltage:
case RadarCategory_Air:
case RadarCategory_Freeze:
case RadarCategory_Chaos:
ss.m_player[p].m_radarPossible[rc] = randomf( 0, 1 );
ss.m_player[p].m_radarActual[rc] = randomf( 0, ss.m_player[p].m_radarPossible[rc] );
break;
case RadarCategory_TapsAndHolds:
case RadarCategory_Jumps:
case RadarCategory_Holds:
case RadarCategory_Mines:
case RadarCategory_Hands:
case RadarCategory_Rolls:
case RadarCategory_Lifts:
case RadarCategory_Fakes:
ss.m_player[p].m_radarPossible[rc] = 1 + (rand() % 200);
ss.m_player[p].m_radarActual[rc] = rand() % (int)(ss.m_player[p].m_radarPossible[rc]);
break;
default: break;
}
; // filled in by ScreenGameplay on start of notes
}
}
}
int main( int argc, char **argv )
{
// use an ArgumentParser object to manage the program arguments.
osg::ArgumentParser arguments(&argc,argv);
// set up the usage document, in case we need to print out how to use this program.
arguments.getApplicationUsage()->setApplicationName(arguments.getApplicationName());
arguments.getApplicationUsage()->setDescription(arguments.getApplicationName()+" is the standard OpenSceneGraph example which loads and visualises 3d models.");
arguments.getApplicationUsage()->setCommandLineUsage(arguments.getApplicationName()+" [options] filename ...");
arguments.getApplicationUsage()->addCommandLineOption("--image <filename>","Load an image and render it on a quad");
arguments.getApplicationUsage()->addCommandLineOption("--dem <filename>","Load an image/DEM and render it on a HeightField");
arguments.getApplicationUsage()->addCommandLineOption("-h or --help","Display command line paramters");
arguments.getApplicationUsage()->addCommandLineOption("--help-env","Display environmental variables available");
arguments.getApplicationUsage()->addCommandLineOption("--help-keys","Display keyboard & mouse bindings available");
arguments.getApplicationUsage()->addCommandLineOption("--help-all","Display all command line, env vars and keyboard & mouse bindigs.");
int numLimbs = 3;
while (arguments.read("--limbs", numLimbs)) {}
// construct the viewer.
osgProducer::Viewer viewer(arguments);
// set up the value with sensible default event handlers.
viewer.setUpViewer(osgProducer::Viewer::STANDARD_SETTINGS);
#if 0
unsigned int pos = viewer.addCameraManipulator(new GliderManipulator());
viewer.selectCameraManipulator(pos);
#endif
// get details on keyboard and mouse bindings used by the viewer.
viewer.getUsage(*arguments.getApplicationUsage());
// if user request help write it out to cout.
bool helpAll = arguments.read("--help-all");
unsigned int helpType = ((helpAll || arguments.read("-h") || arguments.read("--help"))? osg::ApplicationUsage::COMMAND_LINE_OPTION : 0 ) |
((helpAll || arguments.read("--help-env"))? osg::ApplicationUsage::ENVIRONMENTAL_VARIABLE : 0 ) |
((helpAll || arguments.read("--help-keys"))? osg::ApplicationUsage::KEYBOARD_MOUSE_BINDING : 0 );
if (helpType)
{
arguments.getApplicationUsage()->write(std::cout, helpType);
return 1;
}
// report any errors if they have occured when parsing the program aguments.
if (arguments.errors())
{
arguments.writeErrorMessages(std::cout);
return 1;
}
osg::Timer_t start_tick = osg::Timer::instance()->tick();
// any option left unread are converted into errors to write out later.
arguments.reportRemainingOptionsAsUnrecognized();
// report any errors if they have occured when parsing the program aguments.
if (arguments.errors())
{
arguments.writeErrorMessages(std::cout);
}
osg::Timer_t end_tick = osg::Timer::instance()->tick();
std::cout << "Time to load = "<<osg::Timer::instance()->delta_s(start_tick,end_tick)<<std::endl;
// optimize the scene graph, remove rendundent nodes and state etc.
osgUtil::Optimizer optimizer;
/// set background color to black
viewer.setClearColor(osg::Vec4(0.95,0.95,0.95,1.0) );
scene = new osg::Group;
osg::StateSet* rootStateSet = new osg::StateSet;
scene->setStateSet(rootStateSet);
srand((unsigned)time(0));
// pass the loaded scene graph to the viewer.
viewer.setSceneData(scene);
bone* rootBone = makeRandomBone(numLimbs,osg::Vec3(0.0,10.0,0.0),15.0f);
std::cout << "allBones.size() " << allBones.size() << std::endl;
/// duplicate the bones thing all over
for (unsigned i = 0; i < 25; i++) {
osg::PositionAttitudeTransform* randPlace = new osg::PositionAttitudeTransform;
/// just having random positions looks pretty cool
randPlace->setPosition(osg::Vec3(randomf(),randomf(),randomf() )*200.0f );
osg::Quat quat = osg::Quat(
randomf(0,M_PI), osg::Vec3(1,0,0),
randomf(0,M_PI), osg::Vec3(0,1,0),
randomf(0,M_PI), osg::Vec3(0,0,1)
);
randPlace->setAttitude(quat);
randPlace->addChild(rootBone->root);
scene->addChild(randPlace);
}
#ifdef VECS2
for (unsigned i = 0; i < allBones.size(); i++) {
scene->addChild(allBones[i]->objposScene);
}
#endif
if (1) {
osg::StateSet* ss = scene->getOrCreateStateSet();
osg::Program* BlockyProgram = new osg::Program;
BlockyProgram->setName( "blocky" );
osg::Shader* BlockyVertObj = new osg::Shader( osg::Shader::VERTEX );
osg::Shader* BlockyFragObj = new osg::Shader( osg::Shader::FRAGMENT );
BlockyProgram->addShader( BlockyFragObj );
BlockyProgram->addShader( BlockyVertObj );
ss->setAttributeAndModes(BlockyProgram, osg::StateAttribute::ON);
BlockyVertObj->loadShaderSourceFromFile("shaders/blocky.vert");
BlockyFragObj->loadShaderSourceFromFile("shaders/blocky.frag");
//for unsigned i = 0
//viewer.getSceneHandlerList()[0]->getSceneView()->setActiveUniforms(osgUtil::SceneView::VIEW_MATRIX_INVERSE_UNIFORM);
}
// create the windows and run the threads.
viewer.realize();
int i = 0;
float preIncr = 0.0;
while( !viewer.done())
{
// wait for all cull and draw threads to complete.
viewer.sync();
// update the scene by traversing it with the the update visitor which will
// call all node update callbacks and animations.
viewer.update();
// fire off the cull and draw traversals of the scene.
viewer.frame();
usleep(500);
preIncr += 0.005;
updateBones(preIncr);
if (1) {
std::stringstream imageName;
imageName << "images/image_" << i << ".jpg";
screenCapture(&viewer, imageName.str());
i++;
}
}
// wait for all cull and draw threads to complete before exit.
viewer.sync();
// run a clean up frame to delete all OpenGL objects.
viewer.cleanup_frame();
// wait for all the clean up frame to complete.
viewer.sync();
return 0;
}
