void DirectionSprite::readSpriteFile(const char* sprite_nfo)
{
VarFile vf = VarFile(sprite_nfo);
vf.read();
//up# : starting with 0;
//down# : starting with 0;
//left# : starting with 0;
//right# : starting with 0;
parseDirection("up", SD_UP, &vf);
parseDirection("down", SD_DOWN, &vf);
parseDirection("left", SD_LEFT, &vf);
parseDirection("right", SD_RIGHT, &vf);
parseDirection("idle", SD_IDLE, &vf);
}
Constraint* parseConstraint(TiXmlElement* elem, Track* track, Node* node)
{
if(strcmp(elem->Attribute("type"), "CurrentEdge") == 0)
{
vector<Node*> nodes;
vector<Direction> dirs;
TiXmlElement* inner;
nodes.push_back(node);
dirs.push_back(parseDirection(elem->Attribute("direction")));
for(inner = elem->FirstChildElement("Element"); inner; inner = inner->NextSiblingElement("Element"))
{
string label(inner->Attribute("node"));
Direction d = parseDirection(inner->Attribute("direction"));
nodes.push_back(track->getFirstNode(label));
dirs.push_back(d);
}
return new CurrentEdge(nodes, dirs);
}
}
KILLENUM Runtime::execGo()
{
accept( Token::GO );
int dir = parseDirection();
if ( dir == DIRECTION_ERROR )
return throwError("DIRECTION ERROR");
const bool didMove = thing->execGo( dir );
if ( !didMove ) advanceIP = false;
return PROCEED;
}
KILLENUM Runtime::execThrowstar()
{
accept( Token::THROWSTAR );
int dir = parseDirection();
if ( dir == DIRECTION_ERROR )
return throwError("DIRECTION ERROR");
thing->execThrowstar( dir );
return PROCEED;
}
KILLENUM Runtime::execShoot()
{
accept( Token::SHOOT );
int dir = parseDirection();
if ( dir == DIRECTION_ERROR )
return throwError("DIRECTION ERROR");
thing->execShoot( dir );
return PROCEED;
}
KILLENUM Runtime::execTry()
{
accept( Token::TRY );
int dir = parseDirection();
if ( dir == DIRECTION_ERROR )
return throwError("DIRECTION ERROR");
const bool didMove = thing->execTry( dir );
if ( !didMove ) {
sendMessage( tokenizer.string() );
return ENDCYCLE;
}
return PROCEED;
}
byte parseCommandShift(
char *message,
byte length,
byte *position,
command_t *command,
bytecode_t *bytecode) {
byte axis;
byte direction;
byte errorCode = 0;
bytecode->executer = command->executer;
skipWhitespace(message, length, position);
errorCode = parseAxis(message, length, position, & axis);
skipWhitespace(message, length, position);
errorCode = parseDirection(message, length, position, & direction);
if (errorCode == 0) cubeShift(axis, direction);
return(errorCode);
};
int Runtime::parseDirection( const int stackLimit )
{
if ( stackLimit <= 0 ) {
return DIRECTION_ERROR;
}
switch ( tokenizer.token() )
{
case Token::IDLE:
accept( Token::IDLE );
return ZZTThing::Idle;
case Token::NORTH:
accept( Token::NORTH );
return ZZTThing::North;
case Token::SOUTH:
accept( Token::SOUTH );
return ZZTThing::South;
case Token::WEST:
accept( Token::WEST );
return ZZTThing::West;
case Token::EAST:
accept( Token::EAST );
return ZZTThing::East;
case Token::SEEK:
accept( Token::SEEK );
return thing->seekDir();
case Token::FLOW:
accept( Token::FLOW );
return thing->flowDir();
case Token::CLOCKWISE:
accept( Token::CLOCKWISE );
return cardinal_clockwise( parseDirection( stackLimit - 1 ) );
case Token::COUNTER:
accept( Token::COUNTER );
return cardinal_counterwise( parseDirection( stackLimit - 1 ) );
case Token::OPPOSITE:
accept( Token::OPPOSITE );
return cardinal_opposite( parseDirection( stackLimit - 1 ) );
case Token::RANDNS:
accept( Token::RANDNS );
return cardinal_randns();
case Token::RANDNE:
accept( Token::RANDNE );
return cardinal_randne();
case Token::RANDP:
accept( Token::RANDP );
return cardinal_randp( parseDirection( stackLimit - 1 ) );
default:
return DIRECTION_ERROR;
}
return DIRECTION_ERROR;
}
void Track::loadFromFile(const string& filename)
{
TiXmlDocument doc( filename.c_str() );
bool loadOkay = doc.LoadFile();
if(!loadOkay)
{
cerr << "Unable to open file." << endl;
return;
}
TiXmlElement* root = doc.FirstChildElement();
TiXmlElement* elem;
TiXmlElement* innerElem;
if(!root) return;
//block: Nodes
{
nodes.clear();
for(elem = root->FirstChildElement("Nodes")->FirstChildElement("Node"); elem; elem = elem->NextSiblingElement("Node"))
{
string label(elem->Attribute("label"));
NodeFlags flags = parseNodeFlags(elem->Attribute("flags"));
//if(label == "" || flags == NODE_NONE)
// continue;
nodes.push_back(new Node(label, flags));
}
}
//block: Edges
{
for(elem = root->FirstChildElement("Nodes")->FirstChildElement("Node"); elem; elem = elem->NextSiblingElement("Node"))
{
string nodeLabel(elem->Attribute("label"));
Node* node = getNodes(nodeLabel)[0];
for(innerElem = elem->FirstChildElement("Edge"); innerElem; innerElem = innerElem->NextSiblingElement("Edge"))
{
string label(innerElem->Attribute("label"));
EdgeFlags flags = parseEdgeFlags(innerElem->Attribute("flags"));
Direction dir = parseDirection(innerElem->Attribute("direction"));
string endpointLabel(innerElem->Attribute("endpoint"));
Node* otherNode = getNodes(endpointLabel)[0];
node->makeEdge(*otherNode, flags, dir, label);
}
}
}
//block: Constraints
{
for(elem = root->FirstChildElement("Nodes")->FirstChildElement("Node"); elem; elem = elem->NextSiblingElement("Node"))
{
string nodeLabel(elem->Attribute("label"));
Node* node = getFirstNode(nodeLabel);
for(innerElem = elem->FirstChildElement("Constraint"); innerElem; innerElem = innerElem->NextSiblingElement("Constraint"))
{
Constraint* c = parseConstraint(innerElem, this, node);
vector<Node*> nodes = c->getAffectedNodes();
for(size_t x = 0; x < nodes.size(); ++x)
{
nodes[x]->addConstraint(c);
}
}
}
}
}
