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ThemeManager.cpp
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ThemeManager.cpp
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/****************************************************************************
** Copyright (C) 2011 Luka Horvat <redreaper132 at gmail.com>
** Copyright (C) 2011 Edward Lii <edward_iii at myway.com>
** Copyright (C) 2011 O. Bahri Gordebak <gordebak at gmail.com>
**
**
** This file may be used under the terms of the GNU General Public
** License version 3.0 as published by the Free Software Foundation
** and appearing in the file LICENSE.GPL included in the packaging of
** this file.
**
** This file is provided AS IS with NO WARRANTY OF ANY KIND, INCLUDING THE
** WARRANTY OF DESIGN, MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE.
**
** You should have received a copy of the GNU General Public License
** along with this program. If not, see <http://www.gnu.org/licenses/>.
**
****************************************************************************/
#include "ThemeManager.h"
#include "POASerializer.h"
#include "Functions.h"
#include "FileManager.h"
#include "Game.h"
#include <SDL/SDL_rotozoom.h>
#include <string.h>
#include <iostream>
using namespace std;
//The ThemeStack that is be used by the GameState.
ThemeStack objThemes;
bool ThemeManager::loadFile(const string& fileName){
POASerializer objSerializer;
TreeStorageNode objNode;
//First we destroy the current ThemeManager.
destroy();
//Now we try to load the file, if it fails we return false.
if(!objSerializer.loadNodeFromFile(fileName.c_str(),&objNode,true)){
cerr<<"ERROR: Unable to open theme file: "<<fileName<<endl;
return false;
}
//Set the themePath.
themePath=pathFromFileName(fileName);
//Retrieve the name of the theme from the file.
{
vector<string> &v=objNode.attributes["name"];
if(!v.empty()) themeName=v[0];
}
//Loop the subnodes of the theme.
for(unsigned int i=0;i<objNode.subNodes.size();i++){
TreeStorageNode *obj=objNode.subNodes[i];
//Check if it's a block or a background.
if(obj->name=="block" && !obj->value.empty()){
map<string,int>::iterator it=Game::blockNameMap.find(obj->value[0]);
if(it!=Game::blockNameMap.end()){
int idx=it->second;
if(!objBlocks[idx]) objBlocks[idx]=new ThemeBlock;
if(!objBlocks[idx]->loadFromNode(obj,themePath)){
cerr<<"ERROR: Unable to load "<<Game::blockName[idx]<<" for theme "<<fileName<<endl;
delete objBlocks[idx];
objBlocks[idx]=NULL;
return false;
}
}
}else if(obj->name=="background" && !obj->value.empty()){
if(!objBackground) objBackground=new ThemeBackground();
if(!objBackground->addPictureFromNode(obj,themePath)){
cerr<<"ERROR: Unable to load background for theme "<<fileName<<endl;
delete objBackground;
objBackground=NULL;
return false;
}
}else if(obj->name=="character" && !obj->value.empty()){
if(obj->value[0]=="Shadow"){
if(!shadow) shadow=new ThemeCharacter();
if(!shadow->loadFromNode(obj,themePath)){
cerr<<"ERROR: Unable to load shadow for theme "<<fileName<<endl;
delete shadow;
shadow=NULL;
return false;
}
}else if(obj->value[0]=="Player"){
if(!player) player=new ThemeCharacter();
if(!player->loadFromNode(obj,themePath)){
cerr<<"ERROR: Unable to load player for theme "<<fileName<<endl;
delete player;
player=NULL;
return false;
}
}
}
}
//Done and nothing went wrong so return true.
return true;
}
bool ThemeBlock::loadFromNode(TreeStorageNode* objNode, string themePath){
destroy();
//Loop the subNodes.
for(unsigned int i=0;i<objNode->subNodes.size();i++){
TreeStorageNode *obj=objNode->subNodes[i];
//Check if the subnode is an editorPicture or a blockState.
if(obj->name=="editorPicture"){
if(!editorPicture.loadFromNode(obj,themePath)) return false;
}else if(obj->name=="blockState" && !obj->value.empty()){
string& s=obj->value[0];
map<string,ThemeBlockState*>::iterator it=blockStates.find(s);
if(it==blockStates.end()) blockStates[s]=new ThemeBlockState;
if(!blockStates[s]->loadFromNode(obj,themePath)) return false;
}
}
//Done and nothing went wrong so return true.
return true;
}
bool ThemeBlockState::loadFromNode(TreeStorageNode* objNode, string themePath){
destroy();
//Retrieve the oneTimeAnimation attribute.
{
vector<string> &v=objNode->attributes["oneTimeAnimation"];
//Check if there are enough values for the oneTimeAnimation attribute.
if(v.size()>=2 && !v[0].empty()){
oneTimeAnimationLength=atoi(v[0].c_str());
nextState=v[1];
}
}
//Loop the subNodes.
for(unsigned int i=0;i<objNode->subNodes.size();i++){
TreeStorageNode *obj=objNode->subNodes[i];
if(obj->name=="object"){
ThemeObject *obj1=new ThemeObject();
if(!obj1->loadFromNode(obj,themePath)){
delete obj1;
return false;
}
themeObjects.push_back(obj1);
}
}
//Done and nothing went wrong so return true.
return true;
}
bool ThemeCharacter::loadFromNode(TreeStorageNode* objNode,string themePath){
destroy();
//Loop the subNodes.
for(unsigned int i=0;i<objNode->subNodes.size();i++){
TreeStorageNode *obj=objNode->subNodes[i];
//Check if the subnode is an characterState.
if(obj->name=="characterState" && !obj->value.empty()){
string& s=obj->value[0];
map<string,ThemeCharacterState*>::iterator it=characterStates.find(s);
if(it==characterStates.end()) characterStates[s]=new ThemeCharacterState;
if(!characterStates[s]->loadFromNode(obj,themePath)) return false;
}
}
//Done and nothing went wrong so return true.
return true;
}
bool ThemeCharacterState::loadFromNode(TreeStorageNode* objNode,string themePath){
destroy();
//Retrieve the oneTimeAnimation attribute.
{
vector<string> &v=objNode->attributes["oneTimeAnimation"];
//Check if there are enough values for the oneTimeAnimation attribute.
if(v.size()>=2 && !v[0].empty()){
oneTimeAnimationLength=atoi(v[0].c_str());
nextState=v[1];
}
}
//Loop the subNodes.
for(unsigned int i=0;i<objNode->subNodes.size();i++){
TreeStorageNode *obj=objNode->subNodes[i];
if(obj->name=="object"){
ThemeObject *obj1=new ThemeObject();
if(!obj1->loadFromNode(obj,themePath)){
delete obj1;
return false;
}
themeObjects.push_back(obj1);
}
}
//Done and nothing went wrong so return true.
return true;
}
bool ThemeObject::loadFromNode(TreeStorageNode* objNode,string themePath){
destroy();
//Retrieve the animation attribute.
{
vector<string> &v=objNode->attributes["animation"];
if(v.size()>=2){
animationLength=atoi(v[0].c_str());
animationLoopPoint=atoi(v[1].c_str());
}
}
//Retrieve the oneTimeAnimation attribute.
{
vector<string> &v=objNode->attributes["oneTimeAnimation"];
if(v.size()>=2){
animationLength=atoi(v[0].c_str());
animationLoopPoint=atoi(v[1].c_str())|0x80000000;
}
}
//Retrieve the invisibleAtRunTime attribute.
{
vector<string> &v=objNode->attributes["invisibleAtRunTime"];
if(!v.empty() && !v[0].empty()){
invisibleAtRunTime=atoi(v[0].c_str())?true:false;
}
}
//Retrieve the invisibleAtDesignTime attribute.
{
vector<string> &v=objNode->attributes["invisibleAtDesignTime"];
if(!v.empty() && !v[0].empty()){
invisibleAtDesignTime=atoi(v[0].c_str())?true:false;
}
}
//Loop the subnodes.
for(unsigned int i=0;i<objNode->subNodes.size();i++){
TreeStorageNode *obj=objNode->subNodes[i];
if(obj->name=="picture" || obj->name=="pictureAnimation"){
if(!picture.loadFromNode(obj,themePath)){
return false;
}
}else if(obj->name=="editorPicture"){
if(!editorPicture.loadFromNode(obj,themePath)){
return false;
}
}else if(obj->name=="optionalPicture" && obj->value.size()>=6){
ThemePicture *objPic=new ThemePicture();
double f=atof(obj->value[5].c_str());
if(!objPic->loadFromNode(obj,themePath)){
delete objPic;
return false;
}
optionalPicture.push_back(pair<double,ThemePicture*>(f,objPic));
}else if(obj->name=="offset" || obj->name=="offsetAnimation"){
if(!offset.loadFromNode(obj)) return false;
}
}
//Done and nothing went wrong so return true.
return true;
}
bool ThemePicture::loadFromNode(TreeStorageNode* objNode,string themePath){
destroy();
//Check if the node has enough values.
if(!objNode->value.empty()){
//Load teh picture.
picture=loadImage(themePath+objNode->value[0]);
if(picture==NULL) return false;
//Check if it's an animation.
if(objNode->name=="pictureAnimation"){
if(!offset.loadFromNode(objNode)) return false;
return true;
}else if(objNode->value.size()>=5){
typeOffsetPoint r={atoi(objNode->value[1].c_str()),
atoi(objNode->value[2].c_str()),
atoi(objNode->value[3].c_str()),
atoi(objNode->value[4].c_str()),0,0};
offset.offsetData.push_back(r);
offset.length=0;
return true;
}
}
//Done and nothing went wrong so return true.
return false;
}
bool ThemeOffsetData::loadFromNode(TreeStorageNode* objNode){
destroy();
//Check what kind of offset it is.
if(objNode->name=="pictureAnimation"){
for(unsigned int i=0;i<objNode->subNodes.size();i++){
TreeStorageNode* obj=objNode->subNodes[i];
if(obj->name=="point" && obj->value.size()>=4){
typeOffsetPoint r={atoi(obj->value[0].c_str()),
atoi(obj->value[1].c_str()),
atoi(obj->value[2].c_str()),
atoi(obj->value[3].c_str()),1,1};
if(obj->value.size()>=5) r.frameCount=atoi(obj->value[4].c_str());
if(obj->value.size()>=6) r.frameDisplayTime=atoi(obj->value[5].c_str());
offsetData.push_back(r);
length+=r.frameCount*r.frameDisplayTime;
}
}
return true;
}else if(objNode->name=="offsetAnimation"){
for(unsigned int i=0;i<objNode->subNodes.size();i++){
TreeStorageNode* obj=objNode->subNodes[i];
if(obj->name=="point" && obj->value.size()>=2){
typeOffsetPoint r={atoi(obj->value[0].c_str()),
atoi(obj->value[1].c_str()),0,0,1,1};
if(obj->value.size()>=3) r.frameCount=atoi(obj->value[2].c_str());
if(obj->value.size()>=4) r.frameDisplayTime=atoi(obj->value[3].c_str());
offsetData.push_back(r);
length+=r.frameCount*r.frameDisplayTime;
}
}
return true;
}else if(objNode->name=="offset" && objNode->value.size()>=2){
typeOffsetPoint r={atoi(objNode->value[0].c_str()),
atoi(objNode->value[1].c_str()),0,0,0,0};
offsetData.push_back(r);
length=0;
return true;
}
//Done and nothing went wrong so return true.
return false;
}
void ThemeObjectInstance::draw(SDL_Surface *dest,int x,int y,SDL_Rect *clipRect){
//Get the picture.
SDL_Surface *src=picture->picture;
if(src==NULL) return;
int ex=0,ey=0,xx=0,yy=0,ww=0,hh=0;
int animationNew=animation&0x7FFFFFFF;
{
vector<typeOffsetPoint> &v=picture->offset.offsetData;
if(picture->offset.length==0 || animationNew<v[0].frameDisplayTime){
xx=v[0].x;
yy=v[0].y;
ww=v[0].w;
hh=v[0].h;
}else if(animationNew>=picture->offset.length){
int i=v.size()-1;
xx=v[i].x;
yy=v[i].y;
ww=v[i].w;
hh=v[i].h;
}else{
int t=animationNew-v[0].frameDisplayTime;
for(unsigned int i=1;i<v.size();i++){
int tt=t/v[i].frameDisplayTime;
if(tt>=0 && tt<v[i].frameCount){
xx=(int)((float)v[i-1].x+(float)(v[i].x-v[i-1].x)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
yy=(int)((float)v[i-1].y+(float)(v[i].y-v[i-1].y)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
ww=(int)((float)v[i-1].w+(float)(v[i].w-v[i-1].w)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
hh=(int)((float)v[i-1].h+(float)(v[i].h-v[i-1].h)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
break;
}else{
t-=v[i].frameCount*v[i].frameDisplayTime;
}
}
}
}
//Get the offset.
{
vector<typeOffsetPoint> &v=parent->offset.offsetData;
if(v.empty()){
ex=0;
ey=0;
}else if(parent->offset.length==0 || animationNew<v[0].frameDisplayTime){
ex=v[0].x;
ey=v[0].y;
}else if(animationNew>=parent->offset.length){
int i=v.size()-1;
ex=v[i].x;
ey=v[i].y;
}else{
int t=animationNew-v[0].frameDisplayTime;
for(unsigned int i=1;i<v.size();i++){
int tt=t/v[i].frameDisplayTime;
if(tt>=0 && tt<v[i].frameCount){
ex=(int)((float)v[i-1].x+(float)(v[i].x-v[i-1].x)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
ey=(int)((float)v[i-1].y+(float)(v[i].y-v[i-1].y)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
break;
}else{
t-=v[i].frameCount*v[i].frameDisplayTime;
}
}
}
}
//And finally draw the ThemeObjectInstance.
if(clipRect){
int d;
d=clipRect->x-ex;
if(d>0){
ex+=d;
xx+=d;
ww-=d;
}
d=clipRect->y-ey;
if(d>0){
ey+=d;
yy+=d;
hh-=d;
}
if(ww>clipRect->w) ww=clipRect->w;
if(hh>clipRect->h) hh=clipRect->h;
}
if(ww>0&&hh>0){
SDL_Rect r1={xx,yy,ww,hh};
SDL_Rect r2={x+ex,y+ey,0,0};
SDL_BlitSurface(src,&r1,dest,&r2);
}
}
void ThemeObjectInstance::updateAnimation(){
//First get the animation length.
int m;
m=parent->animationLength;
//If it's higher than 0 then we have an animation.
if(m>0 && animation>=0){
//Increase the animation frame.
animation++;
//Check if the animation is beyond the length, if so set it to the looppoint.
if(animation>=m)
animation=parent->animationLoopPoint;
}
}
void ThemeBlockInstance::updateAnimation(){
//Make sure the currentState isn't null.
if(currentState!=NULL){
//Call the updateAnimation method of the currentState.
currentState->updateAnimation();
//Get the length of the animation.
int m=currentState->parent->oneTimeAnimationLength;
//If it's higher than 0 then we have an animation.
//Also check if it's past the lenght, meaning done.
if(m>0 && currentState->animation>=m){
//Now we can change the state to the nextState.
changeState(currentState->parent->nextState);
}
}
}
void ThemeCharacterInstance::updateAnimation(){
//Make sure the currentState isn't null.
if(currentState!=NULL){
//Call the updateAnimation method of the currentState.
currentState->updateAnimation();
//Get the length of the animation.
int m=currentState->parent->oneTimeAnimationLength;
//If it's higher than 0 then we have an animation.
//Also check if it's past the lenght, meaning done.
if(m>0 && currentState->animation>=m){
//Now we can change the state to the nextState.
changeState(currentState->parent->nextState);
}
}
}
void ThemeBlock::createInstance(ThemeBlockInstance* obj){
//Make sure the given ThemeBlockInstance is ready.
obj->blockStates.clear();
obj->currentState=NULL;
//Loop through the blockstates.
for(map<string,ThemeBlockState*>::iterator it=blockStates.begin();it!=blockStates.end();++it){
//Get the themeBlockStateInstance of the given ThemeBlockInstance.
ThemeBlockStateInstance &obj1=obj->blockStates[it->first];
//Set the parent of the state instance.
obj1.parent=it->second;
//Get the vector with themeObjects.
vector<ThemeObject*> &v=it->second->themeObjects;
//Loop through them.
for(unsigned int i=0;i<v.size();i++){
//Create an instance for every one.
ThemeObjectInstance p;
//Set the parent.
p.parent=v[i];
//Choose the picture.
if(stateID==STATE_LEVEL_EDITOR){
if(p.parent->invisibleAtDesignTime)
continue;
if(p.parent->editorPicture.picture!=NULL)
p.picture=&p.parent->editorPicture;
}else{
if(p.parent->invisibleAtRunTime)
continue;
}
//Get the number of optional Pictures.
int m=p.parent->optionalPicture.size();
//If p.picture is null, not an editor picture, and there are optional pictures then give one random.
if(p.picture==NULL && m>0){
double f=0.0,f1=1.0/256.0;
for(int j=0;j<8;j++){
f+=f1*(double)(rand()&0xff);
f1*=(1.0/256.0);
}
for(int j=0;j<m;j++){
f-=p.parent->optionalPicture[j].first;
if(f<0.0){
p.picture=p.parent->optionalPicture[j].second;
break;
}
}
}
//If random turned out to give nothing then give the non optional picture.
if(p.picture==NULL && p.parent->picture.picture!=NULL)
p.picture=&p.parent->picture;
//If the picture isn't null then can we give it to the ThemeBlockStateInstance.
if(p.picture!=NULL)
obj1.objects.push_back(p);
}
}
//Change the state to the default one.
//FIXME: Is that needed?
obj->changeState("default");
}
void ThemeCharacter::createInstance(ThemeCharacterInstance* obj){
//Make sure the given ThemeCharacterInstance is ready.
obj->characterStates.clear();
obj->currentState=NULL;
//Loop through the characterstates.
for(map<string,ThemeCharacterState*>::iterator it=characterStates.begin();it!=characterStates.end();++it){
//Get the themeCharacterStateInstance of the given ThemeCharacterInstance.
ThemeCharacterStateInstance &obj1=obj->characterStates[it->first];
//Set the parent of the state instance.
obj1.parent=it->second;
//Get the vector with themeObjects.
vector<ThemeObject*> &v=it->second->themeObjects;
//Loop through them.
for(unsigned int i=0;i<v.size();i++){
//Create an instance for every one.
ThemeObjectInstance p;
//Set the parent.
p.parent=v[i];
//Make sure it isn't invisible at runtime.
if(p.parent->invisibleAtRunTime)
continue;
//Get the number of optional Pictures.
int m=p.parent->optionalPicture.size();
//If p.picture is null, not an editor picture, and there are optional pictures then give one random.
if(p.picture==NULL && m>0){
double f=0.0,f1=1.0/256.0;
for(int j=0;j<8;j++){
f+=f1*(double)(rand()&0xff);
f1*=(1.0/256.0);
}
for(int j=0;j<m;j++){
f-=p.parent->optionalPicture[j].first;
if(f<0.0){
p.picture=p.parent->optionalPicture[j].second;
break;
}
}
}
//If random turned out to give nothing then give the non optional picture.
if(p.picture==NULL && p.parent->picture.picture!=NULL)
p.picture=&p.parent->picture;
//If the picture isn't null then can we give it to the ThemeCharacterStateInstance.
if(p.picture!=NULL)
obj1.objects.push_back(p);
}
}
//Set it to the standing right state.
obj->changeState("standright");
}
void ThemePicture::draw(SDL_Surface *dest,int x,int y,int animation,SDL_Rect *clipRect){
//Get the Picture.
if(picture==NULL) return;
int ex=0,ey=0,xx,yy,ww,hh;
{
vector<typeOffsetPoint> &v=offset.offsetData;
if(offset.length==0 || animation<v[0].frameDisplayTime){
xx=v[0].x;
yy=v[0].y;
ww=v[0].w;
hh=v[0].h;
}else if(animation>=offset.length){
int i=v.size()-1;
xx=v[i].x;
yy=v[i].y;
ww=v[i].w;
hh=v[i].h;
}else{
int t=animation-v[0].frameDisplayTime;
for(unsigned int i=1;i<v.size();i++){
int tt=t/v[i].frameDisplayTime;
if(tt>=0 && tt<v[i].frameCount){
xx=(int)((float)v[i-1].x+(float)(v[i].x-v[i-1].x)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
yy=(int)((float)v[i-1].y+(float)(v[i].y-v[i-1].y)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
ww=(int)((float)v[i-1].w+(float)(v[i].w-v[i-1].w)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
hh=(int)((float)v[i-1].h+(float)(v[i].h-v[i-1].h)*(float)(tt+1)/(float)v[i].frameCount+0.5f);
break;
}else{
t-=v[i].frameCount*v[i].frameDisplayTime;
}
}
}
}
//Draw the Picture.
if(clipRect){
int d;
d=clipRect->x-ex;
if(d>0){
ex+=d;
xx+=d;
ww-=d;
}
d=clipRect->y-ey;
if(d>0){
ey+=d;
yy+=d;
hh-=d;
}
if(ww>clipRect->w) ww=clipRect->w;
if(hh>clipRect->h) hh=clipRect->h;
}
if(ww>0&&hh>0){
SDL_Rect r1={xx,yy,ww,hh};
SDL_Rect r2={x+ex,y+ey,0,0};
SDL_BlitSurface(picture,&r1,dest,&r2);
}
}
//This method will scale the background picture (if needed and configured) to the current SCREEN_WIDTH and SCREEN_HEIGHT.
void ThemeBackgroundPicture::scaleToScreen(){
//Only scale if needed.
if(scale){
//Free the surface of the scaled picture, if scaled.
if(picture!=cachedPicture)
SDL_FreeSurface(picture);
//Set src and destSize back to the initial cached value.
srcSize=cachedSrcSize;
destSize=cachedDestSize;
//Scale the image.
//Calculate the x and y factors.
double xFactor=double(SCREEN_WIDTH)/double(100);
double yFactor=double(SCREEN_HEIGHT)/double(100);
//The default scaling method is chosen (destSize in precentages).
destSize.x*=xFactor;
destSize.w*=xFactor;
destSize.y*=yFactor;
destSize.h*=yFactor;
//Now update the image.
xFactor=(double(destSize.w)/double(srcSize.w));
yFactor=(double(destSize.h)/double(srcSize.h));
if(xFactor!=1 || yFactor!=1){
picture=zoomSurface(cachedPicture,xFactor,yFactor,0);
//Also update the source size.
srcSize.x*=xFactor;
srcSize.y*=yFactor;
srcSize.w*=xFactor;
srcSize.h*=yFactor;
}else{
//We don't need to scale the image
picture=cachedPicture;
}
}
}
void ThemeBackgroundPicture::draw(SDL_Surface *dest){
//Check if the picture is visible.
if(!(picture&&srcSize.w>0&&srcSize.h>0&&destSize.w>0&&destSize.h>0))
return;
//Calculate the draw area.
int sx=(int)((float)destSize.x+currentX-cameraX*(float)camera.x+0.5f);
int sy=(int)((float)destSize.y+currentY-cameraY*(float)camera.y+0.5f);
int ex,ey;
//Include repeating.
if(repeatX){
sx%=destSize.w;
if(sx>0) sx-=destSize.w;
ex=SCREEN_WIDTH;
}else{
if(sx<=-(int)destSize.w || sx>=SCREEN_WIDTH) return;
ex=sx+1;
}
if(repeatY){
sy%=destSize.h;
if(sy>0) sy-=destSize.h;
ey=SCREEN_HEIGHT;
}else{
if(sy<=-(int)destSize.h || sy>=SCREEN_HEIGHT) return;
ey=sy+1;
}
//And finally draw the ThemeBackgroundPicture.
for(int x=sx;x<ex;x+=destSize.w){
for(int y=sy;y<ey;y+=destSize.h){
SDL_Rect r={x,y,0,0};
SDL_BlitSurface(picture,&srcSize,dest,&r);
}
}
}
bool ThemeBackgroundPicture::loadFromNode(TreeStorageNode* objNode,string themePath){
//Load the picture.
picture=loadImage(themePath+objNode->value[0]);
//Store pointer to the cached picture.
cachedPicture=picture;
if(picture==NULL) return false;
//Retrieve the source size.
{
vector<string> &v=objNode->attributes["srcSize"];
if(v.size()>=4){
srcSize.x=atoi(v[0].c_str());
srcSize.y=atoi(v[1].c_str());
srcSize.w=atoi(v[2].c_str());
srcSize.h=atoi(v[3].c_str());
}else{
srcSize.x=0;
srcSize.y=0;
srcSize.w=picture->w;
srcSize.h=picture->h;
}
//Cache the sourcesize.
cachedSrcSize=srcSize;
}
//Retrieve the destination size.
{
vector<string> &v=objNode->attributes["destSize"];
if(v.size()>=4){
destSize.x=atoi(v[0].c_str());
destSize.y=atoi(v[1].c_str());
destSize.w=atoi(v[2].c_str());
destSize.h=atoi(v[3].c_str());
}else{
destSize.x=0;
destSize.y=0;
destSize.w=100;
destSize.h=100;
}
//Cache the destsize.
cachedDestSize=destSize;
}
//Retrieve if we should scale to screen.
{
//Get scaleToScreen.
vector<string> &v=objNode->attributes["scaleToScreen"];
//Boolean if the image should be scaled, default is true.
scale=true;
if(v.size()>=1){
scale=atoi(v[0].c_str());
}
//Now scaleToScreen.
//NOTE: We don't check if scaleToScreen is true or false since that is done in scaleToScreen();
scaleToScreen();
}
//Retrieve if it should be repeated.
{
vector<string> &v=objNode->attributes["repeat"];
if(v.size()>=2){
repeatX=atoi(v[0].c_str())?true:false;
repeatY=atoi(v[1].c_str())?true:false;
}else{
repeatX=true;
repeatY=true;
}
}
//Retrieve the speed.
{
vector<string> &v=objNode->attributes["speed"];
if(v.size()>=2){
speedX=atof(v[0].c_str());
speedY=atof(v[1].c_str());
}else{
speedX=0.0f;
speedY=0.0f;
}
}
//Retrieve the camera speed.
{
vector<string> &v=objNode->attributes["cameraSpeed"];
if(v.size()>=2){
cameraX=atof(v[0].c_str());
cameraY=atof(v[1].c_str());
}else{
cameraX=0.0f;
cameraY=0.0f;
}
}
//Done and nothing went wrong so return true.
return true;
}

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