//WCFilterProducesColor
bool WCFilterProducesColor::isMatch(MTGCard * c)
{
bool bMatch = false;
if (!c || !c->data) return false;
//http://code.google.com/p/wagic/issues/detail?id=650
//Basic lands are not producing their mana through regular abilities anymore,
//but through a rule that is outside of the primitives. This block is a hack to address this
const string lands[] = { "dummy(colorless)", "forest", "island", "mountain", "swamp", "plains" };
if ((color < (int)(sizeof(lands)/sizeof(lands[0]))) && c->data->hasType(lands[color].c_str()))
return true;
//Retrieve non basic Mana abilities
string s = c->data->magicText;
size_t t = s.find("add");
while (t != string::npos)
{
s = s.substr(t + 3);
ManaCost * mc = ManaCost::parseManaCost(s);
if (mc->hasColor(color) > 0)
{
bMatch = true;
SAFE_DELETE(mc);
break;
}
SAFE_DELETE(mc);
t = s.find("add");
}
return bMatch;
}
int Spell::computeX(MTGCardInstance * card)
{
ManaCost * c = cost->Diff(card->getManaCost());
int x = c->getCost(Constants::NB_Colors);
delete c;
return x;
}
string AIHints::constraintsNotFulfilled(AIAction * action, AIHint * hint, ManaCost * potentialMana)
{
std::stringstream out;
if (!action)
{
if (hint->mCombatAttackTip.size())
{
out << "to see if this can attack[" << hint->mCombatAttackTip << "]";
return out.str();
}
if (hint->mSourceId && !findSource(hint->mSourceId))
{
out << "needcardinplay[" << hint->mSourceId << "]";
return out.str();
}
out << "needability[" << hint->mAction << "]";
return out.str();
}
MTGAbility * a = action->ability;
if (!a)
return "not supported";
MTGCardInstance * card = action->click;
if (!card)
return "not supported";
//dummy test: would the ability work if we were sure to fulfill its mana requirements?
if (!a->isReactingToClick(card, a->getCost()))
{
DebugTrace("This shouldn't happen, this AIAction doesn't seem like a good choice");
return "not supported";
}
if (!a->isReactingToClick(card, potentialMana))
{
//Not enough Mana, try to find which mana we should get in priority
ManaCost * diff = potentialMana->Diff(a->getCost());
for (int i = 0; i < Constants::NB_Colors; i++)
{
if(diff->getCost(i) < 0)
{
out << "needmana[" << Constants::MTGColorChars[i] << "]";
if (Constants::MTGColorChars[i] == 'r')
DebugTrace("Got it");
SAFE_DELETE(diff);
return out.str();
}
}
//TODO, handle more cases where the cost cannot be paid
return "not supported, can't afford cost for some reason";
}
//No problem found, we believe this is a good action to perform
return "";
}
int AIMomirPlayer::getEfficiency(OrderedAIAction * action)
{
MTGAbility * ability = action->ability;
ManaCost * cost = ability->getCost();
if (cost && !(cost->isExtraPaymentSet())) return 0; //Does not handle abilities with sacrifice yet
int efficiency = AIPlayerBaka::getEfficiency(action);
if (observer->getCurrentGamePhase() < MTG_PHASE_FIRSTMAIN) return 0;
return efficiency;
}
//return 1 if _cost can be paid with current data, 0 otherwise
int ManaCost::canAfford(ManaCost * _cost)
{
ManaCost * diff = Diff(_cost);
int positive = diff->isPositive();
delete diff;
if (positive)
{
return 1;
}
return 0;
}
int ManaCost::pay(ManaCost * _cost)
{
int result = MANA_PAID;
ManaCost * toPay = NEW ManaCost();
toPay->copy(_cost);
ManaCost * diff = Diff(toPay);
for (int i = 0; i < Constants::NB_Colors; i++)
{
cost[i] = diff->getCost(i);
}
delete diff;
delete toPay;
return result;
//TODO return 0 if can't afford the cost!
}
QString toString(const QVariant& data)
{
if (data.canConvert<ManaCost>())
{
ManaCost manaCost = qvariant_cast<ManaCost>(data);
return manaCost.getText();
}
else
if (data.canConvert<QStringList>())
{
return data.toStringList().join(" / ");
}
else
{
return data.toString();
}
}
int AIMomirPlayer::momir()
{
if (!game->hand->nb_cards) return 0; //nothing to discard :/
int result = 0;
int opponentCreatures = getCreaturesInfo(opponent(), INFO_NBCREATURES);
int myCreatures = getCreaturesInfo(this, INFO_NBCREATURES );
ManaCost * potentialMana = getPotentialMana();
int converted = potentialMana->getConvertedCost();
SAFE_DELETE(potentialMana);
int efficiency = 100;
int chance = 1 + (randomGenerator.random() % 100);
if (converted == 5 && myCreatures > opponentCreatures && game->hand->nb_cards < 4) efficiency = 5; //Strategy: skip 5 drop
if (converted == 7 && myCreatures > opponentCreatures && game->hand->nb_cards < 2) efficiency = 50; //Strategy: 7 drops have bad upkeep costs and the AI doesn't handle those right now...
if (converted > 8) converted = 8;
if (converted == 8) efficiency = 100 - (myCreatures - opponentCreatures);
if (efficiency >= chance)
{
std::vector<int16_t> _cost;
_cost.push_back(Constants::MTG_COLOR_ARTIFACT);
_cost.push_back(converted);
ManaCost * cost = NEW ManaCost(_cost);
MTGAbility * ability = getMomirAbility();
MTGCardInstance * card = game->hand->cards[0];
if (ability->isReactingToClick(card, cost))
{
payTheManaCost(cost);
AIAction * a = NEW AIAction(this, ability, card);
clickstream.push(a);
result = 1;
}
delete cost;
}
return result;
}
void StatsWrapper::updateStats(DeckDataWrapper *myDeck)
{
if (!this->needUpdate || !myDeck) return;
this->needUpdate = false;
this->cardCount = myDeck->getCount(WSrcDeck::UNFILTERED_COPIES);
this->countLands = myDeck->getCount(Constants::MTG_COLOR_LAND);
this->totalPrice = myDeck->totalPrice();
this->countManaProducers = 0;
// Mana cost
int currentCount, convertedCost;
ManaCost * currentCost;
this->totalManaCost = 0;
this->totalCreatureCost = 0;
this->totalSpellCost = 0;
MTGCard * current = NULL;
// Clearing arrays
for (int i = 0; i <= Constants::STATS_MAX_MANA_COST; i++)
{
this->countCardsPerCost[i] = 0;
this->countCreaturesPerCost[i] = 0;
this->countSpellsPerCost[i] = 0;
}
for (int i = 0; i <= Constants::NB_Colors; i++)
{
this->totalCostPerColor[i] = 0;
this->countLandsPerColor[i] = 0;
this->countBasicLandsPerColor[i] = 0;
this->countNonLandProducersPerColor[i] = 0;
}
for (int i = 0; i <= Constants::STATS_MAX_MANA_COST; i++)
{
for (int k = 0; k <= Constants::NB_Colors; k++)
{
this->countCardsPerCostAndColor[i][k] = 0;
this->countCreaturesPerCostAndColor[i][k] = 0;
this->countSpellsPerCostAndColor[i][k] = 0;
}
}
for (int ic = 0; ic < myDeck->Size(true); ic++)
{
current = myDeck->getCard(ic, true);
currentCost = current->data->getManaCost();
convertedCost = currentCost->getConvertedCost();
currentCount = myDeck->count(current);
// Add to the cards per cost counters
this->totalManaCost += convertedCost * currentCount;
if (convertedCost > Constants::STATS_MAX_MANA_COST)
{
convertedCost = Constants::STATS_MAX_MANA_COST;
}
this->countCardsPerCost[convertedCost] += currentCount;
if (current->data->isCreature())
{
this->countCreaturesPerCost[convertedCost] += currentCount;
this->totalCreatureCost += convertedCost * currentCount;
}
else if (current->data->isSpell())
{
this->countSpellsPerCost[convertedCost] += currentCount;
this->totalSpellCost += convertedCost * currentCount;
}
// Lets look for mana producing abilities
//http://code.google.com/p/wagic/issues/detail?id=650
//Basic lands are not producing their mana through regular abilities anymore,
//but through a rule that is outside of the primitives. This block is a hack to address this
const int colors[] = {Constants::MTG_COLOR_GREEN, Constants::MTG_COLOR_BLUE, Constants::MTG_COLOR_RED, Constants::MTG_COLOR_BLACK, Constants::MTG_COLOR_WHITE};
const string lands[] = { "forest", "island", "mountain", "swamp", "plains" };
for (unsigned int i = 0; i < sizeof(colors)/sizeof(colors[0]); ++i)
{
int colorId = colors[i];
string type = lands[i];
if (current->data->hasType(type.c_str()))
{
if (current->data->hasType("Basic"))
{
this->countBasicLandsPerColor[colorId] += currentCount;
}
else
{
this->countLandsPerColor[colorId] += currentCount;
}
}
}
vector<string> abilitiesVector;
string thisstring = current->data->magicText;
abilitiesVector = split(thisstring, '\n');
for (int v = 0; v < (int) abilitiesVector.size(); v++)
{
string s = abilitiesVector[v];
size_t t = s.find("add");
if (t != string::npos)
{
s = s.substr(t + 3);
ManaCost * mc = ManaCost::parseManaCost(s);
for (int j = 0; j < Constants::NB_Colors; j++)
{
if (mc->hasColor(j))
{
if (current->data->isLand())
{
if (current->data->hasType("Basic"))
{
this->countBasicLandsPerColor[j] += currentCount;
}
else
{
this->countLandsPerColor[j] += currentCount;
}
}
else
{
this->countNonLandProducersPerColor[j] += currentCount;
}
}
}
SAFE_DELETE(mc);
}
}
// Add to the per color counters
// a. regular costs
for (int j = 0; j < Constants::NB_Colors; j++)
{
this->totalCostPerColor[j] += currentCost->getCost(j) * currentCount;
if (current->data->hasColor(j))
{
// Add to the per cost and color counter
this->countCardsPerCostAndColor[convertedCost][j] += currentCount;
if (current->data->isCreature())
{
this->countCreaturesPerCostAndColor[convertedCost][j] += currentCount;
}
else if (current->data->isSpell())
{
this->countSpellsPerCostAndColor[convertedCost][j] += currentCount;
}
}
}
// b. Hybrid costs
ManaCostHybrid * hybridCost;
int i;
i = 0;
while ((hybridCost = currentCost->getHybridCost(i++)) != NULL)
{
this->totalCostPerColor[hybridCost->color1] += hybridCost->value1 * currentCount;
this->totalCostPerColor[hybridCost->color2] += hybridCost->value2 * currentCount;
}
}
this->totalColoredSymbols = 0;
for (int j = 1; j < Constants::NB_Colors; j++)
{
this->totalColoredSymbols += this->totalCostPerColor[j];
}
this->countCardsPerCost[0] -= this->countLands;
// Counts by type
this->countCreatures = countCardsByType("Creature", myDeck);
this->countInstants = countCardsByType("Instant", myDeck);
this->countEnchantments = countCardsByType("Enchantment", myDeck);
this->countSorceries = countCardsByType("Sorcery", myDeck);
this->countSpells = this->countInstants + this->countEnchantments + this->countSorceries;
//this->countArtifacts = countCardsByType("Artifact", myDeck);
// Average mana costs
this->avgManaCost = ((this->cardCount - this->countLands) <= 0) ? 0 : (float) this->totalManaCost / (this->cardCount
- this->countLands);
this->avgCreatureCost = (this->countCreatures <= 0) ? 0 : (float) this->totalCreatureCost / this->countCreatures;
this->avgSpellCost = (this->countSpells <= 0) ? 0 : (float) this->totalSpellCost / this->countSpells;
// Probabilities
// TODO: this could be optimized by reusing results
for (int i = 0; i < Constants::STATS_FOR_TURNS; i++)
{
this->noLandsProbInTurn[i] = noLuck(this->cardCount, this->countLands, 7 + i) * 100;
this->noCreaturesProbInTurn[i] = noLuck(this->cardCount, this->countCreatures, 7 + i) * 100;
}
}
ManaCost * ManaCost::parseManaCost(string s, ManaCost * _manaCost, MTGCardInstance * c)
{
ManaCost * manaCost;
GameObserver* g = c?c->getObserver():NULL;
if (_manaCost)
{
manaCost = _manaCost;
}
else
{
manaCost = NEW ManaCost();
}
manaCost->xColor = -1;
int state = 0;
size_t start = 0;
size_t end = 0;
while (!s.empty() && state != -1)
{
switch (state)
{
case 0:
start = s.find_first_of("{");
if(s.find_first_of("{") != string::npos && start > 0)
{
string value = s.substr(start -1,end);
if(value == "n{")//"restrictio n{m orbid} would read the n{m as {m} millcost
return manaCost;
}
if (start == string::npos)
{
return manaCost;
}
else
{
state = 1;
}
break;
case 1:
end = s.find_first_of("}");
if (end == string::npos)
{
state = -1;
}
else
{
string value = s.substr(start + 1, end - 1 - start);
if (value == "u")
{
manaCost->add(Constants::MTG_COLOR_BLUE, 1);
}
else if (value == "b")
{
manaCost->add(Constants::MTG_COLOR_BLACK, 1);
}
else if (value == "w")
{
manaCost->add(Constants::MTG_COLOR_WHITE, 1);
}
else if (value == "g")
{
manaCost->add(Constants::MTG_COLOR_GREEN, 1);
}
else if (value == "r")
{
manaCost->add(Constants::MTG_COLOR_RED, 1);
}
else
{
//Parse target for extraCosts
TargetChooserFactory tcf(g);
TargetChooser * tc = NULL;
size_t target_start = value.find("(");
size_t target_end = value.find(")");
if (target_start != string::npos && target_end != string::npos)
{
string target = value.substr(target_start + 1, target_end - 1 - target_start);
tc = tcf.createTargetChooser(target, c);
}
//switch on the first letter. If two costs share their first letter, add an "if" within the switch
std::transform(value.begin(), value.end(), value.begin(), ::tolower);
switch (value[0])
{
case 'x':
if(value == "x")
{
manaCost->x();
}
else
{
vector<string>colorSplit = parseBetween(value,"x:"," ",false);
if(colorSplit.size())
{
int color = -1;
const string ColorStrings[] = { Constants::kManaColorless, Constants::kManaGreen, Constants::kManaBlue, Constants::kManaRed, Constants::kManaBlack, Constants::kManaWhite };
for (unsigned int i = 0; i < sizeof(ColorStrings)/sizeof(ColorStrings[0]); ++i)
{
if (s.find(ColorStrings[i]) != string::npos)
{
color = i;
}
}
manaCost->specificX(color);
}
}
break;
case 'v':
if (value.find("value:") != string::npos) {
vector<string> splitParsedVar = parseBetween(value, "value:", " ", false);
WParsedInt* res = NEW WParsedInt(splitParsedVar[1], NULL, c);
manaCost->add(Constants::MTG_COLOR_ARTIFACT, res->getValue());
SAFE_DELETE(res);
}
break;
case 't': //Tap
if (value == "t")
{
manaCost->addExtraCost(NEW TapCost);
}
else
{
manaCost->addExtraCost(NEW TapTargetCost(tc));
}
break;
case 's':
if (value.find("s2l") != string::npos)
{ //Send To Library Cost (move from anywhere to Library)
manaCost->addExtraCost(NEW ToLibraryCost(tc));
}
else if (value.find("s2g") != string::npos)
{ //Send to Graveyard Cost (move from anywhere to Graveyard)
manaCost->addExtraCost(NEW ToGraveCost(tc));
}
else
{ //Sacrifice
manaCost->addExtraCost(NEW SacrificeCost(tc));
}
break;
case 'e':
//Exile
manaCost->addExtraCost(NEW ExileTargetCost(tc));
break;
case 'h': //bounce (move to Hand)
manaCost->addExtraCost(NEW BounceTargetCost(tc));
break;
case 'l':
if (value == "l2e")
{ //Mill to exile yourself as a cost (Library 2 Exile)
manaCost->addExtraCost(NEW MillExileCost(tc));
}
else if (value == "l")
{ //Life cost
manaCost->addExtraCost(NEW LifeCost(tc));
}
else
{ //Specific Life cost
vector<string>valSplit = parseBetween(value,"l:"," ",false);
if (valSplit.size()) {
WParsedInt* lifetopay = NEW WParsedInt(valSplit[1], NULL, c);
manaCost->addExtraCost(NEW SpecificLifeCost(tc,lifetopay->getValue()));
SAFE_DELETE(lifetopay);
}
}
break;
case 'd': //DiscardRandom cost
if (value.find("delve") != string::npos)
{
if(!tc)
tc = tcf.createTargetChooser("*|mygraveyard", c);
manaCost->addExtraCost(NEW Delve(tc));
}
else if (value == "d")
{
manaCost->addExtraCost(NEW DiscardRandomCost(tc));
}
else
{
manaCost->addExtraCost(NEW DiscardCost(tc));
}
break;
case 'm': //Mill yourself as a cost
manaCost->addExtraCost(NEW MillCost(tc));
break;
case 'n': //return unblocked attacker cost
{
TargetChooserFactory tcf(g);
tc = tcf.createTargetChooser("creature|myBattlefield", c);
manaCost->addExtraCost(NEW Ninja(tc));
break;
}
case 'k': //kill offering
{
TargetChooserFactory tcf(g);
if (value == "kgoblin")
{
tc = tcf.createTargetChooser("creature[goblin]|myBattlefield", c);
}
else if (value == "kfox")
{
tc = tcf.createTargetChooser("creature[fox]|myBattlefield", c);
}
else if (value == "kmoonfolk")
{
tc = tcf.createTargetChooser("creature[moonfolk]|myBattlefield", c);
}
else if (value == "krat")
{
tc = tcf.createTargetChooser("creature[rat]|myBattlefield", c);
}
else if (value == "ksnake")
{
tc = tcf.createTargetChooser("creature[snake]|myBattlefield", c);
}
//TODO iterate subtypes of creatures
manaCost->addExtraCost(NEW Offering(tc));
break;
}
case 'p' :
{
SAFE_DELETE(tc);
size_t start = value.find("(");
size_t end = value.rfind(")");
string manaType = value.substr(start + 1, end - start - 1);
manaCost->addExtraCost(NEW LifeorManaCost(NULL,manaType));
break;
}
case 'i' :
{
SAFE_DELETE(tc);
manaCost->add(0,1);
manaCost->addExtraCost(NEW SnowCost);
break;
}
case 'q':
if(value == "q")
{
manaCost->addExtraCost(NEW UnTapCost);
}
else
{
manaCost->addExtraCost(NEW UnTapTargetCost(tc));
}
break;
case 'c': //Counters or cycle
{
if (value.find("convoke") != string::npos)
{
if (!tc)
tc = tcf.createTargetChooser("creature|mybattlefield", c);
manaCost->addExtraCost(NEW Convoke(tc));
}
else if(value == "chosencolor")
{
if(c)
manaCost->add(c->chooseacolor, 1);
}
else if(value == "cycle")
{
manaCost->addExtraCost(NEW CycleCost(tc));
}
else if(value.find("(") != string::npos)
{
size_t counter_start = value.find("(");
size_t counter_end = value.find(")", counter_start);
AbilityFactory abf(g);
string counterString = value.substr(counter_start + 1, counter_end - counter_start - 1);
Counter * counter = abf.parseCounter(counterString, c);
size_t separator = value.find(",", counter_start);
size_t separator2 = string::npos;
if (separator != string::npos)
{
separator2 = value.find(",", counter_end + 1);
}
SAFE_DELETE(tc);
size_t target_start = string::npos;
if (separator2 != string::npos)
{
target_start = value.find(",", counter_end + 1);
}
size_t target_end = value.length();
if (target_start != string::npos && target_end != string::npos)
{
string target = value.substr(target_start + 1, target_end - 1 - target_start);
tc = tcf.createTargetChooser(target, c);
}
manaCost->addExtraCost(NEW CounterCost(counter, tc));
break;
}
else if(value == "c")
{
manaCost->add(Constants::MTG_COLOR_WASTE, 1);
break;
}
break;
}
default: //uncolored cost and hybrid costs and special cost
{
if(value == "unattach")
{
manaCost->addExtraCost(NEW UnattachCost(c));
break;
}
int intvalue = atoi(value.c_str());
int colors[2];
int values[2];
if (intvalue < 10 && value.size() > 1)
{
for (int i = 0; i < 2; i++)
{
char c = value[i];
if (c >= '0' && c <= '9')
{
colors[i] = Constants::MTG_COLOR_ARTIFACT;
values[i] = c - '0';
}
else
{
for (int j = 0; j < Constants::NB_Colors; j++)
{
if (c == Constants::MTGColorChars[j])
{
colors[i] = j;
values[i] = 1;
}
}
}
}
if (values[0] > 0 || values[1] > 0)
manaCost->addHybrid(colors[0], values[0], colors[1], values[1]);
}
else
{
manaCost->add(Constants::MTG_COLOR_ARTIFACT, intvalue);
}
break;
}
}
}
s = s.substr(end + 1);
state = 0;
}
break;
default:
break;
}
}
return manaCost;
}
//WCFilterCMC
bool WCFilterCMC::isMatch(MTGCard * c)
{
if (!c || !c->data) return false;
ManaCost * mc = c->data->getManaCost();
return (mc->getConvertedCost() == number);
}
int AIMomirPlayer::computeActions()
{
//Part of the strategy goes here. When should we put a land into play ?
/*
Another gift from Alex Majlaton on my first day playing Momir, and it has served me well ever since. It goes a little something like this: (a) if you are on the play, hit your Two through Four, skip your Five, and then hit all the way to Eight; (b) if you are on the draw and your opponent skips his One, you make Two through Eight; (c) if you are on the draw and your opponent hits a One, you match him drop-for-drop for the rest of the game.
You skip your Five on the play because it is the weakest drop. There are plenty of serviceable guys there, but very few bombs compared to other drops
the general rule is this: if you want to get to Eight, you have to skip two drops on the play and one drop on the draw.
*/
Player * p = observer->currentPlayer;
if (!(observer->currentlyActing() == this)) return 0;
if (chooseTarget()) return 1;
int currentGamePhase = observer->getCurrentGamePhase();
if (observer->isInterrupting == this)
{ // interrupting
selectAbility();
return 1;
}
else if (p == this && observer->mLayers->stackLayer()->count(0, NOT_RESOLVED) == 0)
{ //standard actions
CardDescriptor cd;
MTGCardInstance * card = NULL;
switch (currentGamePhase)
{
case MTG_PHASE_FIRSTMAIN:
{
ManaCost * potentialMana = getPotentialMana();
int converted = potentialMana->getConvertedCost();
SAFE_DELETE(potentialMana);
if (converted < 8 || game->hand->nb_cards > 1)
{
//Attempt to put land into play
cd.init();
cd.setColor(Constants::MTG_COLOR_LAND);
card = cd.match(game->hand);
int canPutLandsIntoPlay = game->playRestrictions->canPutIntoZone(card, game->inPlay);
if (card && (canPutLandsIntoPlay == PlayRestriction::CAN_PLAY))
{
MTGAbility * putIntoPlay = observer->mLayers->actionLayer()->getAbility(MTGAbility::PUT_INTO_PLAY);
AIAction * a = NEW AIAction(this, putIntoPlay, card); //TODO putinplay action
clickstream.push(a);
return 1;
}
}
momir();
return 1;
break;
}
case MTG_PHASE_SECONDMAIN:
selectAbility();
return 1;
break;
default:
return AIPlayerBaka::computeActions();
break;
}
}
return AIPlayerBaka::computeActions();
}
//if it's not part of a combo or there is more to gather, then return false
bool AIHints::canWeCombo(GameObserver* observer,MTGCardInstance * card,AIPlayerBaka * Ai)
{
TargetChooserFactory tfc(observer);
TargetChooser * hintTc = NULL;
bool gotCombo = false;
int comboPartsHold = 0;
int comboPartsUntil = 0;
int comboPartsRestriction = 0;
for(unsigned int i = 0; i < hints.size();i++)
{
comboPartsHold = 0;
comboPartsUntil = 0;
comboPartsRestriction = 0;
if(gotCombo)
return gotCombo;//because more then one might be possible at any time.
if (hints[i]->hold.size())
{
for(unsigned int hPart = 0; hPart < hints[i]->hold.size(); hPart++)
{
hintTc = tfc.createTargetChooser(hints[i]->hold[hPart],card);
int TcCheck = hintTc->countValidTargets();
if(hintTc && TcCheck >= hintTc->maxtargets)
{
comboPartsHold +=1;
}
SAFE_DELETE(hintTc);
}
}
if (hints[i]->until.size())
{
for(unsigned int hPart = 0; hPart < hints[i]->until.size(); hPart++)
{
hintTc = tfc.createTargetChooser(hints[i]->until[hPart],card);
int TcCheck = hintTc->countValidTargets();
if(hintTc && TcCheck >= hintTc->maxtargets)
{
comboPartsUntil +=1;
}
SAFE_DELETE(hintTc);
}
}
if (hints[i]->restrict.size())
{
for(unsigned int hPart = 0; hPart < hints[i]->restrict.size(); hPart++)
{
AbilityFactory af(observer);
int checkCond = af.parseCastRestrictions(card,card->controller(),hints[i]->restrict[hPart]);
if(checkCond >= 1)
{
comboPartsRestriction +=1;
}
}
}
if( comboPartsUntil >= int(hints[i]->until.size()) && comboPartsHold >= int(hints[i]->hold.size()) && comboPartsRestriction >= int(hints[i]->restrict.size()) && hints[i]->combos.size() )
{
ManaCost * needed = ManaCost::parseManaCost(hints[i]->manaNeeded, NULL, card);
if(Ai->canPayManaCost(card,needed).size()||!needed->getConvertedCost())
{
gotCombo = true;
Ai->comboHint = hints[i];//set the combo we are doing.
}
SAFE_DELETE(needed);
}
}
return gotCombo;
}