inline RC TPCCTxnManager::run_payment_0(uint64_t w_id, uint64_t d_id, uint64_t d_w_id, double h_amount, row_t *& r_wh_local) {
uint64_t key;
itemid_t * item;
/*====================================================+
EXEC SQL UPDATE warehouse SET w_ytd = w_ytd + :h_amount
WHERE w_id=:w_id;
+====================================================*/
/*===================================================================+
EXEC SQL SELECT w_street_1, w_street_2, w_city, w_state, w_zip, w_name
INTO :w_street_1, :w_street_2, :w_city, :w_state, :w_zip, :w_name
FROM warehouse
WHERE w_id=:w_id;
+===================================================================*/
RC rc;
key = w_id;
INDEX * index = _wl->i_warehouse;
item = index_read(index, key, wh_to_part(w_id));
assert(item != NULL);
row_t * r_wh = ((row_t *)item->location);
if (g_wh_update)
rc = get_row(r_wh, WR, r_wh_local);
else
rc = get_row(r_wh, RD, r_wh_local);
return rc;
}
/**
* @brief Determines row and column of key press then returns value from map
* @retval Returns exact key pressed
*/
int get_key(void) {
int i = 0;
uint8_t key;
uint8_t row, column;
// Interupt handling, and debouncing;
if((column = get_column()) == 9) return -1;
if((row = get_row()) == 9) return -1;
// Hold code in wait state until button released/held long enough
key = keypad_map[row][column];
while(1){
// Wait state
while(keypad_map[get_row()][get_column()] == key){
i++;
//printf("Key:%d\n", key);
delay(25);
}
// Key held long enough and isn't noise
if(i > 2) break;
else return get_key();
}
printf("%d made it dad!\n", key);
return key;
}
MAT *bifactor(MAT *A, MAT *U, MAT *V)
#endif
{
int k;
STATIC VEC *tmp1=VNULL, *tmp2=VNULL, *w=VNULL;
Real beta;
if ( ! A )
error(E_NULL,"bifactor");
if ( ( U && ( U->m != U->n ) ) || ( V && ( V->m != V->n ) ) )
error(E_SQUARE,"bifactor");
if ( ( U && U->m != A->m ) || ( V && V->m != A->n ) )
error(E_SIZES,"bifactor");
tmp1 = v_resize(tmp1,A->m);
tmp2 = v_resize(tmp2,A->n);
w = v_resize(w, max(A->m,A->n));
MEM_STAT_REG(tmp1,TYPE_VEC);
MEM_STAT_REG(tmp2,TYPE_VEC);
MEM_STAT_REG(w, TYPE_VEC);
if ( A->m >= A->n )
for ( k = 0; k < A->n; k++ )
{
get_col(A,k,tmp1);
hhvec(tmp1,k,&beta,tmp1,&(A->me[k][k]));
_hhtrcols(A,k,k+1,tmp1,beta,w);
if ( U )
_hhtrcols(U,k,0,tmp1,beta,w);
if ( k+1 >= A->n )
continue;
get_row(A,k,tmp2);
hhvec(tmp2,k+1,&beta,tmp2,&(A->me[k][k+1]));
hhtrrows(A,k+1,k+1,tmp2,beta);
if ( V )
_hhtrcols(V,k+1,0,tmp2,beta,w);
}
else
for ( k = 0; k < A->m; k++ )
{
get_row(A,k,tmp2);
hhvec(tmp2,k,&beta,tmp2,&(A->me[k][k]));
hhtrrows(A,k+1,k,tmp2,beta);
if ( V )
_hhtrcols(V,k,0,tmp2,beta,w);
if ( k+1 >= A->m )
continue;
get_col(A,k,tmp1);
hhvec(tmp1,k+1,&beta,tmp1,&(A->me[k+1][k]));
_hhtrcols(A,k+1,k+1,tmp1,beta,w);
if ( U )
_hhtrcols(U,k+1,0,tmp1,beta,w);
}
#ifdef THREADSAFE
V_FREE(tmp1); V_FREE(tmp2);
#endif
return A;
}
int g3_fastMove(const struct connect4 *game, int *movesToExplore) {
const char me = game->whoseTurn;
struct connect4 tempGame;
// Clear space for wins
int wins[NUM_COLS];
memset(wins, 0, sizeof(wins));
int i, count;
for (i = 0; i < NUM_COLS; i++) {
if (movesToExplore[i] == 0)
continue;
// Run a bunch of sims for this column
for (count = 0; count < g3_FAST_SIMULATIONS; count++) {
memcpy(&tempGame, game, sizeof(struct connect4));
// Play a move in the ith column
tempGame.board[get_row(&tempGame, i)][i] = tempGame.whoseTurn;
tempGame.whoseTurn = other(tempGame.whoseTurn);
char winner = 0;
while (winner == 0 && g3_movesAvailable(&tempGame)) {
int nextMove = g3_has3Wins(&tempGame);
// Try again if move is invalid
while (not_valid(&tempGame, nextMove))
nextMove = rand() % NUM_COLS; // Try again
// If the move would result in a winner or the game is CATS, break the loop
int validRow = get_row(&tempGame, nextMove);
if (g3_is3Win(&tempGame, validRow, nextMove, tempGame.whoseTurn)) {
winner = tempGame.whoseTurn;
} else {
// Otherwise, play the move and keep playing
move(&tempGame, nextMove, tempGame.whoseTurn);
tempGame.whoseTurn = other(tempGame.whoseTurn);
}
}
wins[i] += (winner == me);
}
}
int greatest = -1, greatestMove = -1;
for (i = 0; i < NUM_COLS; i++) {
if (wins[i] > greatest) {
greatest = wins[i];
greatestMove = i;
}
}
return greatestMove;
}
//minmax algorithm with alpha-beta pruning. I understand how to code the minmax part but needed some help with the pruning.
int minmaxAB(int depth,struct connect4 *game, char playerPiece, int alpha, int beta){
if(depth == 0 || check_status(game) != NOT_OVER){
return evaluate(game, playerPiece);
}
if(playerPiece == game->whoseTurn){
int minScore = -999999999;
int i;
for (i = 0; i < 7; ++i) {
if(game->board[NUM_ROWS-1][i] == '_' ){
move(game,i,playerPiece); //will probably need to be fixed?
int currentScore = minmaxAB(depth-1, game, other(playerPiece), alpha, beta);
//printf("score set to %d\n", currentScore);
int rowIndex = get_row(game, i);
game->board[rowIndex-1][i] = '_';
if(currentScore > minScore){
minScore = currentScore;
}
if(alpha < minScore){
alpha = minScore;
}
if(beta <= alpha){
break;
}
}
}
return minScore;
}
else{
int maxScore = 999999999;
int i;
for (i = 0; i < 7; ++i) {
if(game->board[NUM_ROWS-1][i] == '_' ){
move(game,i,playerPiece); //will probably need to be fixed?
int currentScore = minmaxAB(depth-1, game, other(playerPiece), alpha,beta);
int rowIndex = get_row(game, i);
game->board[rowIndex-1][i] = '_';
if(currentScore < maxScore){
maxScore = currentScore;
}
if(beta > maxScore){
beta = maxScore;
}
if(beta <= alpha){
break;
}
}
}
return maxScore;
}
}
int jon_move(struct connect4 *game, int secondsleft){
char playerPiece = game->whoseTurn;
int i;
//creates a copy of the current gamestate so that it can safely modify it
struct connect4 *safeCopy = copy(game);
//checks to see if it needs to prevent a loss or claim a win before wasting time with the deep recursion
int moveIndex = amIAboutToLose(safeCopy);
if(moveIndex == -1){
moveIndex = amIAboutToWin(safeCopy);
}
if(moveIndex == -1)
minmaxAB(6,safeCopy,playerPiece,-999999,999999);
//if the AI cannot win or lose in this turn, it starts at each possible move and recursively checks boards from there
if(moveIndex == -1){
int bestVal = -9999999;
for (i = 0; i < 7; ++i) {
if(game->board[NUM_ROWS-1][i] == '_' ){
//temporarily places a piece on the board
move(safeCopy,i,playerPiece);
int val = minmaxAB(8, safeCopy,other(playerPiece),-999999,999999);
int rowIndex = get_row(safeCopy, i);
//removes the temp piece from the board
safeCopy->board[rowIndex-1][i] = '_';
//If we got a better value, make this our move.
if(val >= bestVal){
bestVal = val;
moveIndex = i;
}
}
}
}
return moveIndex;
}
TraceViewRecord *
trace_view_store_get_row(TraceViewStore *store, gint row)
{
g_return_val_if_fail(TRACE_VIEW_IS_LIST(store), NULL);
return get_row(store, row);
}
// new_order 2
inline RC TPCCTxnManager::new_order_8(uint64_t w_id,uint64_t d_id,bool remote, uint64_t ol_i_id, uint64_t ol_supply_w_id, uint64_t ol_quantity,uint64_t ol_number,uint64_t o_id, row_t *& r_stock_local) {
uint64_t key;
itemid_t * item;
/*===================================================================+
EXEC SQL SELECT s_quantity, s_data,
s_dist_01, s_dist_02, s_dist_03, s_dist_04, s_dist_05,
s_dist_06, s_dist_07, s_dist_08, s_dist_09, s_dist_10
INTO :s_quantity, :s_data,
:s_dist_01, :s_dist_02, :s_dist_03, :s_dist_04, :s_dist_05,
:s_dist_06, :s_dist_07, :s_dist_08, :s_dist_09, :s_dist_10
FROM stock
WHERE s_i_id = :ol_i_id AND s_w_id = :ol_supply_w_id;
EXEC SQL UPDATE stock SET s_quantity = :s_quantity
WHERE s_i_id = :ol_i_id
AND s_w_id = :ol_supply_w_id;
+===============================================*/
key = stockKey(ol_i_id, ol_supply_w_id);
INDEX * index = _wl->i_stock;
item = index_read(index, key, wh_to_part(ol_supply_w_id));
assert(item != NULL);
row_t * r_stock = ((row_t *)item->location);
RC rc = get_row(r_stock, WR, r_stock_local);
return rc;
}
Datum
get_next_row(FunctionCallInfo fcinfo)
{
PlxResult *plx_result;
FuncCallContext *funcctx;
int call_cntr;
plx_result = get_plx_result_or_due(fcinfo);
/* code below will be never executed if pg_result not find */
if (SRF_IS_FIRSTCALL())
{
funcctx = SRF_FIRSTCALL_INIT();
funcctx->max_calls = PQntuples(plx_result->pg_result);
}
funcctx = SRF_PERCALL_SETUP();
call_cntr = funcctx->call_cntr;
if (call_cntr < funcctx->max_calls)
SRF_RETURN_NEXT(funcctx, get_row(fcinfo, plx_result, call_cntr));
else
{
plx_result_cache_delete(fcinfo);
PQclear(plx_result->pg_result);
pfree(plx_result);
SRF_RETURN_DONE(funcctx);
}
}
sf::IntRect Spritesheet::_get_rect(int frame)
{
return sf::IntRect(
get_col(frame, _cols) * _tile_width,
get_row(frame, _cols) * _tile_height,
_tile_width, _tile_height);
}
std::vector<OrderData> OrderData::select_all_by_id(int id, sqlite3* db, std::string table_name, std::string& error_msg)
{
error_msg = "OK";
std::vector<OrderData> orders;
std::string query = std::string("SELECT * FROM ") + table_name + " WHERE order_id = " + std::to_string(id);
int result = 0;
sqlite3_stmt* stmt;
if ((result = sqlite3_prepare_v2(db, query.c_str(), query.size(), &stmt, NULL)) != SQLITE_OK)
{
error_msg = std::string("sqlite3_prepare_v2 failed. Error code: ") + std::to_string(result);
return orders;
}
BOOST_SCOPE_EXIT_ALL(stmt)
{
sqlite3_finalize(stmt);
};
while ((result = sqlite3_step(stmt)) == SQLITE_ROW)
{
OrderData order_data = get_row(stmt);
orders.push_back(order_data);
}
return orders;
}
bool OrderData::select_last_modified_by_id(int order_id, sqlite3* db, std::string table_name, std::string& error_msg)
{
error_msg = "OK";
std::vector<OrderData> orders;
std::string query = std::string("SELECT * FROM ") + table_name + " WHERE order_id = " + std::to_string(order_id) + " ORDER BY internal_id DESC LIMIT 1";
int result = 0;
sqlite3_stmt* stmt;
if ((result = sqlite3_prepare_v2(db, query.c_str(), query.size(), &stmt, NULL)) != SQLITE_OK)
{
error_msg = std::string("sqlite3_prepare_v2 failed. Error code: ") + std::to_string(result);
return false;
}
BOOST_SCOPE_EXIT_ALL(stmt)
{
sqlite3_finalize(stmt);
};
if ((result = sqlite3_step(stmt)) == SQLITE_ROW)
{
OrderData order_data = get_row(stmt);
memcpy(this, &order_data, sizeof(OrderData));
}
else
{
error_msg = std::string("0 results on SELECT. Error code: ") + std::to_string(result);
return false;
}
return true;
}
/**
\brief Roznasobeni dvou matic, jen pro testovaci ucely. Velmi pomaly zpusob. Doma nezkouset.
Projede radky a roznasobi hodnotu leve matice v danem sloupci c s c-tym radkem prave matice
*/
void MTX::multiply_matrices(MTX& B, MTX& R)
{
long i,j,ac; // ac - actual column
double v;//value for multiplication of row
ROW l;//row of actual left matrix
ROW r;//row of right matrix
ROW b;//resultant row - will write into this
R = B;
for (i=0;i<row_number;i++){//projdi kazdy radek
// printf("\nRadek: %li\.n",i);
j=0;
l = get_row(i,0);
while(j < l.value_number){//projdi vsechny nenulove hodnoty v radku
if(j==0){
ac = l.index[j];
r = B.get_row(ac,0);
v = l.values[j];
b = r*v;
}else{
ac = l.index[j];
r = B.get_row(ac,0);
v = l.values[j];
b += r*v;
}
j++;
}
R.set_row(b,i);
}
}
// returns 0 if solved > 0 otherwise
int unsolved(oku_sod* sod){
int i,j,size = sod->size, score=0;
//occurance counters
int row[size+1][size+1],col[size+1][size+1],blk[size+1][size+1];
//initialize counters
for(i=0;i<size+1;i++)
for(j=1;j<size+1;j++){
row[i][j] = 0;
col[i][j] = 0;
blk[i][j] = 0;
}
// count occurances
for(i=0;i<size;i++)
for(j=0;j<size;j++){
row[i][get_row(sod,i,j)]++;
col[i][get_col(sod,i,j)]++;
blk[i][get_blk(sod,i,j)]++;
}
for(i=0;i<size;i++)
for(j=1;j<size+1;j++){
score += row[i][j] > 1 ? 1 : 0;
score += col[i][j] > 1 ? 1 : 0;
score += blk[i][j] > 1 ? 1 : 0;
}
return score;
}
void * _create_int_hashtable_on_column(struct Block * block, const char * column_name)
{
int row_id, column_id = get_column_id_by_name_or_exit(block, column_name);
struct hashtable * ht = create_hashtable(16, hash_from_int_fn, ints_equal_fn);
num_metas++;
metas = (struct hashtable_meta *)realloc(metas, sizeof(struct hashtable_meta)*num_metas);
struct hashtable_meta * meta = &metas[num_metas-1];
meta->ht = ht;
meta->block = block;
meta->row_ids = NULL;
int dups = 0;
for (row_id = 0 ; row_id < block->num_rows ; row_id++)
{
if (hashtable_search(ht, get_cell(block, row_id, column_id)) == NULL)
{
hashtable_insert(ht, get_cell(block, row_id, column_id), get_row(block, row_id));
}
else dups++;
}
if (dups > 0) fprintf(stderr, "%s('%s'), there are %d duplicate rows (ignored) of total: %d\n", __func__, column_name, dups, block->num_rows);
return (void*)ht;
}
/**************************************************************************
*
*N vpf_binary_search
*
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Purpose:
*P
* This function performs a binary search on a VPF table for the
* specified integer value. Only VPF data type 'I' is supported.
* The table must be sorted on the specified field, or this function
* will give unpredictable results. The table must have been
* successfully opened. If more than one row matches the search
* value, only the first encountered will be returned.
*E
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Parameters:
*A
* srchval <input> == (long int) specified search value.
* field <input> == (int) table sort field.
* table <input> == (vpf_table_type) VPF table.
* vpf_binary_search <output> == (long int) first matching row.
*E
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* History:
*H
* Barry Michaels DOS Turbo C
*E
*************************************************************************/
long int vpf_binary_search( long int srchval,
int field,
vpf_table_type table )
{
long int left,right, ival, rowid, n;
row_type row;
left = 1;
right = table.nrows;
do {
rowid = (left+right)/2;
row = get_row(rowid,table);
get_table_element(field,row,table,&ival,&n);
free_row(row,table);
if (ival < srchval)
right = rowid-1;
else
left = rowid+1;
} while ((srchval != ival) && (left <= right));
if (srchval != ival) rowid = 0;
return rowid;
}
// --------------------------------------------------------------------------
int DecoderPE::get_data(BlockStore &bs)
{
int postamble_rows = 0;
int row_count = 0;
quint16 data = 0x01ff; // we start with all ones, as last row of preamble is all ones
while (1) {
int res = get_row(&data);
if (res < 0) {
return res;
}
buf[row_count++] = data;
// start of postamble
if ((postamble_rows <= 0) && (data == 0b0000000111111111)) {
postamble_rows++;
// inside postamble
} else if ((postamble_rows >= 1) && (data == 0)) {
postamble_rows++;
// false positive
} else {
postamble_rows = 0;
}
if (postamble_rows >= td->cfg.pe_sync_pulses_min+1) {
// cut postamble
row_count -= postamble_rows;
break;
}
}
return row_count;
}
/**
* get_row_values - reads the row values from the read buffer
*
* This method is used to read the row column values
* from the read buffer and store them in the row structure
* in the class.
*
*/
boolean Connector::get_row_values() {
int res = 0;
int offset = 0;
// It is an error to try to read rows before columns
// are read.
if (!columns_read) {
Serial.println("ERROR: You must read the columns first!");
return true;
}
// Drop any row data already read
free_row_buffer();
// Read a row
res = get_row();
if (res != EOF_PACKET) {
offset = 4;
for (int f = 0; f < num_cols; f++) {
row.values[f] = read_string(&offset);
}
}
else {
return res;
}
return true;
}
VectorXd SparseSystem::solve() const {
requireDebug(num_rows() >= num_cols(), "SparseSystem::solve: cannot solve system, not enough constraints");
requireDebug(num_rows() == num_cols(), "SparseSystem::solve: system not triangular");
int n = num_cols();
VectorXd result(n);
for (int row=n-1; row>=0; row--) {
const SparseVector& rowvec = get_row(row);
// start with rhs...
double terms = _rhs(row);
double diag;
// ... and subtract already solved variables multiplied with respective coefficient from R
// We assume that the SpareSystem is triangular
SparseVectorIter iter(rowvec);
iter.get(diag); // we can check return value it should be == row
iter.next();
for (; iter.valid(); iter.next()) {
double v;
int col = iter.get(v);
terms = terms - result(col)*v;
}
// divide result by diagonal entry of R
result(row) = terms / diag;
}
return result;
}
std::vector<OrderData> OrderData::select_unique_last_modified_in_time_interval_by_user(long long from, long long to, int login, sqlite3* db, std::string table_name, std::string& error_msg)
{
error_msg = "OK";
std::vector<OrderData> orders;
std::string query = "SELECT * FROM " + table_name + " WHERE account_id = " + std::to_string(login) + " AND modify_time > " + std::to_string(from) + " AND modify_time < " + std::to_string(to) + " GROUP BY order_id";
int result = 0;
sqlite3_stmt* stmt;
if ((result = sqlite3_prepare_v2(db, query.c_str(), query.size(), &stmt, NULL)) != SQLITE_OK)
{
error_msg = std::string("sqlite3_prepare_v2 failed. Error code: ") + std::to_string(result);
return orders;
}
BOOST_SCOPE_EXIT_ALL(stmt)
{
sqlite3_finalize(stmt);
};
while ((result = sqlite3_step(stmt)) == SQLITE_ROW)
{
OrderData order_data = get_row(stmt);
orders.push_back(order_data);
}
return orders;
}
// build a row of the GLM deign matrix
// in
// current image
vnl_vector<double> RtDesignMatrix::getRow(unsigned int timepoint) {
// bounds check
if (timepoint >= numMeas) {
return vnl_vector<double>(0);
}
return get_row(timepoint);
}
/**************************************************************************
*
*N related_row
*
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Purpose:
*P
* Return the related row of table2 based upon the value of table 1's key
* Table 2 must be the '1' side of an n:1 relationship -- If it isn't,
* use 'related_rows()'.
* Supported data types - I and T<n>.
* Binary search supported only for data type I. (column must be sorted)
*E
*:::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* History:
*H
* Barry Michaels DOS Turbo C
*E
*************************************************************************/
long int related_row( void *keyval1,
vpf_table_type table2, char *key2,
int sort_flag )
{
long int rowid, i, ival, kval, n;
row_type row;
int KEY2_;
char cval, *tval;
if (ossim_strcasecmp(key2,"ID")==0) {
memcpy( &rowid, keyval1, sizeof(rowid) );
return rowid;
}
rowid = 0;
KEY2_ = table_pos(key2,table2);
if ((table2.header[KEY2_].type != 'I')&&
(table2.header[KEY2_].type != 'T')) return rowid;
if ((table2.header[KEY2_].type == 'I')&&
(table2.header[KEY2_].count != 1)) return rowid;
if ((table2.header[KEY2_].type == 'T')&&(sort_flag)) sort_flag = 0;
if (table2.header[KEY2_].type == 'I') memcpy(&kval,keyval1,sizeof(kval));
if (!sort_flag) { /* Sequential search */
for (i=1;i<=table2.nrows;i++) {
row = get_row(i,table2);
if (table2.header[KEY2_].type == 'I') {
get_table_element(KEY2_,row,table2,&ival,&n);
if (ival == kval) rowid = i;
} else {
if (table2.header[KEY2_].count==1) {
get_table_element(KEY2_,row,table2,&cval,&n);
if (memcmp(&cval,keyval1,sizeof(ival))==0) rowid = i;
} else {
tval = (char*)get_table_element(KEY2_,row,table2,NULL,&n);
if (strcmp(tval,(char *)keyval1)==0) rowid = i;
}
}
free_row(row,table2);
if (rowid > 0) break;
}
} else { /* Binary search */
memcpy(&kval,keyval1,sizeof(kval));
rowid = vpf_binary_search( kval, KEY2_, table2 );
}
return rowid;
}
/*************************************************************************
*
*N draw_text
*
*::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Purpose:
*P
* This function draws annotation for a given row number in the text
* pseudo-primitive table.
*E
*::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* Parameters:
*A
* rownum <input>==(ossim_int32) row number of the text table.
* table <input>==(vpf_table_type) text primitive table.
* return <output>==(int) 0 if the user escapes, 1 upon successful
* completion.
*E
*::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
*
* History:
*H
* Barry Michaels August 1991 DOS Turbo C
*E
*************************************************************************/
int draw_text( ossim_int32 rownum, vpf_table_type table )
{
int stat;
row_type row;
row = get_row( rownum, table );
stat = draw_text_row(row,table);
free_row(row,table);
return stat;
}
/* Checks if the current player has 3wins available */
int g3_has3Wins(const struct connect4 *game) {
int col;
for (col = 0; col < NUM_COLS; col++) {
int validRow = get_row(game, col);
if (g3_is3Win(game, validRow, col, game->whoseTurn))
return col;
}
return -1;
}
/**
\brief
*/
const VTR MTX::multiply(const VTR& b)
{
ROW a;
double* r = new double[row_number];//return vektor
for(long i=0;i<row_number;i++){
a = get_row(i,0);
r[i] = a*b;
}
return VTR(r,row_number);
}
void set_pixel(uint32_t row_idx, uint32_t col_idx, BYTE r, BYTE g, BYTE b, BYTE a)
{
my_assert(_bytes_per_pixel == 4);
auto ptr = get_row(row_idx);
ptr += col_idx * 4;
ptr[0] = r;
ptr[1] = g;
ptr[2] = b;
ptr[3] = a;
}
inline RC TPCCTxnManager::new_order_2(uint64_t w_id, uint64_t d_id, uint64_t c_id, bool remote, uint64_t ol_cnt,uint64_t o_entry_d, uint64_t * o_id, row_t *& r_cust_local) {
uint64_t key;
itemid_t * item;
key = custKey(c_id, d_id, w_id);
INDEX * index = _wl->i_customer_id;
item = index_read(index, key, wh_to_part(w_id));
assert(item != NULL);
row_t * r_cust = (row_t *) item->location;
RC rc = get_row(r_cust, RD, r_cust_local);
return rc;
}
int main(int argc, char *argv[]) {
db_row_t row = get_row("Select query");
double res = 0.0;
db_row_t::const_iterator it = row.begin(), end = row.end();
for (; it != end; ++it) {
res += boost::apply_visitor(db_sum_visitor(), *it);
}
std::cout << res << std::endl;
return 0;
}
FMatrix FMatrix::Transp() const
{
FMatrix d( col, row );
FVector s( col );
for ( int i = 1;i <= row;i++ )
{
s = get_row( i );
d.set_col( i, s );
}
return d;
}
/* fill row with the row row_nr from the problem */
long __declspec(dllexport) WINAPI _get_row(lprec *lp, long row_nr, double *row)
{
long ret;
if (lp != NULL) {
freebuferror();
ret = get_row(lp, row_nr, row);
}
else
ret = 0;
return(ret);
}