int OSC_Base::parseData(osc_message* message) {
int offset = message->header.offset_to_data<<2;
const char* buffer = message->header.path;
message->data_count = message->typetag_length-1;
message->data = (data_holder_type*)local_rx_malloc(sizeof(data_holder_type)*message->data_count);
// make sure the holder is null
memset(message->data, 0x00, sizeof(data_holder_type)*message->data_count);
for (int i = 0; i < message->data_count; i++) {
switch(message->typetag[i+1]) {
case 'c': message->data[i].type = TYPE_CHARACTER; offset += load_32bit(&buffer[offset], &message->data[i]); break;
case 'f': message->data[i].type = TYPE_FLOAT; offset += load_32bit(&buffer[offset], &message->data[i]); break;
case 'i': message->data[i].type = TYPE_INTEGER; offset += load_32bit(&buffer[offset], &message->data[i]); break;
case 'r': message->data[i].type = TYPE_COLOR; offset += load_32bit(&buffer[offset], &message->data[i]); break;
case 't': message->data[i].type = TYPE_TIMETAG; offset += load_64bit(&buffer[offset], &message->data[i]); break;
case 'h': message->data[i].type = TYPE_LONG; offset += load_64bit(&buffer[offset], &message->data[i]); break;
case 'd': message->data[i].type = TYPE_DOUBLE; offset += load_64bit(&buffer[offset], &message->data[i]); break;
case 'F': message->data[i].type = TYPE_FALSE; message->data[i].value_uint32 = 0; break;
case 'N': message->data[i].type = TYPE_NONE; message->data[i].value_uint32 = 0; break;
case 'I': message->data[i].type = TYPE_IMPULSE; message->data[i].value_uint32 = 1; break;
case 'T': message->data[i].type = TYPE_TRUE; message->data[i].value_uint32 = 1; break;
case 's': message->data[i].type = TYPE_STRING; offset += load_string(&buffer[offset], &message->data[i]); break;
case 'b': message->data[i].type = TYPE_BLOB; offset += load_blob(&buffer[offset], &message->data[i]); break;
case 'B': message->data[i].type = TYPE_ADVBLOB; offset += load_blob(&buffer[offset], &message->data[i]); break;
}
}
}
int main(int argc, char *argv[])
{
void *fdt1, *fdt2;
uint32_t cpuid1, cpuid2;
test_init(argc, argv);
if ((argc != 3)
&& ((argc != 4) || !streq(argv[1], "-n")))
CONFIG("Usage: %s [-n] <dtb file> <dtb file>", argv[0]);
if (argc == 4)
notequal = 1;
fdt1 = load_blob(argv[argc-2]);
fdt2 = load_blob(argv[argc-1]);
compare_mem_rsv(fdt1, fdt2);
compare_structure(fdt1, fdt2);
cpuid1 = fdt_boot_cpuid_phys(fdt1);
cpuid2 = fdt_boot_cpuid_phys(fdt2);
if (cpuid1 != cpuid2)
MISMATCH("boot_cpuid_phys mismatch 0x%x != 0x%x",
cpuid1, cpuid2);
MATCH();
}
int main(int argc, char *argv[])
{
void *fdt;
if (argc != 2)
CONFIG("Usage: %s <dtb file>\n", argv[0]);
test_init(argc, argv);
fdt = load_blob(argv[1]);
check_expected_failure(fdt, "/", "#address-cells");
check_expected_failure(fdt, "/", "#size-cells");
check_string_count(fdt, "/", "compatible", 1);
check_string_count(fdt, "/device", "compatible", 2);
check_string_count(fdt, "/device", "big-endian", 0);
check_string_index(fdt, "/", "compatible", "test-strings", 0);
check_string_index(fdt, "/device", "compatible", "foo", 0);
check_string_index(fdt, "/device", "compatible", "bar", 1);
check_string_index(fdt, "/device", "big-endian", "baz", -1);
check_string(fdt, "/", "compatible", 0, "test-strings");
check_string(fdt, "/device", "compatible", 0, "foo");
check_string(fdt, "/device", "compatible", 1, "bar");
PASS();
}
int main(int argc, char *argv[])
{
void *fdt1, *fdt2;
uint32_t cpuid1, cpuid2;
char **args;
int argsleft;
test_init(argc, argv);
args = &argv[1];
argsleft = argc - 1;
while (argsleft > 2) {
if (streq(args[0], "-n"))
notequal = 1;
else if (streq(args[0], "-m"))
ignore_memrsv = 1;
else
badargs(argv);
args++;
argsleft--;
}
if (argsleft != 2)
badargs(argv);
fdt1 = load_blob(args[0]);
fdt2 = load_blob(args[1]);
if (!ignore_memrsv)
compare_mem_rsv(fdt1, fdt2);
compare_node(fdt1, 0, fdt2, 0);
cpuid1 = fdt_boot_cpuid_phys(fdt1);
cpuid2 = fdt_boot_cpuid_phys(fdt2);
if (cpuid1 != cpuid2)
MISMATCH("boot_cpuid_phys mismatch 0x%x != 0x%x",
cpuid1, cpuid2);
MATCH();
}
int main(int argc, char *argv[])
{
void *fdt;
uint32_t cpuid;
test_init(argc, argv);
if (argc != 3)
CONFIG("Usage: %s <dtb file> <cpuid>", argv[0]);
fdt = load_blob(argv[1]);
cpuid = strtoul(argv[2], NULL, 0);
if (fdt_boot_cpuid_phys(fdt) != cpuid)
FAIL("Incorrect boot_cpuid_phys (0x%x instead of 0x%x)",
fdt_boot_cpuid_phys(fdt), cpuid);
PASS();
}
int main (int argc, char *argv[])
{
int ret;
sqlite3 *handle;
char *err_msg = NULL;
char **results;
int rows;
int columns;
unsigned char *blob;
int blob_len;
char *hexBlob;
unsigned char *xml;
int len;
char *sql;
void *cache = spatialite_alloc_connection();
if (argc > 1 || argv[0] == NULL)
argc = 1; /* silencing stupid compiler warnings */
ret = sqlite3_open_v2 (":memory:", &handle, SQLITE_OPEN_READWRITE | SQLITE_OPEN_CREATE, NULL);
if (ret != SQLITE_OK) {
fprintf(stderr, "cannot open in-memory db: %s\n", sqlite3_errmsg (handle));
sqlite3_close(handle);
return -1;
}
spatialite_init_ex (handle, cache, 0);
ret = sqlite3_exec (handle, "SELECT InitSpatialMetadata(1, 'WGS84')", NULL, NULL, &err_msg);
if (ret != SQLITE_OK) {
fprintf(stderr, "Unexpected InitSpatialMetadata result: %i, (%s)\n", ret, err_msg);
sqlite3_free (err_msg);
return -2;
}
#ifdef ENABLE_LIBXML2 /* only if LIBXML2 is supported */
ret = sqlite3_get_table (handle, "SELECT CreateStylingTables(1)", &results, &rows, &columns, &err_msg);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error CreateStylingTables: %s\n", err_msg);
sqlite3_free (err_msg);
return -3;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -4;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #0 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -5;
}
sqlite3_free_table(results);
blob = load_blob("empty.png", &blob_len);
if (blob == NULL)
return -6;
hexBlob = build_hex_blob(blob, blob_len);
free(blob);
if (hexBlob == NULL)
return -7;
sql = sqlite3_mprintf("SELECT RegisterExternalGraphic('url-A', x%Q)", hexBlob);
ret = sqlite3_get_table (handle, sql, &results, &rows, &columns, &err_msg);
sqlite3_free(sql);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterExternalGraphic #1: %s\n", err_msg);
sqlite3_free (err_msg);
return -8;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -9;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #1 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -10;
}
sqlite3_free_table(results);
sql = sqlite3_mprintf("SELECT RegisterExternalGraphic('url-A', x%Q, 'title', 'abstract', 'file_name')", hexBlob);
ret = sqlite3_get_table (handle, sql, &results, &rows, &columns, &err_msg);
free(hexBlob);
sqlite3_free(sql);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterExternalGraphic #2: %s\n", err_msg);
sqlite3_free (err_msg);
return -11;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -12;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #2 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -13;
}
sqlite3_free_table(results);
xml = load_xml("thunderstorm_mild.svg", &len);
if (xml == NULL)
return -14;
gaiaXmlToBlob (cache, xml, len, 1, NULL, &blob, &blob_len, NULL, NULL);
free(xml);
if (blob == NULL) {
fprintf (stderr, "this is not a well-formed XML !!!\n");
return -15;
}
hexBlob = build_hex_blob(blob, blob_len);
free(blob);
if (hexBlob == NULL)
return -16;
sql = sqlite3_mprintf("SELECT RegisterExternalGraphic('url-B', x%Q, 'title', 'abstract', 'file_name')", hexBlob);
ret = sqlite3_get_table (handle, sql, &results, &rows, &columns, &err_msg);
sqlite3_free(sql);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterExternalGraphic #3: %s\n", err_msg);
sqlite3_free (err_msg);
return -17;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -18;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #3 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -19;
}
sqlite3_free_table(results);
sql = sqlite3_mprintf("SELECT RegisterExternalGraphic('url-B', x%Q)", hexBlob);
ret = sqlite3_get_table (handle, sql, &results, &rows, &columns, &err_msg);
free(hexBlob);
sqlite3_free(sql);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterExternalGraphic #4: %s\n", err_msg);
sqlite3_free (err_msg);
return -20;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -21;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #4 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -22;
}
sqlite3_free_table(results);
ret = sqlite3_exec (handle, "CREATE TABLE table1 (id INTEGER PRIMARY KEY AUTOINCREMENT)", NULL, NULL, &err_msg);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error Create Table table1: %s\n", err_msg);
sqlite3_free (err_msg);
return -23;
}
ret = sqlite3_get_table (handle, "SELECT AddGeometryColumn('table1', 'geom', 4326, 'POINT', 'XY')", &results, &rows, &columns, &err_msg);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error AddGeometryColumn: %s\n", err_msg);
sqlite3_free (err_msg);
return -24;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -25;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #5 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -26;
}
sqlite3_free_table(results);
xml = load_xml("stazioni_se.xml", &len);
if (xml == NULL)
return -27;
gaiaXmlToBlob (cache, xml, len, 1, NULL, &blob, &blob_len, NULL, NULL);
free(xml);
if (blob == NULL) {
fprintf (stderr, "this is not a well-formed XML !!!\n");
return -28;
}
hexBlob = build_hex_blob(blob, blob_len);
free(blob);
if (hexBlob == NULL)
return -29;
sql = sqlite3_mprintf("SELECT RegisterVectorStyledLayer('table1', 'geom', x%Q)", hexBlob);
ret = sqlite3_get_table (handle, sql, &results, &rows, &columns, &err_msg);
sqlite3_free(sql);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterVectorStyledLayer #6: %s\n", err_msg);
sqlite3_free (err_msg);
return -30;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -31;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #6 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -32;
}
sqlite3_free_table(results);
sql = sqlite3_mprintf("SELECT RegisterVectorStyledLayer('table1', 'geom', 0, x%Q)", hexBlob);
free(hexBlob);
ret = sqlite3_get_table (handle, sql, &results, &rows, &columns, &err_msg);
sqlite3_free(sql);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterVectorStyledLayer #7: %s\n", err_msg);
sqlite3_free (err_msg);
return -33;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -34;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #7 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -35;
}
sqlite3_free_table(results);
xml = load_xml("raster_se.xml", &len);
if (xml == NULL)
return -36;
gaiaXmlToBlob (cache, xml, len, 1, NULL, &blob, &blob_len, NULL, NULL);
free(xml);
if (blob == NULL) {
fprintf (stderr, "this is not a well-formed XML !!!\n");
return -37;
}
hexBlob = build_hex_blob(blob, blob_len);
free(blob);
if (hexBlob == NULL)
return -38;
sql = sqlite3_mprintf("SELECT RegisterRasterStyledLayer('srtm', x%Q)", hexBlob);
ret = sqlite3_get_table (handle, sql, &results, &rows, &columns, &err_msg);
sqlite3_free(sql);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterRasterStyledLayer #8: %s\n", err_msg);
sqlite3_free (err_msg);
return -39;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -40;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #8 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -41;
}
sqlite3_free_table(results);
sql = sqlite3_mprintf("SELECT RegisterRasterStyledLayer('srtm', 0, x%Q)", hexBlob);
free(hexBlob);
ret = sqlite3_get_table (handle, sql, &results, &rows, &columns, &err_msg);
sqlite3_free(sql);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterRasterStyledLayer #9: %s\n", err_msg);
sqlite3_free (err_msg);
return -42;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -43;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #9 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -44;
}
sqlite3_free_table(results);
ret = sqlite3_get_table (handle, "SELECT RegisterStyledGroup('group', 'srtm', 0)", &results, &rows, &columns, &err_msg);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterStyledGroup #10: %s\n", err_msg);
sqlite3_free (err_msg);
return -45;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -46;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #10 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -47;
}
sqlite3_free_table(results);
ret = sqlite3_get_table (handle, "SELECT RegisterStyledGroup('group', 'table1', 'geom', 0)", &results, &rows, &columns, &err_msg);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterStyledGroup #11: %s\n", err_msg);
sqlite3_free (err_msg);
return -48;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -49;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #12 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -50;
}
sqlite3_free_table(results);
ret = sqlite3_get_table (handle, "SELECT RegisterStyledGroup('group', 'srtm', 0, 4)", &results, &rows, &columns, &err_msg);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterStyledGroup #13: %s\n", err_msg);
sqlite3_free (err_msg);
return -51;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -52;
}
if (strcmp(results[1 * columns + 0], "0") != 0)
{
fprintf (stderr, "Unexpected #13 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -53;
}
sqlite3_free_table(results);
ret = sqlite3_get_table (handle, "SELECT RegisterStyledGroup('group', 'table1', 'geom', 0, 1)", &results, &rows, &columns, &err_msg);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterStyledGroup #14: %s\n", err_msg);
sqlite3_free (err_msg);
return -54;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -55;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #14 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -56;
}
sqlite3_free_table(results);
ret = sqlite3_get_table (handle, "SELECT SetStyledGroupInfos('group', 'title', 'abstract')", &results, &rows, &columns, &err_msg);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterStyledGroup #15: %s\n", err_msg);
sqlite3_free (err_msg);
return -57;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -58;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #15 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -59;
}
sqlite3_free_table(results);
ret = sqlite3_get_table (handle, "SELECT SetStyledGroupInfos('group-bis', 'title', 'abstract')", &results, &rows, &columns, &err_msg);
if (ret != SQLITE_OK) {
fprintf (stderr, "Error RegisterStyledGroup #16: %s\n", err_msg);
sqlite3_free (err_msg);
return 60;
}
if ((rows != 1) || (columns != 1))
{
sqlite3_free_table(results);
fprintf (stderr, "Unexpected row / column count: %i x %i\n", rows, columns);
return -61;
}
if (strcmp(results[1 * columns + 0], "1") != 0)
{
fprintf (stderr, "Unexpected #16 result (got %s, expected 1)", results[1 * columns + 0]);
sqlite3_free_table(results);
return -62;
}
sqlite3_free_table(results);
#endif
ret = sqlite3_close (handle);
if (ret != SQLITE_OK) {
fprintf (stderr, "sqlite3_close() error: %s\n", sqlite3_errmsg (handle));
return -57;
}
spatialite_cleanup_ex (cache);
#ifdef ENABLE_LIBXML2 /* only if LIBXML2 is supported */
xmlCleanupParser();
#endif
return 0;
}
static II_VOID
load_columns
(
IIAPI_STMTHNDL *stmtHndl,
IIAPI_GETCOLPARM *getColParm,
IIAPI_MSG_BUFF *msgBuff
)
{
IIAPI_DESCRIPTOR *descr;
IIAPI_DATAVALUE *value;
i4 length;
u_i2 len;
bool done;
IIAPI_TRACE( IIAPI_TR_VERBOSE )
( "IIapi_loadColumns: %d columns starting with %d, %d total columns\n",
(II_LONG)stmtHndl->sh_colFetch,
(II_LONG)stmtHndl->sh_colIndex,
(II_LONG)stmtHndl->sh_colCount );
descr = &stmtHndl->sh_colDescriptor[ stmtHndl->sh_colIndex ];
value = &getColParm->gc_columnData[ (getColParm->gc_rowsReturned *
getColParm->gc_columnCount) +
getColParm->gc_columnCount -
stmtHndl->sh_colFetch ];
/*
** Process columns until all done or input buffer exhausted.
*/
for( ; stmtHndl->sh_colFetch;
stmtHndl->sh_colFetch--, stmtHndl->sh_colIndex++, descr++, value++ )
{
/*
** Clear column info at start of row. The more segments
** flag must not be set otherwise the first column is a
** LOB which has already been partially processed. There
** must also be at least some data available for the first
** column, otherwise we may be clearing the info when the
** last row has already been received.
*/
if (
stmtHndl->sh_colIndex == 0 &&
! (stmtHndl->sh_flags & IIAPI_SH_MORE_SEGMENTS) &&
msgBuff->length > 0
)
{
i2 i;
for( i = 0; i < stmtHndl->sh_colCount; i++ )
stmtHndl->sh_colInfo[ i ].ci_flags = 0;
}
/*
** Blobs are broken into segments of variable lengths
** and require special handling to load segments using
** internal data value info.
*/
if ( IIapi_isBLOB( descr->ds_dataType ) )
done = load_blob( stmtHndl, getColParm, descr, msgBuff, value );
else
done = cnvtGDV2DataValue( stmtHndl, descr, msgBuff, value,
(stmtHndl->sh_flags & IIAPI_SH_COMP_VARCHAR) ? TRUE : FALSE );
if ( ! done ) break; /* Need more data for current column */
stmtHndl->sh_colInfo[ stmtHndl->sh_colIndex ].ci_flags |=
IIAPI_CI_AVAIL;
IIAPI_TRACE( IIAPI_TR_VERBOSE )
( "IIapi_loadColumns: loaded data for column %d\n",
(II_LONG)stmtHndl->sh_colIndex );
}
return;
}
receive_return_type OSC_Base::_Receive(const char *buffer, size_t len, OSC_Base *origin) {
osc_message message;
osc_on_message_args args;
int offset;
data_holder_type temp_data;
args.message = &message;
args.interface = this;
//Serial.println("OSC _Receive - called");
//Serial.printf("OSC _Receive - head: 0x%08X\r\n", ps.head);
if (len < 8) goto error_incomplete;
message.origin = origin;
message.header.path = buffer;
for (message.header.path_length = 0; message.header.path[message.header.path_length] && message.header.path_length < len; message.header.path_length++);
offset = (message.header.path_length+4) & (~3);
if (message.header.path_length >= len || offset >= len) goto error_incomplete;
//Serial.println("OSC _Receive - sanity checks");
if (message.header.path[0] == '#') {
//Serial.println("OSC _Receive - #bundle");
// handle special # code messages - bundle
if (stringCompareWNull(message.header.path, "#bundle")) {
data_holder_type timetag;
message.typetag = (const char*) NULL;
message.typetag_length = 0;
if (len < 20) goto error_incomplete;
timetag.raw_header = 0;
timetag.type = TYPE_TIMETAG;
offset += load_64bit(&buffer[offset], &timetag);
temp_data.type = TYPE_MESSAGE;
temp_data.is_array = 1;
offset += load_blob(&buffer[offset], &temp_data);
if (offset >= len) goto error_incomplete;
// TODO: finish this to actually handle bundles properly
return BUNDLE_RECEIVED;
}
return ERROR_PARSE;
}
else {
//Serial.println("OSC _Receive - message");
// data handling will take place on a 'parseMessage' call, right now we just need to find the limits of the message
message.typetag = &buffer[offset];
for (message.typetag_length = 0; message.typetag[message.typetag_length]; message.typetag_length++);
offset += (message.typetag_length+4) & (~3);
//Serial.printf("OSC _Receive - path and typetag; Offset: %d, Path: %d, Typetag: %d\r\n", offset, message.header.path_length, message.typetag_length);
message.header.offset_to_data = offset >> 2;
message.data_count = message.typetag_length-1;
for (int i = 0; i < message.data_count; i++) {
switch(message.typetag[i+1]) {
case 'c': // TYPE_CHARACTER; offset += load_32bit(&buffer[offset], &message.data[i]); break;
case 'f': // TYPE_FLOAT; offset += load_32bit(&buffer[offset], &message.data[i]); break;
case 'i': // TYPE_INTEGER; offset += load_32bit(&buffer[offset], &message.data[i]); break;
case 'r': // TYPE_COLOR; offset += load_32bit(&buffer[offset], &message.data[i]); break;
offset += 4;
//Serial.printf("OSC _Receive - 32bit value; Offset: %d\r\n", offset);
break;
case 't': // TYPE_TIMETAG; offset += load_64bit(&buffer[offset], &message.data[i]); break;
case 'h': // TYPE_LONG; offset += load_64bit(&buffer[offset], &message.data[i]); break;
case 'd': // TYPE_DOUBLE; offset += load_64bit(&buffer[offset], &message.data[i]); break;
offset += 8;
//Serial.printf("OSC _Receive - 64bit value; Offset: %d\r\n", offset);
break;
case 'F': // TYPE_FALSE; message.data[i].value_uint32 = 0; break;
case 'N': // TYPE_NONE; message.data[i].value_uint32 = 0; break;
case 'I': // TYPE_IMPULSE; message.data[i].value_uint32 = 1; break;
case 'T': // TYPE_TRUE; message.data[i].value_uint32 = 1; break;
break;
case 's': // TYPE_STRING; offset += load_string(&buffer[offset], &message.data[i]); break;
offset += load_string(&buffer[offset], &temp_data);
//Serial.printf("OSC _Receive - string; Offset: %d\r\n", offset);
break;
case 'b': // TYPE_BLOB; offset += load_blob(&buffer[offset], &message.data[i]); break;
offset += load_blob(&buffer[offset], &temp_data);
//Serial.printf("OSC _Receive - blob; Offset: %d\r\n", offset);
break;
case 'B': // TYPE_ADVBLOB; offset += load_advblob(&buffer[offset], &message.data[i]); break;
offset += load_blob(&buffer[offset], &temp_data);
//Serial.printf("OSC _Receive - advblob; Offset: %d\r\n", offset);
break;
}
if (offset > len) goto error_incomplete;
}
//Serial.println("OSC _Receive - data measured");
message.header.length = offset;
// -------------- handle message
//Serial.printf("OSC _Receive - Addresses for Pathsearch: 0x%08X 0x%08X 0x%08X\r\n", &ps, message.header.path, &args);
//Serial.printf("OSC _Receive - head: 0x%08X\r\n", ps.head);
//Serial.printf("OSC _Receive - matches: %d\r\n", pathSearch(&ps, message.header.path, (void*)&args));
pathSearch(&ps, message.header.path, (void*)&args);
//Serial.println("OSC _Receive - pathsearch done");
// -----------------------------
//Serial.println("OSC _Receive - finished");
return MESSAGE_RECEIVED;
}
// One of the only times I'll ever use gotos
// This makes sure the allocated space, if any, is freed before exiting
error_incomplete:
Serial.printf("OSC _Receive - Error: Incomplete - offset: %d len: %d\r\n", offset, len);
return ERROR_INCOMPLETE;
error_parse:
Serial.println("OSC _Receive - Error: Parse");
return ERROR_PARSE;
}
int main(int argc, char** argv)
{
//reading data values
int fd;
int ctr_numhits=0;
int num_records=0;
ssize_t numbytes;
int compare = 1;
off_t offset = 0;
char error_buf[ERROR_BUF_SIZE];
int headersize=DR_HEAER_SIZE;
int next_buffer_size=1;
int datasize=next_buffer_size;
char *header = (char *) malloc(DR_HEAER_SIZE);
char *data = (char *) malloc(MAX_DATA_SIZE);
//plotting variables
int maxbin = 0;
int maxvalue = 0;
int xmax = (int) BINS;
//data values
int finebin = 0 ;
int bytesread = 1;
int value;
int pfb_bin = 0;
int fft_bin = 0;
int fft_bin_loc= 0;
int over_thresh = 0;
int blank = 0;
int event = 0;
unsigned int pfb_fft_power = 0;
unsigned int fields;
long int i = 0;
int j = 0;
int k = 0;
int ctr = 0;
int counter=0;
int beamnum = 0;
double fstep,fscoarse = 0.0;
double rfmin,rfctr = 0.0;
double freq_fft_bin = 0.0;
double bary_freq = 0.0;
char rawfile[] = "largefile_MMMDDYYYY_HHMM";
int gooddata=1;
int goodfreq=1;
long int fileposition=0; //position in input file
long int filesize; //position in input file
FILE *fout;
//create buffers
struct spectral_data spectra;
struct data_vals *data_ptr;
data_ptr = (struct data_vals *)data;
//create header structure
struct setidata frame;
// create time structure
tm hittime;
double spec_time;
// create SQL structures
unsigned long int specid;
//strcpy(def_password, argv[2]);
char sqlquery[1024];
char hitquery[1024];
// file variables
FILE *datatext;
// connect to mySQL database
dbconnect();
#ifdef GRACE
// Initialize grace plotting windows
grace_init();
// grace_open_deux(8192);
// grace_init_deux(maxbin,maxvalue,xmax);
#endif
//check for error opening file
fd = open(argv[1], O_RDONLY);
if(fd==-1)
{
snprintf(error_buf, ERROR_BUF_SIZE, "Error opening file %s", argv[1]);
perror(error_buf);
return 0;
}
//if we can't find a header, nothing to be done
if(find_first_header(fd)==-1) return 0;
//read header
//make sure we are reading as much data as expected, otherwise might be at eof
while(headersize==DR_HEAER_SIZE && datasize==next_buffer_size)
{
k = k+1;
//reset dataflag to "good"
gooddata=1;
// read in the header data
headersize = read(fd, (void *) header, DR_HEAER_SIZE);
fileposition+=headersize;
// int iii=0;
// for(iii=0; iii<DR_HEAER_SIZE; iii++)
// printf("%c", header[iii]);
//get the size of spectra and parse header values
next_buffer_size = read_header(header);
read_header_data(header, &frame);
//Read in data
datasize = read(fd, (void *) data, next_buffer_size);
fileposition+=datasize;
// printf("Buffersize, datasize: %d %d\n", next_buffer_size, datasize);
// int iii=0;
// printf("Printing data header\n");
// for(iii=0; iii<datasize; iii++)
// printf("%c", data[iii]);
//Parse data header
beamnum = read_beam(data, datasize);
read_data_header(data, &frame);
//Convert to RA and Dec
scramAzZatoRaDec(frame.agc_systime, frame.agc_time, frame.agc_az, frame.agc_za,
frame.alfashm_alfamotorposition, beamnum/2, 0, &frame.ra, &frame.dec, &hittime);
get_filename(argv[1], rawfile);
// printf("%s\n", rawfile);
//Calculate MJD
spec_time = time2mjd(frame.agc_systime, frame.agc_time);
// creates query to config table
// set digital_lo and board to be constants, because we figured we knew
// what they were and that they weren't changing
char bid[] = "B2";
sprintf(sqlquery, "INSERT INTO config (thrscale, thrlimit, fftshift, pfbshift, beamnum, obstime, ra, decl, digital_lo, board, AGC_SysTime, AGC_Time, AGC_Az, AGC_Za, AlfaFirstBias, AlfaSecondBias, AlfaMotorPosition, IF1_rfFreq, synI_freqHz, IF1_synI_ampDB, IF1_if1FrqMHz, IF1_alfaFb, TT_TurretEncoder, TT_TurretDegrees, rawfile) VALUES (%ld, %ld, %ld, %ld, %d, %lf, %lf, %lf, %ld, '%s', %ld, %ld, %lf, %lf, %ld, %ld, %lf, %9.1lf, %9.1lf, %ld, %lf, %ld, %ld, %lf, '%s')",
frame.thrscale, frame.thrlimit, frame.fft_shift, frame.pfb_shift,
beamnum, (double) ((int) spec_time), frame.ra, frame.dec, 200000000, bid, frame.agc_systime, frame.agc_time,
frame.agc_az, frame.agc_za, frame.alfashm_alfafirstbias, frame.alfashm_alfasecondbias,
frame.alfashm_alfamotorposition, frame.if1_rffreq, frame.if1_syni_freqhz_0, frame.if1_syni_ampdb_0,
frame.if1_if1frqmhz, frame.if1_alfafb, frame.tt_turretencoder, frame.tt_turretdegrees, rawfile);
#ifndef DEBUG
// insert header data into serendipvv config table
if (mysql_query(conn, sqlquery)) {
fprintf(stderr, "Error inserting data into sql database... \n");
exiterr(3);
}
// saves specid to be inserted at index in other sql tables
if ((res = mysql_store_result(conn))==0 && mysql_field_count(conn)==0 && mysql_insert_id(conn)!=0) {
specid = (unsigned long int) mysql_insert_id(conn);
}
#endif
#ifdef DEBUG
printf("%s\n", sqlquery);
printf("Spec id: %d\n", specid);
#endif
//doesn't do any bounds checking yet...
spectra.numhits = read_data(data, datasize) - 4096;
//printf("size of spectra %d\n",spectra.numhits);
//header,data
data_ptr = (struct data_vals *) (data+SETI_HEADER_SIZE_IN_BYTES);
//======================== TEST FILE DATA DUMP ================
/*
FILE *datafile;
char dataf[100];
sprintf(dataf,"datafiles/datafile%d.dat",counter);
datafile = fopen(dataf,"wb");
fwrite(data,spectra.numhits,1,(FILE *)datafile);
fflush(datafile);
fclose(datafile);
*/
//==============================================
num_records = read_data(data,datasize);
ctr_numhits=0;
//create file spectraldata and print file header
/* char filename[BUFSIZ];
sprintf(filename, "spectraldata%d", beamnum);
datatext = fopen(filename,"w");
fprintf(datatext, "specnum,beamnum,coarsebin,coarsepower,hitpower,fftbin\n");
*/
//Calc values for freq_topo calc
//Freq chan resolution
fstep = 200000000.0/134217728;
fscoarse = 200000000.0/4096;
//Center of the BEE2 bandpass
rfctr = frame.if1_rffreq - 50000000.0;
//Right edge of the last bin is the lowest freq
//because the RF band is flipped in the IF
// rfmin=rfctr-0.5*fscoarse;
rfmin=rfctr+0.5*fscoarse;
//Check to see if there are too many hits
if(num_records>0.9*frame.thrlimit*4096) {
gooddata=0;
fprintf(stderr, "Data bad...more than %5.0lf hits.\n", 0.9*frame.thrlimit*4096);
}
//****OPEN FILE TO WRITE HITS TO
fout=fopen("hits_list.txt", "w");
//============================
// LOOP OVER HITS
//=============================
for(i=0;i< num_records ;i++)
{
goodfreq=1;
fields = ntohl(data_ptr->raw_data);
fft_bin = slice(fields,15,0);
pfb_bin = slice(fields,12,15);
over_thresh = slice(fields,1,27);
blank = slice(fields,3,28);
event = slice(fields,1,31);
pfb_fft_power = ntohl(data_ptr->overflow_cntr); //32.0
// pfb_fft_power = data_ptr->overflow_cntr; //32.0
//Rearrange the bins
//1) Reorder the FFT output order
//2) Reverse bins due to RF/IF flip
pfb_bin = (pfb_bin + 2048) % 4096;
// pfb_bin = 4096 - pfb_bin;
pfb_bin = 4095 - pfb_bin;
fft_bin = (fft_bin + 16384) % 32768;
// fft_bin = 32768 - fft_bin;
fft_bin = 32767 - fft_bin;
fft_bin_loc = fft_bin;
fft_bin+=pfb_bin*32768;
freq_fft_bin = rfmin + fstep*fft_bin;
//Check that the freq of the hit falls within the valid ranges
if(frame.if1_alfafb==1){
if(freq_fft_bin < NBF_FREQ_LO || freq_fft_bin > NBF_FREQ_HI) goodfreq=0;
}
else if(frame.if1_alfafb==0){
if(freq_fft_bin < ALFA_FREQ_LO || freq_fft_bin > ALFA_FREQ_HI) goodfreq=0;
}
value = (int) (pfb_fft_power);
//printf("%d %d %d %d %d %d\n", pfb_bin, fft_bin, pfb_fft_power, blank, event, over_thresh);
if(value < 1)
{
value = 1;
}
if(value > maxvalue)
{
maxvalue = value;
maxbin = fft_bin;
}
//populate coarse bin power
if(fft_bin_loc==16383)
{
spectra.coarse_spectra[pfb_bin] = value;
}
//Only generate string and insert into database if hit valid
if(fft_bin_loc!=16383 && goodfreq==1 && gooddata==1)
{
// spectra.hits[ctr_numhits][0] = value;
// spectra.hits[ctr_numhits][1] = fft_bin;
//Calculate the frequency of the fine bins and barycenter
bary_freq=freq_fft_bin+seti_dop_FreqOffsetAtBaryCenter(freq_fft_bin,
spec_time+2400000.5, frame.ra, frame.dec, 2000.0, AO_LAT, AO_LONG, AO_ELEV);
//Prepare mysql query to insert hits
sprintf(hitquery, "INSERT INTO hit (eventpower, meanpower, binnum, topocentric_freq, barycentric_freq, specid) VALUES (%f, %e, %d, %lf, %lf, %ld)", (double) value, (double) spectra.coarse_spectra[pfb_bin], fft_bin, freq_fft_bin, bary_freq, specid);
//Write row to tmp file
fprintf(fout, "\\N\t %f\t %e\t %d\t %lf\t %lf\t 0\t 0\t 0\t 0\t 0\t %ld\t \n", (double) value, (double) spectra.coarse_spectra[pfb_bin], fft_bin, freq_fft_bin, bary_freq, specid);
/*
#ifndef DEBUG
// insert header data into serendipvv config table
if (mysql_query(conn, hitquery)) {
fprintf(stderr, "Error inserting data into sql database... \n");
exiterr(3);
}
#endif */
}
// fill spectraldata with available data and close file
// fprintf(datatext, "%d, %d, %d, %e, %f, %d\n", k, beamnum, pfb_bin, (double) spectra.coarse_spectra[pfb_bin], (double) value, fft_bin);
ctr_numhits++;
data_ptr++;
ctr++;
}//for(i=0; i<num_records; i++)
fclose(fout);
sprintf(hitquery, "LOAD DATA LOCAL INFILE 'hits_list.txt' INTO TABLE hit");
// printf("%s\n", hitquery);
if (mysql_query(conn, hitquery)) {
fprintf(stderr, "Error inserting data into sql database... \n");
exiterr(3);
}
// fclose(datatext);
#ifndef DEBUG
if(load_blob(conn, specid, spectra.coarse_spectra)!=0)
{
fprintf(stderr, "Blob not loaded\n");
specid=0;
}
#endif
// GracePrintf("autoticks");
// GracePrintf("redraw");
// GracePrintf("updateall");
// GracePrintf("kill g0.s0");
// GracePrintf("saveall \"plots/sample%d.agr\"",counter);
// grace_init_deux(maxbin,log10(maxvalue),xmax);
counter++;
for(i=0;i<4094;i++) {
spectra.coarse_spectra[i] = spectra.coarse_spectra[i+1];
}
#ifdef GRACE
plot_beam(&spectra,beamnum);
printf("num_records: %d spectra.numhits %d\n",num_records,spectra.numhits);
usleep(200000);
if(counter%10 == 0) {
printf("autoscaling...\n");
GracePrintf("redraw");
GracePrintf("updateall");
GracePrintf("autoscale");
/*
//output pdf via grace
GracePrintf("HARDCOPY DEVICE \"EPS\"");
printf("start eps create\n");
GracePrintf("PAGE SIZE 600, 600");
GracePrintf("saveall \"sample.agr\"");
GracePrintf("PRINT TO \"%s\"", "plot.eps");
GracePrintf("PRINT");
*/
}
#endif
}
//=====================================================
/*
// play with some text
for(i=0; i<10; i++){
GracePrintf("WITH STRING %d", i);
GracePrintf("STRING COLOR 0");
GracePrintf("STRING FONT 8");
GracePrintf("STRING DEF \"TEST\"");
GracePrintf("STRING ON");
GracePrintf("STRING LOCTYPE view");
GracePrintf("STRING 0.70, %f", 0.95 - (((float) i) / 40.0) );
}
GracePrintf("redraw");
sleep(5);
*/
//===========================================================
#ifdef GRACE
if (GraceIsOpen()) {
//Flush the output buffer and close Grace
GraceClose();
// We are done
exit(EXIT_SUCCESS);
} else {
exit(EXIT_FAILURE);
}
#endif
//close file
close(fd);
return 0;
}
