TRegexp::TRegexp(const tchar * str)
{
gen_pattern( str );
}
TRegexp & TRegexp::operator = ( const tchar *cp )
{
delete the_pattern;
gen_pattern( cp );
return *this;
}
/****************************************************
* mmcsd_write executa a escrita bufferizada do cartao
* sd
*
* @param address - endereco qual se quer escrever
* @param *data - vetor de dados a ser escrito
* @param size - tamanho do vetor
* @return TRUE se sucesso, FALSE se erro
*/
short mmcsd_write(long long address, int *data, long size) {
int read_out[MMCSD_MAX_BLOCK_SIZE] = { 0 }, r;
long block, offset, cont, acum, qtd;
block = (long) (address / MMCSD_MAX_BLOCK_SIZE);
offset = (long) (address - (block * MMCSD_MAX_BLOCK_SIZE));
if ((offset + size) <= MMCSD_MAX_BLOCK_SIZE) {
r = mmcsd_read_card(block, read_out, MMCSD_MAX_BLOCK_SIZE);
if (!r)
return FALSE;
for (cont = 0; cont < size; ++cont) {
read_out[cont + offset] = data[cont];
}
r = mmcsd_write_card(block, read_out, MMCSD_MAX_BLOCK_SIZE);
if (!r)
return FALSE;
} else {
acum = 0;
qtd = MMCSD_MAX_BLOCK_SIZE - offset;
do {
#ifdef USE_SPI
r = mmcsd_read_card(block, read_out, MMCSD_MAX_BLOCK_SIZE);
#else
r = gen_pattern(read_out, MMCSD_MAX_BLOCK_SIZE, 0);
#endif
if (!r)
return FALSE;
for (cont = 0; cont < qtd; ++cont) {
read_out[cont + offset] = data[acum];
acum++;
}
#ifdef USE_SPI
r = mmcsd_write_card(block, read_out, MMCSD_MAX_BLOCK_SIZE);
if (!r)
return FALSE;
#else
print_arr(address, read_out, MMCSD_MAX_BLOCK_SIZE);
#endif
block++;
offset = 0;
if (acum + MMCSD_MAX_BLOCK_SIZE > size) {
qtd = size - acum;
} else {
qtd = MMCSD_MAX_BLOCK_SIZE;
}
} while (acum < size);
}
return TRUE;
}
