void Level::convert_byte_map(){
for (int i = 0; i < height; i++){
for (int j = 0; j < width; j++){
terrain_map[i][j] = convert_byte(i, j, terrain_save_map[i][j]);
}
}
}
static
int convert_raw_string(void *raw_data, int max_size, char raw_str[]) {
int i = 0;
int endian = 0; //0=le; 1=be
int base = 16;
int start_i = 0;
int data_index = 0;
uint8_t *data = (uint8_t *) raw_data;
//convert raw_data string
int length = strlen(raw_str);
//check endianess
if((length > 4) && raw_str[start_i] == '(' && raw_str[start_i+3] == ')') {
if (isalpha(raw_str[start_i+1]) && isalpha(raw_str[start_i+2]) &&
toupper(raw_str[start_i+1]) == 'B' && toupper(raw_str[start_i+2]) == 'E') {
endian = 1;
}
start_i = 4;
}
if((length > start_i + 1) && raw_str[start_i] == '0' && isalpha(raw_str[start_i+1]) && (toupper(raw_str[start_i+1]) == 'X')) { //hex
base = 16;
start_i += 2;
}
else { //we assume value data is in hex format
printf("Assuming hex value (base 16)\n");
base = 16;
}
char str[2];
for(i=start_i; i<length; i++) {
if(i+1 < length)
{
str[1] = raw_str[i];
str[0] = raw_str[i+1];
i++;
}
else
{
str[1] = 0;
str[0] = raw_str[i];
}
data[data_index] = convert_byte(str, base);
data_index++;
}
if(endian > 0) {
//convert from big endian to little endian
data = raw_inv(data, data_index);
}
// size in bytes
return (data_index);
}
std::string binary_archive_content(Buffer const& buffer)
{
std::string result;
if (LPT_ENABLED(debug))
{
result.reserve(buffer.data_.size() * 2 + 1);
for (boost::uint8_t byte: buffer.data_)
{
char b[3] = { 0 };
convert_byte(byte, &b[0], &b[3]);
result += b;
}
}
return result;
}
void zmq::uuid_t::create_blob ()
{
const char *buf = (const char*) string_buf;
blob_buf [0] = convert_byte (buf + 0);
blob_buf [1] = convert_byte (buf + 2);
blob_buf [2] = convert_byte (buf + 4);
blob_buf [3] = convert_byte (buf + 6);
blob_buf [4] = convert_byte (buf + 9);
blob_buf [5] = convert_byte (buf + 11);
blob_buf [6] = convert_byte (buf + 14);
blob_buf [7] = convert_byte (buf + 16);
blob_buf [8] = convert_byte (buf + 19);
blob_buf [9] = convert_byte (buf + 21);
blob_buf [10] = convert_byte (buf + 24);
blob_buf [11] = convert_byte (buf + 26);
blob_buf [12] = convert_byte (buf + 28);
blob_buf [13] = convert_byte (buf + 30);
blob_buf [14] = convert_byte (buf + 32);
blob_buf [15] = convert_byte (buf + 34);
}
void zmq::uuid_t::create_blob ()
{
char *buf = reinterpret_cast<char*>(string_buf);
#ifdef UNICODE // we need to jump twice as far.
blob_buf [0] = convert_byte (buf + 0);
blob_buf [1] = convert_byte (buf + 4);
blob_buf [2] = convert_byte (buf + 8);
blob_buf [3] = convert_byte (buf + 12);
blob_buf [4] = convert_byte (buf + 18);
blob_buf [5] = convert_byte (buf + 22);
blob_buf [6] = convert_byte (buf + 28);
blob_buf [7] = convert_byte (buf + 32);
blob_buf [8] = convert_byte (buf + 38);
blob_buf [9] = convert_byte (buf + 42);
blob_buf [10] = convert_byte (buf + 48);
blob_buf [11] = convert_byte (buf + 52);
blob_buf [12] = convert_byte (buf + 56);
blob_buf [13] = convert_byte (buf + 60);
blob_buf [14] = convert_byte (buf + 64);
blob_buf [15] = convert_byte (buf + 68);
#else
blob_buf [0] = convert_byte (buf + 0);
blob_buf [1] = convert_byte (buf + 2);
blob_buf [2] = convert_byte (buf + 4);
blob_buf [3] = convert_byte (buf + 6);
blob_buf [4] = convert_byte (buf + 9);
blob_buf [5] = convert_byte (buf + 11);
blob_buf [6] = convert_byte (buf + 14);
blob_buf [7] = convert_byte (buf + 16);
blob_buf [8] = convert_byte (buf + 19);
blob_buf [9] = convert_byte (buf + 21);
blob_buf [10] = convert_byte (buf + 24);
blob_buf [11] = convert_byte (buf + 26);
blob_buf [12] = convert_byte (buf + 28);
blob_buf [13] = convert_byte (buf + 30);
blob_buf [14] = convert_byte (buf + 32);
blob_buf [15] = convert_byte (buf + 34);
#endif
buf = NULL; delete buf;
}
