static char *
ExtEvaluation(scancontext * pec)
{
ProcessedFIBSBoard processedBoard;
float arOutput[NUM_ROLLOUT_OUTPUTS];
cubeinfo ci;
int anScore[2];
char *szResponse;
float r;
evalcontext ec;
if (ProcessFIBSBoardInfo(&pec->bi, &processedBoard)) {
szResponse = g_strdup_printf("Error: badly formed board\n");
} else {
anScore[0] = processedBoard.nScoreOpp;
anScore[1] = processedBoard.nScore;
/* If the session isn't using Crawford rule, set crawford flag to false */
processedBoard.fCrawford = pec->fCrawfordRule ? processedBoard.fCrawford : FALSE;
/* Set the Jacoby flag appropriately from the external interface settings */
processedBoard.fJacoby = pec->fJacobyRule;
/* printf ("Jacoby Setting: %d\n", fJacoby); */
/* printf ("Crawford Setting: %d\n", fCrawford); */
SetCubeInfo(&ci, processedBoard.nCube, processedBoard.fCubeOwner, 1, processedBoard.nMatchTo,
anScore, processedBoard.fCrawford, processedBoard.fJacoby, nBeavers, bgvDefault);
ec.fCubeful = pec->fCubeful;
ec.nPlies = pec->nPlies;
ec.fUsePrune = pec->fUsePrune;
ec.fDeterministic = pec->fDeterministic;
ec.rNoise = pec->rNoise;
if (GeneralEvaluationE(arOutput, (ConstTanBoard) processedBoard.anBoard, &ci, &ec))
return NULL;
if (processedBoard.nMatchTo) {
if (ec.fCubeful)
r = arOutput[OUTPUT_CUBEFUL_EQUITY];
else
r = eq2mwc(arOutput[OUTPUT_EQUITY], &ci);
} else
r = ec.fCubeful ? arOutput[6] : arOutput[5];
szResponse = g_strdup_printf("%f %f %f %f %f %f\n",
arOutput[0], arOutput[1], arOutput[2], arOutput[3], arOutput[4], r);
}
return szResponse;
}
extern void EvaluateRoll(float ar[NUM_ROLLOUT_OUTPUTS], int nDie1, int nDie2, const TanBoard anBoard,
const cubeinfo * pci, const evalcontext * pec)
{
TanBoard anBoardTemp;
cubeinfo ciOpp;
memcpy(&ciOpp, pci, sizeof(cubeinfo));
ciOpp.fMove = !pci->fMove;
memcpy(&anBoardTemp[0][0], &anBoard[0][0], 2 * 25 * sizeof(int));
if (FindBestMove(NULL, nDie1, nDie2, anBoardTemp, pci, NULL, defaultFilters) < 0)
g_assert_not_reached();
SwapSides(anBoardTemp);
GeneralEvaluationE(ar, (ConstTanBoard) anBoardTemp, &ciOpp, pec);
return;
}
static void
add_level(GtkTreeStore * model, GtkTreeIter * iter,
const int n, const TanBoard anBoard,
evalcontext * pec, cubeinfo * pci, const gboolean fInvert, float arOutput[NUM_ROLLOUT_OUTPUTS])
{
int n0, n1;
GtkTreeIter child_iter;
cubeinfo ci;
TanBoard an;
float ar[NUM_ROLLOUT_OUTPUTS];
int anMove[8];
int i;
char szRoll[3], szMove[100], *szEquity;
/* cubeinfo for opponent on roll */
memcpy(&ci, pci, sizeof(cubeinfo));
ci.fMove = !pci->fMove;
for (i = 0; i < NUM_ROLLOUT_OUTPUTS; ++i)
arOutput[i] = 0.0f;
for (n0 = 0; n0 < 6; ++n0) {
for (n1 = 0; n1 <= n0; ++n1) {
memcpy(an, anBoard, sizeof(an));
if (FindBestMove(anMove, n0 + 1, n1 + 1, an, pci, pec, defaultFilters) < 0)
return;
SwapSides(an);
gtk_tree_store_append(model, &child_iter, iter);
if (n) {
add_level(model, &child_iter, n - 1, (ConstTanBoard) an, pec, &ci, !fInvert, ar);
if (fInterrupt)
return;
} else {
/* evaluate resulting position */
ProgressValueAdd(1);
if (GeneralEvaluationE(ar, (ConstTanBoard) an, &ci, pec) < 0)
return;
}
if (fInvert)
InvertEvaluationR(ar, &ci);
sprintf(szRoll, "%d%d", n0 + 1, n1 + 1);
FormatMove(szMove, anBoard, anMove);
szEquity = OutputMWC(ar[OUTPUT_CUBEFUL_EQUITY], fInvert ? pci : &ci, TRUE);
gtk_tree_store_set(model, &child_iter, 0, szRoll, 1, szMove, 2, szEquity, -1);
for (i = 0; i < NUM_ROLLOUT_OUTPUTS; ++i)
arOutput[i] += (n0 == n1) ? ar[i] : 2.0f * ar[i];
}
}
for (i = 0; i < NUM_ROLLOUT_OUTPUTS; ++i)
arOutput[i] /= 36.0f;
/* add average equity */
szEquity = OutputMWC(arOutput[OUTPUT_CUBEFUL_EQUITY], fInvert ? pci : &ci, TRUE);
gtk_tree_store_append(model, &child_iter, iter);
gtk_tree_store_set(model, &child_iter, 0, _("Average equity"), 1, "", 2, szEquity, -1);
if (!fInvert)
InvertEvaluationR(arOutput, pci);
}
static char *
ExtEvaluation( extcmd *pec ) {
char szName[ MAX_NAME_LEN ], szOpp[ MAX_NAME_LEN ];
int nMatchTo, anScore[ 2 ],
anDice[ 2 ], nCube, fCubeOwner, fDoubled, fCrawford, fJacoby;
TanBoard anBoard;
float arOutput[ NUM_ROLLOUT_OUTPUTS ];
cubeinfo ci;
int nScore, nScoreOpponent;
char *szResponse;
float r;
evalcontext ec;
if( ParseFIBSBoard( pec->szFIBSBoard, anBoard, szName, szOpp, &nMatchTo,
&nScore, &nScoreOpponent, anDice, &nCube,
&fCubeOwner, &fDoubled, &fCrawford ) ) {
outputl( _("Warning: badly formed board from external controller.") );
szResponse =
g_strdup_printf( "Error: badly formed board ('%s')\n", pec->szFIBSBoard );
}
else {
anScore[ 0 ] = nScoreOpponent;
anScore[ 1 ] = nScore;
/* If the session isn't using Crawford rule, set crawford flag to false */
fCrawford = pec->fCrawfordRule ? fCrawford : FALSE;
/* Set the Jacoby flag appropriately from the external interface settings */
fJacoby = pec->fJacobyRule;
/* printf ("Jacoby Setting: %d\n", fJacoby);*/
/* printf ("Crawford Setting: %d\n", fCrawford); */
SetCubeInfo ( &ci, nCube, fCubeOwner, 1, nMatchTo, anScore,
fCrawford, fJacoby, nBeavers, bgvDefault );
ec.fCubeful = pec->fCubeful;
ec.nPlies = pec->nPlies;
ec.fUsePrune = pec->fUsePrune;
ec.fDeterministic = pec->fDeterministic;
ec.rNoise = pec->rNoise;
if ( GeneralEvaluationE( arOutput, (ConstTanBoard)anBoard, &ci, &ec ) )
return NULL;
if ( nMatchTo ) {
if ( ec.fCubeful )
r = arOutput[ OUTPUT_CUBEFUL_EQUITY ];
else
r = eq2mwc( arOutput[ OUTPUT_EQUITY ], &ci );
}
else
r = ec.fCubeful ? arOutput[ 6 ] : arOutput[ 5 ];
szResponse = g_strdup_printf( "%f %f %f %f %f %f\n",
arOutput[ 0 ],
arOutput[ 1 ],
arOutput[ 2 ],
arOutput[ 3 ],
arOutput[ 4 ],
r );
}
return szResponse;
}