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Do not pass threadID as argument of search() and evaluate()

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Get it from the position instead.

A good semplification of function calling and a speedup too.

No functional change also with faked split.

Signed-off-by: Marco Costalba <mcostalba@gmail.com>
This commit is contained in:
Marco Costalba 2010-06-02 20:37:18 +01:00
parent 2f6927ac08
commit ab127028ed
4 changed files with 56 additions and 56 deletions
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16
src/evaluate.cpp
View file

@ -240,7 +240,7 @@ namespace {
// Function prototypes // Function prototypes
template<bool HasPopCnt> template<bool HasPopCnt>
Value do_evaluate(const Position& pos, EvalInfo& ei, int threadID); Value do_evaluate(const Position& pos, EvalInfo& ei);
template<Color Us, bool HasPopCnt> template<Color Us, bool HasPopCnt>
void init_attack_tables(const Position& pos, EvalInfo& ei); void init_attack_tables(const Position& pos, EvalInfo& ei);
@ -277,21 +277,21 @@ namespace {
/// evaluate() is the main evaluation function. It always computes two /// evaluate() is the main evaluation function. It always computes two
/// values, an endgame score and a middle game score, and interpolates /// values, an endgame score and a middle game score, and interpolates
/// between them based on the remaining material. /// between them based on the remaining material.
Value evaluate(const Position& pos, EvalInfo& ei, int threadID) { Value evaluate(const Position& pos, EvalInfo& ei) {
return CpuHasPOPCNT ? do_evaluate<true>(pos, ei, threadID) return CpuHasPOPCNT ? do_evaluate<true>(pos, ei)
: do_evaluate<false>(pos, ei, threadID); : do_evaluate<false>(pos, ei);
} }
namespace { namespace {
template<bool HasPopCnt> template<bool HasPopCnt>
Value do_evaluate(const Position& pos, EvalInfo& ei, int threadID) { Value do_evaluate(const Position& pos, EvalInfo& ei) {
ScaleFactor factor[2]; ScaleFactor factor[2];
assert(pos.is_ok()); assert(pos.is_ok());
assert(threadID >= 0 && threadID < MAX_THREADS); assert(pos.thread() >= 0 && pos.thread() < MAX_THREADS);
assert(!pos.is_check()); assert(!pos.is_check());
memset(&ei, 0, sizeof(EvalInfo)); memset(&ei, 0, sizeof(EvalInfo));
@ -301,7 +301,7 @@ Value do_evaluate(const Position& pos, EvalInfo& ei, int threadID) {
ei.value = pos.value(); ei.value = pos.value();
// Probe the material hash table // Probe the material hash table
ei.mi = MaterialTable[threadID]->get_material_info(pos); ei.mi = MaterialTable[pos.thread()]->get_material_info(pos);
ei.value += ei.mi->material_value(); ei.value += ei.mi->material_value();
// If we have a specialized evaluation function for the current material // If we have a specialized evaluation function for the current material
@ -314,7 +314,7 @@ Value do_evaluate(const Position& pos, EvalInfo& ei, int threadID) {
factor[BLACK] = ei.mi->scale_factor(pos, BLACK); factor[BLACK] = ei.mi->scale_factor(pos, BLACK);
// Probe the pawn hash table // Probe the pawn hash table
ei.pi = PawnTable[threadID]->get_pawn_info(pos); ei.pi = PawnTable[pos.thread()]->get_pawn_info(pos);
ei.value += apply_weight(ei.pi->pawns_value(), Weights[PawnStructure]); ei.value += apply_weight(ei.pi->pawns_value(), Weights[PawnStructure]);
// Initialize attack bitboards with pawns evaluation // Initialize attack bitboards with pawns evaluation

2
src/evaluate.h
View file

@ -101,7 +101,7 @@ struct EvalInfo {
//// Prototypes //// Prototypes
//// ////
extern Value evaluate(const Position& pos, EvalInfo& ei, int threadID); extern Value evaluate(const Position& pos, EvalInfo& ei);
extern void init_eval(int threads); extern void init_eval(int threads);
extern void quit_eval(); extern void quit_eval();
extern void read_weights(Color sideToMove); extern void read_weights(Color sideToMove);

92
src/search.cpp
View file

@ -90,7 +90,7 @@ namespace {
template <bool Fake> template <bool Fake>
void split(const Position& pos, SearchStack* ss, Value* alpha, const Value beta, Value* bestValue, void split(const Position& pos, SearchStack* ss, Value* alpha, const Value beta, Value* bestValue,
Depth depth, bool mateThreat, int* moveCount, MovePicker* mp, int master, bool pvNode); Depth depth, bool mateThreat, int* moveCount, MovePicker* mp, bool pvNode);
private: private:
friend void poll(); friend void poll();
@ -285,10 +285,10 @@ namespace {
Value root_search(Position& pos, SearchStack* ss, RootMoveList& rml, Value* alphaPtr, Value* betaPtr); Value root_search(Position& pos, SearchStack* ss, RootMoveList& rml, Value* alphaPtr, Value* betaPtr);
template <NodeType PvNode> template <NodeType PvNode>
Value search(Position& pos, SearchStack* ss, Value alpha, Value beta, Depth depth, int threadID); Value search(Position& pos, SearchStack* ss, Value alpha, Value beta, Depth depth);
template <NodeType PvNode> template <NodeType PvNode>
Value qsearch(Position& pos, SearchStack* ss, Value alpha, Value beta, Depth depth, int threadID); Value qsearch(Position& pos, SearchStack* ss, Value alpha, Value beta, Depth depth);
template <NodeType PvNode> template <NodeType PvNode>
void sp_search(SplitPoint* sp, int threadID); void sp_search(SplitPoint* sp, int threadID);
@ -811,7 +811,7 @@ namespace {
// Step 5. Evaluate the position statically // Step 5. Evaluate the position statically
// At root we do this only to get reference value for child nodes // At root we do this only to get reference value for child nodes
if (!isCheck) if (!isCheck)
ss->eval = evaluate(pos, ei, 0); ss->eval = evaluate(pos, ei);
// Step 6. Razoring (omitted at root) // Step 6. Razoring (omitted at root)
// Step 7. Static null move pruning (omitted at root) // Step 7. Static null move pruning (omitted at root)
@ -876,7 +876,7 @@ namespace {
alpha = -VALUE_INFINITE; alpha = -VALUE_INFINITE;
// Full depth PV search, done on first move or after a fail high // Full depth PV search, done on first move or after a fail high
value = -search<PV>(pos, ss+1, -beta, -alpha, newDepth, 0); value = -search<PV>(pos, ss+1, -beta, -alpha, newDepth);
} }
else else
{ {
@ -893,7 +893,7 @@ namespace {
if (ss->reduction) if (ss->reduction)
{ {
// Reduced depth non-pv search using alpha as upperbound // Reduced depth non-pv search using alpha as upperbound
value = -search<NonPV>(pos, ss+1, -(alpha+1), -alpha, newDepth-ss->reduction, 0); value = -search<NonPV>(pos, ss+1, -(alpha+1), -alpha, newDepth-ss->reduction);
doFullDepthSearch = (value > alpha); doFullDepthSearch = (value > alpha);
} }
} }
@ -903,12 +903,12 @@ namespace {
{ {
// Full depth non-pv search using alpha as upperbound // Full depth non-pv search using alpha as upperbound
ss->reduction = Depth(0); ss->reduction = Depth(0);
value = -search<NonPV>(pos, ss+1, -(alpha+1), -alpha, newDepth, 0); value = -search<NonPV>(pos, ss+1, -(alpha+1), -alpha, newDepth);
// If we are above alpha then research at same depth but as PV // If we are above alpha then research at same depth but as PV
// to get a correct score or eventually a fail high above beta. // to get a correct score or eventually a fail high above beta.
if (value > alpha) if (value > alpha)
value = -search<PV>(pos, ss+1, -beta, -alpha, newDepth, 0); value = -search<PV>(pos, ss+1, -beta, -alpha, newDepth);
} }
} }
@ -1031,13 +1031,13 @@ namespace {
// search<>() is the main search function for both PV and non-PV nodes // search<>() is the main search function for both PV and non-PV nodes
template <NodeType PvNode> template <NodeType PvNode>
Value search(Position& pos, SearchStack* ss, Value alpha, Value beta, Depth depth, int threadID) { Value search(Position& pos, SearchStack* ss, Value alpha, Value beta, Depth depth) {
assert(alpha >= -VALUE_INFINITE && alpha <= VALUE_INFINITE); assert(alpha >= -VALUE_INFINITE && alpha <= VALUE_INFINITE);
assert(beta > alpha && beta <= VALUE_INFINITE); assert(beta > alpha && beta <= VALUE_INFINITE);
assert(PvNode || alpha == beta - 1); assert(PvNode || alpha == beta - 1);
assert(pos.ply() > 0 && pos.ply() < PLY_MAX); assert(pos.ply() > 0 && pos.ply() < PLY_MAX);
assert(threadID >= 0 && threadID < TM.active_threads()); assert(pos.thread() >= 0 && pos.thread() < TM.active_threads());
Move movesSearched[256]; Move movesSearched[256];
EvalInfo ei; EvalInfo ei;
@ -1051,6 +1051,7 @@ namespace {
bool isCheck, singleEvasion, moveIsCheck, captureOrPromotion, dangerous; bool isCheck, singleEvasion, moveIsCheck, captureOrPromotion, dangerous;
bool mateThreat = false; bool mateThreat = false;
int moveCount = 0; int moveCount = 0;
int threadID = pos.thread();
int ply = pos.ply(); int ply = pos.ply();
refinedValue = bestValue = value = -VALUE_INFINITE; refinedValue = bestValue = value = -VALUE_INFINITE;
oldAlpha = alpha; oldAlpha = alpha;
@ -1117,7 +1118,7 @@ namespace {
ei.kingDanger[pos.side_to_move()] = tte->king_danger(); ei.kingDanger[pos.side_to_move()] = tte->king_danger();
} }
else else
ss->eval = evaluate(pos, ei, threadID); ss->eval = evaluate(pos, ei);
refinedValue = refine_eval(tte, ss->eval, ply); // Enhance accuracy with TT value if possible refinedValue = refine_eval(tte, ss->eval, ply); // Enhance accuracy with TT value if possible
update_gains(pos, (ss-1)->currentMove, (ss-1)->eval, ss->eval); update_gains(pos, (ss-1)->currentMove, (ss-1)->eval, ss->eval);
@ -1134,7 +1135,7 @@ namespace {
&& !pos.has_pawn_on_7th(pos.side_to_move())) && !pos.has_pawn_on_7th(pos.side_to_move()))
{ {
Value rbeta = beta - razor_margin(depth); Value rbeta = beta - razor_margin(depth);
Value v = qsearch<NonPV>(pos, ss, rbeta-1, rbeta, Depth(0), threadID); Value v = qsearch<NonPV>(pos, ss, rbeta-1, rbeta, Depth(0));
if (v < rbeta) if (v < rbeta)
// Logically we should return (v + razor_margin(depth)), but // Logically we should return (v + razor_margin(depth)), but
// surprisingly this did slightly weaker in tests. // surprisingly this did slightly weaker in tests.
@ -1175,14 +1176,11 @@ namespace {
R++; R++;
pos.do_null_move(st); pos.do_null_move(st);
(ss+1)->skipNullMove = true; (ss+1)->skipNullMove = true;
nullValue = depth-R*OnePly < OnePly ? -qsearch<NonPV>(pos, ss+1, -beta, -alpha, Depth(0), threadID) nullValue = depth-R*OnePly < OnePly ? -qsearch<NonPV>(pos, ss+1, -beta, -alpha, Depth(0))
: - search<NonPV>(pos, ss+1, -beta, -alpha, depth-R*OnePly, threadID); : - search<NonPV>(pos, ss+1, -beta, -alpha, depth-R*OnePly);
(ss+1)->skipNullMove = false; (ss+1)->skipNullMove = false;
pos.undo_null_move(); pos.undo_null_move();
if (nullValue >= beta) if (nullValue >= beta)
@ -1196,10 +1194,10 @@ namespace {
return nullValue; return nullValue;
ss->skipNullMove = true; ss->skipNullMove = true;
Value v = search<NonPV>(pos, ss, alpha, beta, depth-5*OnePly, threadID); Value v = search<NonPV>(pos, ss, alpha, beta, depth-5*OnePly);
ss->skipNullMove = false; ss->skipNullMove = false;
if (v >= beta) if (v >= beta)
return nullValue; return nullValue;
} }
else else
@ -1229,7 +1227,7 @@ namespace {
Depth d = (PvNode ? depth - 2 * OnePly : depth / 2); Depth d = (PvNode ? depth - 2 * OnePly : depth / 2);
ss->skipNullMove = true; ss->skipNullMove = true;
search<PvNode>(pos, ss, alpha, beta, d, threadID); search<PvNode>(pos, ss, alpha, beta, d);
ss->skipNullMove = false; ss->skipNullMove = false;
ttMove = ss->pv[ply]; ttMove = ss->pv[ply];
@ -1281,7 +1279,7 @@ namespace {
Value b = ttValue - SingularExtensionMargin; Value b = ttValue - SingularExtensionMargin;
ss->excludedMove = move; ss->excludedMove = move;
ss->skipNullMove = true; ss->skipNullMove = true;
Value v = search<NonPV>(pos, ss, b - 1, b, depth / 2, threadID); Value v = search<NonPV>(pos, ss, b - 1, b, depth / 2);
ss->skipNullMove = false; ss->skipNullMove = false;
ss->excludedMove = MOVE_NONE; ss->excludedMove = MOVE_NONE;
@ -1330,8 +1328,8 @@ namespace {
// Step extra. pv search (only in PV nodes) // Step extra. pv search (only in PV nodes)
// The first move in list is the expected PV // The first move in list is the expected PV
if (PvNode && moveCount == 1) if (PvNode && moveCount == 1)
value = newDepth < OnePly ? -qsearch<PV>(pos, ss+1, -beta, -alpha, Depth(0), threadID) value = newDepth < OnePly ? -qsearch<PV>(pos, ss+1, -beta, -alpha, Depth(0))
: - search<PV>(pos, ss+1, -beta, -alpha, newDepth, threadID); : - search<PV>(pos, ss+1, -beta, -alpha, newDepth);
else else
{ {
// Step 14. Reduced depth search // Step 14. Reduced depth search
@ -1348,8 +1346,8 @@ namespace {
if (ss->reduction) if (ss->reduction)
{ {
Depth d = newDepth - ss->reduction; Depth d = newDepth - ss->reduction;
value = d < OnePly ? -qsearch<NonPV>(pos, ss+1, -(alpha+1), -alpha, Depth(0), threadID) value = d < OnePly ? -qsearch<NonPV>(pos, ss+1, -(alpha+1), -alpha, Depth(0))
: - search<NonPV>(pos, ss+1, -(alpha+1), -alpha, d, threadID); : - search<NonPV>(pos, ss+1, -(alpha+1), -alpha, d);
doFullDepthSearch = (value > alpha); doFullDepthSearch = (value > alpha);
} }
@ -1362,7 +1360,7 @@ namespace {
assert(newDepth - OnePly >= OnePly); assert(newDepth - OnePly >= OnePly);
ss->reduction = OnePly; ss->reduction = OnePly;
value = -search<NonPV>(pos, ss+1, -(alpha+1), -alpha, newDepth-ss->reduction, threadID); value = -search<NonPV>(pos, ss+1, -(alpha+1), -alpha, newDepth-ss->reduction);
doFullDepthSearch = (value > alpha); doFullDepthSearch = (value > alpha);
} }
ss->reduction = Depth(0); // Restore original reduction ss->reduction = Depth(0); // Restore original reduction
@ -1371,15 +1369,15 @@ namespace {
// Step 15. Full depth search // Step 15. Full depth search
if (doFullDepthSearch) if (doFullDepthSearch)
{ {
value = newDepth < OnePly ? -qsearch<NonPV>(pos, ss+1, -(alpha+1), -alpha, Depth(0), threadID) value = newDepth < OnePly ? -qsearch<NonPV>(pos, ss+1, -(alpha+1), -alpha, Depth(0))
: - search<NonPV>(pos, ss+1, -(alpha+1), -alpha, newDepth, threadID); : - search<NonPV>(pos, ss+1, -(alpha+1), -alpha, newDepth);
// Step extra. pv search (only in PV nodes) // Step extra. pv search (only in PV nodes)
// Search only for possible new PV nodes, if instead value >= beta then // Search only for possible new PV nodes, if instead value >= beta then
// parent node fails low with value <= alpha and tries another move. // parent node fails low with value <= alpha and tries another move.
if (PvNode && value > alpha && value < beta) if (PvNode && value > alpha && value < beta)
value = newDepth < OnePly ? -qsearch<PV>(pos, ss+1, -beta, -alpha, Depth(0), threadID) value = newDepth < OnePly ? -qsearch<PV>(pos, ss+1, -beta, -alpha, Depth(0))
: - search<PV>(pos, ss+1, -beta, -alpha, newDepth, threadID); : - search<PV>(pos, ss+1, -beta, -alpha, newDepth);
} }
} }
@ -1413,7 +1411,7 @@ namespace {
&& !TM.thread_should_stop(threadID) && !TM.thread_should_stop(threadID)
&& Iteration <= 99) && Iteration <= 99)
TM.split<FakeSplit>(pos, ss, &alpha, beta, &bestValue, depth, TM.split<FakeSplit>(pos, ss, &alpha, beta, &bestValue, depth,
mateThreat, &moveCount, &mp, threadID, PvNode); mateThreat, &moveCount, &mp, PvNode);
} }
// Step 19. Check for mate and stalemate // Step 19. Check for mate and stalemate
@ -1457,14 +1455,14 @@ namespace {
// less than OnePly). // less than OnePly).
template <NodeType PvNode> template <NodeType PvNode>
Value qsearch(Position& pos, SearchStack* ss, Value alpha, Value beta, Depth depth, int threadID) { Value qsearch(Position& pos, SearchStack* ss, Value alpha, Value beta, Depth depth) {
assert(alpha >= -VALUE_INFINITE && alpha <= VALUE_INFINITE); assert(alpha >= -VALUE_INFINITE && alpha <= VALUE_INFINITE);
assert(beta >= -VALUE_INFINITE && beta <= VALUE_INFINITE); assert(beta >= -VALUE_INFINITE && beta <= VALUE_INFINITE);
assert(PvNode || alpha == beta - 1); assert(PvNode || alpha == beta - 1);
assert(depth <= 0); assert(depth <= 0);
assert(pos.ply() > 0 && pos.ply() < PLY_MAX); assert(pos.ply() > 0 && pos.ply() < PLY_MAX);
assert(threadID >= 0 && threadID < TM.active_threads()); assert(pos.thread() >= 0 && pos.thread() < TM.active_threads());
EvalInfo ei; EvalInfo ei;
StateInfo st; StateInfo st;
@ -1476,7 +1474,7 @@ namespace {
int ply = pos.ply(); int ply = pos.ply();
Value oldAlpha = alpha; Value oldAlpha = alpha;
TM.incrementNodeCounter(threadID); TM.incrementNodeCounter(pos.thread());
ss->init(ply); ss->init(ply);
// Check for an instant draw or maximum ply reached // Check for an instant draw or maximum ply reached
@ -1505,7 +1503,7 @@ namespace {
ei.kingDanger[pos.side_to_move()] = tte->king_danger(); ei.kingDanger[pos.side_to_move()] = tte->king_danger();
} }
else else
staticValue = evaluate(pos, ei, threadID); staticValue = evaluate(pos, ei);
if (!isCheck) if (!isCheck)
{ {
@ -1591,7 +1589,7 @@ namespace {
// Make and search the move // Make and search the move
pos.do_move(move, st, ci, moveIsCheck); pos.do_move(move, st, ci, moveIsCheck);
value = -qsearch<PvNode>(pos, ss+1, -beta, -alpha, depth-OnePly, threadID); value = -qsearch<PvNode>(pos, ss+1, -beta, -alpha, depth-OnePly);
pos.undo_move(move); pos.undo_move(move);
assert(value > -VALUE_INFINITE && value < VALUE_INFINITE); assert(value > -VALUE_INFINITE && value < VALUE_INFINITE);
@ -1739,8 +1737,8 @@ namespace {
{ {
Value localAlpha = sp->alpha; Value localAlpha = sp->alpha;
Depth d = newDepth - ss->reduction; Depth d = newDepth - ss->reduction;
value = d < OnePly ? -qsearch<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, Depth(0), threadID) value = d < OnePly ? -qsearch<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, Depth(0))
: - search<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, d, threadID); : - search<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, d);
doFullDepthSearch = (value > localAlpha); doFullDepthSearch = (value > localAlpha);
} }
@ -1753,7 +1751,7 @@ namespace {
ss->reduction = OnePly; ss->reduction = OnePly;
Value localAlpha = sp->alpha; Value localAlpha = sp->alpha;
value = -search<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, newDepth-ss->reduction, threadID); value = -search<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, newDepth-ss->reduction);
doFullDepthSearch = (value > localAlpha); doFullDepthSearch = (value > localAlpha);
} }
ss->reduction = Depth(0); // Restore original reduction ss->reduction = Depth(0); // Restore original reduction
@ -1763,15 +1761,15 @@ namespace {
if (doFullDepthSearch) if (doFullDepthSearch)
{ {
Value localAlpha = sp->alpha; Value localAlpha = sp->alpha;
value = newDepth < OnePly ? -qsearch<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, Depth(0), threadID) value = newDepth < OnePly ? -qsearch<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, Depth(0))
: - search<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, newDepth, threadID); : - search<NonPV>(pos, ss+1, -(localAlpha+1), -localAlpha, newDepth);
// Step extra. pv search (only in PV nodes) // Step extra. pv search (only in PV nodes)
// Search only for possible new PV nodes, if instead value >= beta then // Search only for possible new PV nodes, if instead value >= beta then
// parent node fails low with value <= alpha and tries another move. // parent node fails low with value <= alpha and tries another move.
if (PvNode && value > localAlpha && value < sp->beta) if (PvNode && value > localAlpha && value < sp->beta)
value = newDepth < OnePly ? -qsearch<PV>(pos, ss+1, -sp->beta, -sp->alpha, Depth(0), threadID) value = newDepth < OnePly ? -qsearch<PV>(pos, ss+1, -sp->beta, -sp->alpha, Depth(0))
: - search<PV>(pos, ss+1, -sp->beta, -sp->alpha, newDepth, threadID); : - search<PV>(pos, ss+1, -sp->beta, -sp->alpha, newDepth);
} }
// Step 16. Undo move // Step 16. Undo move
@ -2621,16 +2619,18 @@ namespace {
template <bool Fake> template <bool Fake>
void ThreadsManager::split(const Position& p, SearchStack* ss, Value* alpha, const Value beta, void ThreadsManager::split(const Position& p, SearchStack* ss, Value* alpha, const Value beta,
Value* bestValue, Depth depth, bool mateThreat, int* moveCount, Value* bestValue, Depth depth, bool mateThreat, int* moveCount,
MovePicker* mp, int master, bool pvNode) { MovePicker* mp, bool pvNode) {
assert(p.is_ok()); assert(p.is_ok());
assert(*bestValue >= -VALUE_INFINITE); assert(*bestValue >= -VALUE_INFINITE);
assert(*bestValue <= *alpha); assert(*bestValue <= *alpha);
assert(*alpha < beta); assert(*alpha < beta);
assert(beta <= VALUE_INFINITE); assert(beta <= VALUE_INFINITE);
assert(depth > Depth(0)); assert(depth > Depth(0));
assert(master >= 0 && master < ActiveThreads); assert(p.thread() >= 0 && p.thread() < ActiveThreads);
assert(ActiveThreads > 1); assert(ActiveThreads > 1);
int master = p.thread();
lock_grab(&MPLock); lock_grab(&MPLock);
// If no other thread is available to help us, or if we have too many // If no other thread is available to help us, or if we have too many
@ -2782,7 +2782,7 @@ namespace {
init_ss_array(ss, PLY_MAX_PLUS_2); init_ss_array(ss, PLY_MAX_PLUS_2);
pos.do_move(cur->move, st); pos.do_move(cur->move, st);
moves[count].move = cur->move; moves[count].move = cur->move;
moves[count].score = -qsearch<PV>(pos, ss+1, -VALUE_INFINITE, VALUE_INFINITE, Depth(0), 0); moves[count].score = -qsearch<PV>(pos, ss+1, -VALUE_INFINITE, VALUE_INFINITE, Depth(0));
moves[count].pv[0] = cur->move; moves[count].pv[0] = cur->move;
moves[count].pv[1] = MOVE_NONE; moves[count].pv[1] = MOVE_NONE;
pos.undo_move(cur->move); pos.undo_move(cur->move);

2
src/uci.cpp
View file

@ -151,7 +151,7 @@ namespace {
EvalInfo ei; EvalInfo ei;
cout << "Incremental mg: " << mg_value(RootPosition.value()) cout << "Incremental mg: " << mg_value(RootPosition.value())
<< "\nIncremental eg: " << eg_value(RootPosition.value()) << "\nIncremental eg: " << eg_value(RootPosition.value())
<< "\nFull eval: " << evaluate(RootPosition, ei, 0) << endl; << "\nFull eval: " << evaluate(RootPosition, ei) << endl;
} }
else if (token == "key") else if (token == "key")
cout << "key: " << hex << RootPosition.get_key() cout << "key: " << hex << RootPosition.get_key()