void CTableLimits::CalcBetsizesForEveryStreet()
{
write_log(3, "CTableLimits::CalcBetsizesForEveryStreet()\n");
// Use the best known values here, not tablelimit_unreliable_input
SetBet(k_betround_preflop, bblind());
SetBet(k_betround_flop, bblind());
SetBet(k_betround_turn, bigbet()>=0.01 ? bigbet() : (isnl() || ispl() ? bblind() : bblind()*2));
SetBet(k_betround_river, bigbet()>=0.01 ? bigbet() : (isnl() || ispl() ? bblind() : bblind()*2));
}
bool CSymbolEngineTableLimits::EvaluateSymbol(const char *name, double *result, bool log /* = false */) {
FAST_EXIT_ON_OPENPPL_SYMBOLS(name);
if (memcmp(name, "bet", 3)==0) {
if (memcmp(name, "bet", 3)==0 && strlen(name)==3) {
*result = bet();
return true;
} else if (memcmp(name, "bet", 3)==0 && strlen(name)==4) {
char betround = name[3];
if ((betround >= '1') && (betround <= '4')) {
*result = bet(name[3]-'0');
return true;
}
}
// Invalid symbol
return false;
}
if (memcmp(name, "bblind", 6)==0 && strlen(name)==6) {
*result = bblind();
} else if (memcmp(name, "sblind", 6)==0 && strlen(name)==6) {
*result = sblind();
} else if (memcmp(name, "ante", 4)==0 && strlen(name)==4) {
*result = ante();
} else if (memcmp(name, "buyin", 5)==0 && strlen(name)==5) {
*result = buyin();
} else {
// Symbol of a different symbol-engine
return false;
}
// Valid symbol
return true;
}
double CSymbolEngineTableLimits::bet(int betround) {
assert(betround >= k_betround_preflop);
assert(betround <= k_betround_river);
assert(p_symbol_engine_gametype != NULL);
if (p_symbol_engine_gametype->isfl() && (betround >= k_betround_turn)) {
return bigbet();
}
return bblind();
}
