void affiche_transition_gagne(int transition_pos)
{
supr();
printf("\n\n\n\n\n\n\n\n");
printf(" ***********************\n");
printf(" * *\n");
printf(" * ");
// Affichage de la transition en fonction de la position du curseur
if (transition_pos == 0)
{
setColor(FOREGROUND_RED | FOREGROUND_INTENSITY); //Passe en rouge le texte
printf(" > Continuer < ");
setColor(FOREGROUND_WHITE);
}
else
printf(" Continuer ");
printf(" *\n");
printf(" * ");
if (transition_pos == 1)
{
setColor(FOREGROUND_RED | FOREGROUND_INTENSITY);
printf(" > Quitter < ");
setColor(FOREGROUND_WHITE);
}
else
printf(" Quitter ");
printf(" *\n");
printf(" * *\n");
printf(" ***********************\n\n");
}
//Metodo para procesar el algoritmo de fifo
void Queue::fifo()
{
float suma = 0.0; // Suma del tiempo total
int s = _s; // Tamaño de la cola
Node *control = start; // Asignamos control igual a inicio de la cola
Queue *respaldo = new Queue(_s);
printf("\nProcesando el algoritmo\n\n");
print(); // Imprimimos la cola inicialmente
// El ciclo correra mientras existan nodos de las colas
while(control != NULL){
Node *p = start; // Nodo a recorrer
Node *aux = NULL;
// Encontramos resultado
suma += p->time(); // Aumentamos el tiempo total
printf("\nTR%c = %.0f\n", p->id(), suma);
respaldo->orderbyid(p->id(), (int) suma, p->time()); // Respaldamos
supr(p->id()); // Eliminamos el nodo
print(); // Imprimimos la cola
// Reasignamos el valor de control
control = start;
}
printf("\nTiempo total: %i\n", (int) respaldo->suma());
printf("Tiempo promedio: %.1f\n\n", respaldo->suma() / s);
printf("*** Tabla de resultados ***\n\n");
respaldo->result();
}
// Metodo para procesar el algoritmo de prioridad
// @param quantum Tiempo promedio de los procesos
void Queue::processpriority(int quantum)
{
float suma = 0.0; // Suma del tiempo de retorno
int s = _s; // Tamaño de la cola
Node *control = start; // Asignamos control igual a inicio de la cola
Queue *respaldo = new Queue(_s);
printf("\nProcesando el algoritmo: [quantum=%i]\n\n", quantum);
print(); // Imprimimos la cola inicialmente
// El ciclo correra mientras existan nodos de las colas
while(control != NULL){
Node *p = start; // Nodo a recorrer
Node *aux = NULL;
// Verificamos si el tiempo es igual o menor al quantum
if(p->time() <= quantum){
// Encontramos resultado
suma += (float) p->time(); // Aumentamos el tiempo total
printf("\nTR%c = %.0f\n", p->id(), suma);
respaldo->orderbyid(p->id(), (int) suma, p->priority()); // Respaldamos
supr(p->id()); // Eliminamos el nodo
print(); // Imprimimos la cola
} else {
// Reordenamos la cola
printf("\n->\n|\nt.%i\n|\n->\n", quantum); // Imprimimos el quantum
suma += (float) quantum; // Aumentamos el tiempo total
p->settime(p->time() - quantum); // Recalculamos el tiempo
// Verificamos que la prioridad sea diferente a 1
if(p->priority() != 1) p->setpriority(p->priority() - 1); // Recalculamos la prioridad
aux = new Node(p->id(), p->time(), p->priority()); // Respaldamos el nodo
if(supr(p->id())){ // Eliminamos el nodo
orderbypriority(aux->id(), aux->time(), aux->priority()); // Reordenamos el nodo
}
print(); // Imprimimos la cola
}
// Reasignamos el valor de control
control = start;
}
printf("\nTiempo total: %i\n", (int) respaldo->suma());
printf("Tiempo promedio: %.1f\n\n", respaldo->suma() / s);
printf("*** Tabla de resultados ***\n\n");
respaldo->result();
}
BOOL ShaderProcessor::ProcessShader(CTSTR input)
{
String curToken;
BOOL bError = FALSE;
SetCodeStart(input);
TSTR lpLastPos = lpTemp;
DWORD curInsideCount = 0;
BOOL bNewCodeLine = TRUE;
while(GetNextToken(curToken))
{
TSTR lpCurPos = lpTemp-curToken.Length();
if(curToken[0] == '{')
++curInsideCount;
else if(curToken[0] == '}')
--curInsideCount;
else if(curToken[0] == '(')
++curInsideCount;
else if(curToken[0] == ')')
--curInsideCount;
else if(!curInsideCount && bNewCodeLine) //not inside any code, so this is some sort of declaration (function/struct/var)
{
if(curToken == TEXT("struct"))
{
//try to see if this is the vertex definition structure
bool bFoundDefinitionStruct = false;
HandMeAToken(curToken);
ExpectTokenIgnore(TEXT("{"));
curInsideCount = 1;
do
{
HandMeAToken(curToken);
if(curToken.Length() <= 6 && scmpi_n(curToken, TEXT("float"), 5) == 0)
{
String strType = curToken;
String strName;
HandMeAToken(strName);
HandMeAToken(curToken);
if(curToken[0] != ':') //cancel if not a vertex definition structure
{
bFoundDefinitionStruct = false;
break;
}
String strSemantic;
HandMeAToken(strSemantic);
SemanticInfo semanticInfo;
if(!GetSemanticInfo(strSemantic, semanticInfo))
{
bFoundDefinitionStruct = false;
break;
}
D3D10_INPUT_ELEMENT_DESC inputElement;
inputElement.SemanticName = semanticInfo.lpName;
inputElement.SemanticIndex = semanticInfo.index;
inputElement.InputSlot = 0;
inputElement.AlignedByteOffset = 0;
inputElement.InputSlotClass = D3D10_INPUT_PER_VERTEX_DATA;
inputElement.InstanceDataStepRate = 0;
if(strSemantic.CompareI(TEXT("color")))
inputElement.Format = DXGI_FORMAT_R8G8B8A8_UNORM;
else
{
switch(strType[5])
{
case 0: inputElement.Format = DXGI_FORMAT_R32_FLOAT; break;
case '2': inputElement.Format = DXGI_FORMAT_R32G32_FLOAT; break;
case '3': inputElement.Format = DXGI_FORMAT_R32G32B32A32_FLOAT; break; //todo: check this some time
case '4': inputElement.Format = DXGI_FORMAT_R32G32B32A32_FLOAT; break;
}
}
ExpectToken(TEXT(";"), TEXT(";"));
PeekAtAToken(curToken);
generatedLayout << inputElement;
bFoundDefinitionStruct = true;
}
else
{
bFoundDefinitionStruct = false;
break; //vertex definition structures should really only ever have float values
}
} while (curToken[0] != '}');
//set up the slots so they match up with vertex buffers
if(bFoundDefinitionStruct)
{
UINT curSlot = 0;
for(UINT i=0; i<generatedLayout.Num(); i++)
{
if(stricmp(generatedLayout[i].SemanticName, "SV_Position") == 0)
{
generatedLayout[i].InputSlot = curSlot++;
break;
}
}
for(UINT i=0; i<generatedLayout.Num(); i++)
{
if(stricmp(generatedLayout[i].SemanticName, "NORMAL") == 0)
{
generatedLayout[i].InputSlot = curSlot++;
bHasNormals = true;
break;
}
}
for(UINT i=0; i<generatedLayout.Num(); i++)
{
if(stricmp(generatedLayout[i].SemanticName, "COLOR") == 0)
{
generatedLayout[i].InputSlot = curSlot++;
bHasColors = true;
break;
}
}
for(UINT i=0; i<generatedLayout.Num(); i++)
{
if(stricmp(generatedLayout[i].SemanticName, "TANGENT") == 0)
{
generatedLayout[i].InputSlot = curSlot++;
bHasTangents = true;
break;
}
}
bool bFoundTexCoord;
do
{
bFoundTexCoord = false;
for(UINT i=0; i<generatedLayout.Num(); i++)
{
if(generatedLayout[i].SemanticIndex == numTextureCoords && stricmp(generatedLayout[i].SemanticName, "TEXCOORD") == 0)
{
generatedLayout[i].InputSlot = curSlot++;
numTextureCoords++;
bFoundTexCoord = true;
break;
}
}
} while(bFoundTexCoord);
}
}
else if( (curToken != TEXT("const")) &&
(curToken != TEXT("void")) &&
(curToken != TEXT(";")) )
{
TSTR lpSavedPos = lpTemp;
String savedToken = curToken;
if(curToken == TEXT("uniform"))
HandMeAToken(curToken);
String strType = curToken;
String strName;
HandMeAToken(strName);
PeekAtAToken(curToken);
if(curToken[0] != '(') //verified variable
{
if(strType.CompareI(TEXT("samplerstate")))
{
ShaderSampler &curSampler = *Samplers.CreateNew();
curSampler.name = strName;
SamplerInfo info;
ExpectToken(TEXT("{"), TEXT(";"));
PeekAtAToken(curToken);
while(curToken != TEXT("}"))
{
String strState;
HandMeAToken(strState);
ExpectToken(TEXT("="), TEXT(";"));
String strValue;
HandMeAToken(strValue);
if(!AddState(info, strState, strValue))
EscapeLikeTheWind(TEXT(";"));
ExpectToken(TEXT(";"), TEXT(";"));
PeekAtAToken(curToken);
}
curSampler.sampler = CreateSamplerState(info);
ExpectToken(TEXT("}"), TEXT("}"));
ExpectTokenIgnore(TEXT(";"));
//----------------------------------------
lpLastPos = lpTemp;
continue;
}
else
{
ShaderParam *param = Params.CreateNew();
param->name = strName;
if(curToken[0] == '[')
{
HandMeAToken(curToken);
HandMeAToken(curToken);
param->arrayCount = tstoi(curToken);
ExpectToken(TEXT("]"), TEXT(";"));
PeekAtAToken(curToken);
}
if(scmpi_n(strType, TEXT("texture"), 7) == 0)
{
TSTR lpType = strType.Array()+7;
supr(lpType);
if (!*lpType ||
(scmp(lpType, TEXT("1D")) && scmp(lpType, TEXT("2D")) && scmp(lpType, TEXT("3D")) && scmp(lpType, TEXT("CUBE")))
)
{
bError = TRUE;
}
param->textureID = nTextures++;
param->type = Parameter_Texture;
strType = TEXT("sampler");
}
else if(scmp_n(strType, TEXT("float"), 5) == 0)
{
CTSTR lpType = strType.Array()+5;
if(*lpType == 0)
param->type = Parameter_Float;
else if(scmpi(lpType, TEXT("2")) == 0)
param->type = Parameter_Vector2;
else if(scmpi(lpType, TEXT("3")) == 0)
param->type = Parameter_Vector3;
else if(scmpi(lpType, TEXT("4")) == 0)
param->type = Parameter_Vector4;
else if(scmpi(lpType, TEXT("3x3")) == 0)
param->type = Parameter_Matrix3x3;
else if(scmpi(lpType, TEXT("4x4")) == 0)
param->type = Parameter_Matrix;
}
else if(scmp(strType, TEXT("int")) == 0)
param->type = Parameter_Int;
else if(scmp(strType, TEXT("bool")) == 0)
param->type = Parameter_Bool;
if(curToken == TEXT("="))
{
HandMeAToken(curToken);
BufferOutputSerializer sOut(param->defaultValue);
if(scmp(strType, TEXT("float")) == 0)
{
HandMeAToken(curToken);
if(!ValidFloatString(curToken))
bError = TRUE;
float fValue = (float)tstof(curToken);
sOut << fValue;
}
else if(scmp(strType, TEXT("int")) == 0)
{
HandMeAToken(curToken);
if(!ValidIntString(curToken))
bError = TRUE;
int iValue = tstoi(curToken);
sOut << iValue;
}
else if(scmp_n(strType, TEXT("float"), 5) == 0)
{
CTSTR lpFloatType = strType.Array()+5;
int floatCount = 0;
if(lpFloatType[0] == '1') floatCount = 1;
else if(lpFloatType[0] == '2') floatCount = 2;
else if(lpFloatType[0] == '3') floatCount = 3;
else if(lpFloatType[0] == '4') floatCount = 4;
else
bError = TRUE;
if(lpFloatType[1] == 'x')
{
if(lpFloatType[2] != '1')
{
if(lpFloatType[2] == '2') floatCount *= 2;
else if(lpFloatType[2] == '3') floatCount *= 3;
else if(lpFloatType[2] == '4') floatCount *= 4;
else
bError = TRUE;
}
}
if(floatCount > 1) {ExpectToken(TEXT("{"), TEXT(";"));}
int j;
for(j=0; j<floatCount; j++)
{
if(j)
{
HandMeAToken(curToken);
if(curToken[0] != ',')
{
bError = TRUE;
break;
}
}
HandMeAToken(curToken);
if(!ValidFloatString(curToken))
{
bError = TRUE;
break;
}
float fValue = (float)tstof(curToken);
sOut << fValue;
}
if(j != floatCount) //processing error occured
{
GotoToken(TEXT(";"));
continue;
}
if(floatCount > 1)
{ExpectToken(TEXT("}"), TEXT(";"));}
}
PeekAtAToken(curToken);
}
}
//--------------------------
lpLastPos = lpTemp;
bNewCodeLine = FALSE;
continue;
}
lpTemp = lpSavedPos;
curToken = savedToken;
}
}
lpLastPos = lpTemp;
bNewCodeLine = (curToken.IsValid() && ((curToken[0] == ';') || (curToken[0] == '}')));
}
return !bError;
}
