END_TEST
START_TEST (test_addValueEntry)
{
EXIStream testStrm;
errorCode tmp_err_code = EXIP_UNEXPECTED_ERROR;
String testStr = {"TEST-007", 8};
// IV: Initialize the stream
{
tmp_err_code = initAllocList(&(testStrm.memList));
testStrm.context.bitPointer = 0;
testStrm.buffer.bufLen = 0;
testStrm.buffer.bufContent = 0;
tmp_err_code += createValueTable(&testStrm.valueTable);
testStrm.schema = memManagedAllocate(&testStrm.memList, sizeof(EXIPSchema));
fail_unless (testStrm.schema != NULL, "Memory alloc error");
/* Create and initialize initial string table entries */
tmp_err_code += createDynArray(&testStrm.schema->uriTable.dynArray, sizeof(UriEntry), DEFAULT_URI_ENTRIES_NUMBER);
tmp_err_code += createUriTableEntries(&testStrm.schema->uriTable, FALSE);
}
fail_unless (tmp_err_code == EXIP_OK, "initStream returns an error code %d", tmp_err_code);
testStrm.gStack->currQNameID.uriId = 1; // http://www.w3.org/XML/1998/namespace
testStrm.gStack->currQNameID.lnId = 2; // lang
tmp_err_code = addValueEntry(&testStrm, testStr, testStrm.gStack->currQNameID);
fail_unless (tmp_err_code == EXIP_OK, "addValueEntry returns an error code %d", tmp_err_code);
#if VALUE_CROSSTABLE_USE
fail_unless (testStrm.schema->uriTable.uri[testStrm.gStack->currQNameID.uriId].lnTable.ln[testStrm.gStack->currQNameID.lnId].vxTable != NULL, "addValueEntry does not create vxTable");
fail_unless (testStrm.schema->uriTable.uri[testStrm.gStack->currQNameID.uriId].lnTable.ln[testStrm.gStack->currQNameID.lnId].vxTable->count == 1, "addValueEntry does not create correct vxTable");
#endif
fail_unless (testStrm.valueTable.count == 1, "addValueEntry does not create global value entry");
destroyDynArray(&testStrm.valueTable.dynArray);
destroyDynArray(&testStrm.schema->uriTable.dynArray);
freeAllocList(&testStrm.memList);
}
errorCode initSchema(EXIPSchema* schema, unsigned char initializationType)
{
errorCode tmp_err_code = UNEXPECTED_ERROR;
tmp_err_code = initAllocList(&schema->memList);
if(tmp_err_code != ERR_OK)
return tmp_err_code;
schema->staticGrCount = 0;
schema->docGrammar.contentIndex = 0;
schema->docGrammar.count = 0;
schema->docGrammar.props = 0;
schema->docGrammar.rule = NULL;
schema->simpleTypeTable.count = 0;
schema->simpleTypeTable.sType = NULL;
schema->grammarTable.count = 0;
schema->grammarTable.grammar = NULL;
schema->enumTable.count = 0;
schema->enumTable.enumDef = NULL;
/* Create and initialize initial string table entries */
tmp_err_code = createDynArray(&schema->uriTable.dynArray, sizeof(UriEntry), DEFAULT_URI_ENTRIES_NUMBER);
if(tmp_err_code != ERR_OK)
{
freeAllocList(&schema->memList);
return tmp_err_code;
}
tmp_err_code = createUriTableEntries(&schema->uriTable, initializationType != INIT_SCHEMA_SCHEMA_LESS_MODE);
if(tmp_err_code != ERR_OK)
{
freeAllocList(&schema->memList);
return tmp_err_code;
}
if(initializationType == INIT_SCHEMA_SCHEMA_ENABLED)
{
/* Create and initialize enumDef table */
tmp_err_code = createDynArray(&schema->enumTable.dynArray, sizeof(EnumDefinition), DEFAULT_ENUM_TABLE);
if(tmp_err_code != ERR_OK)
{
freeAllocList(&schema->memList);
return tmp_err_code;
}
}
/* Create the schema grammar table */
tmp_err_code = createDynArray(&schema->grammarTable.dynArray, sizeof(EXIGrammar), DEFAULT_GRAMMAR_TABLE);
if(tmp_err_code != ERR_OK)
{
freeAllocList(&schema->memList);
return tmp_err_code;
}
if(initializationType != INIT_SCHEMA_SCHEMA_LESS_MODE)
{
/* Create and initialize simple type table */
tmp_err_code = createDynArray(&schema->simpleTypeTable.dynArray, sizeof(SimpleType), DEFAULT_SIMPLE_GRAMMAR_TABLE);
if(tmp_err_code != ERR_OK)
{
freeAllocList(&schema->memList);
return tmp_err_code;
}
tmp_err_code = createBuiltInTypesDefinitions(&schema->simpleTypeTable, &schema->memList);
if(tmp_err_code != ERR_OK)
{
freeAllocList(&schema->memList);
return tmp_err_code;
}
// Must be done after createBuiltInTypesDefinitions()
tmp_err_code = generateBuiltInTypesGrammars(schema);
if(tmp_err_code != ERR_OK)
{
freeAllocList(&schema->memList);
}
schema->staticGrCount = SIMPLE_TYPE_COUNT;
}
return tmp_err_code;
}
void freeAllMem(EXIStream* strm)
{
Index g, i, j;
DynGrammarRule* tmp_rule;
// Explicitly free the memory for any build-in grammars
for(g = strm->schema->staticGrCount; g < strm->schema->grammarTable.count; g++)
{
for(i = 0; i < strm->schema->grammarTable.grammar[g].count; i++)
{
tmp_rule = &((DynGrammarRule*) strm->schema->grammarTable.grammar[g].rule)[i];
for(j = 0; j < 3; j++)
{
if(tmp_rule->part[j].prod != NULL) {}
EXIP_MFREE(tmp_rule->part[j].prod);
}
}
EXIP_MFREE(strm->schema->grammarTable.grammar[g].rule);
}
strm->schema->grammarTable.count = strm->schema->staticGrCount;
// Freeing the value cross tables
for(i = 0; i < strm->schema->uriTable.count; i++)
{
for(j = 0; j < strm->schema->uriTable.uri[i].lnTable.count; j++)
{
if(GET_LN_URI_IDS(strm->schema->uriTable, i, j).vxTable.vx != NULL)
{
destroyDynArray(&GET_LN_URI_IDS(strm->schema->uriTable, i, j).vxTable.dynArray);
}
strm->schema->uriTable.uri[i].lnTable.ln[j].vxTable.vx = NULL;
strm->schema->uriTable.uri[i].lnTable.ln[j].vxTable.count = 0;
}
}
// Hash tables are freed separately
// #DOCUMENT#
#if HASH_TABLE_USE == ON
if(strm->valueTable.hashTbl != NULL)
hashtable_destroy(strm->valueTable.hashTbl);
#endif
// Freeing the value table if present
if(strm->valueTable.value != NULL)
{
Index i;
for(i = 0; i < strm->valueTable.count; i++)
{
EXIP_MFREE(strm->valueTable.value[i].valueStr.str);
}
destroyDynArray(&strm->valueTable.dynArray);
}
// In case a default schema was used for this stream
if(strm->schema->staticGrCount <= SIMPLE_TYPE_COUNT)
{
// No schema-informed grammars. This is an empty EXIPSchema container that needs to be freed
// Freeing the string tables
for(i = 0; i < strm->schema->uriTable.count; i++)
{
if(strm->schema->uriTable.uri[i].pfxTable != NULL)
EXIP_MFREE(strm->schema->uriTable.uri[i].pfxTable);
destroyDynArray(&strm->schema->uriTable.uri[i].lnTable.dynArray);
}
destroyDynArray(&strm->schema->uriTable.dynArray);
destroyDynArray(&strm->schema->grammarTable.dynArray);
if(strm->schema->simpleTypeTable.sType != NULL)
destroyDynArray(&strm->schema->simpleTypeTable.dynArray);
freeAllocList(&strm->schema->memList);
}
freeAllocList(&(strm->memList));
}
END_TEST
/* Verifies a single global element also used as a reference. */
START_TEST (test_acceptance_for_A_01_exip1)
{
EXIPSchema schema;
FILE *infile;
Parser testParser;
char buf[INPUT_BUFFER_SIZE];
const char *schemafname = "testStates/acceptance-xsd.exi";
const char *exifname = "testStates/acceptance_a_01a.exi";
char exipath[MAX_PATH_LEN + strlen(exifname)];
struct appData parsingData;
errorCode tmp_err_code = EXIP_UNEXPECTED_ERROR;
BinaryBuffer buffer;
buffer.buf = buf;
buffer.bufContent = 0;
buffer.bufLen = INPUT_BUFFER_SIZE;
// Parsing steps:
// I.A: First, read in the schema
parseSchema(schemafname, &schema);
// I.B: Define an external stream for the input to the parser if any
size_t pathlen = strlen(dataDir);
memcpy(exipath, dataDir, pathlen);
exipath[pathlen] = '/';
memcpy(&exipath[pathlen+1], exifname, strlen(exifname)+1);
infile = fopen(exipath, "rb" );
if(!infile)
fail("Unable to open file %s", exipath);
buffer.ioStrm.readWriteToStream = readFileInputStream;
buffer.ioStrm.stream = infile;
// II: Second, initialize the parser object
tmp_err_code = initParser(&testParser, buffer, &parsingData);
fail_unless (tmp_err_code == EXIP_OK, "initParser returns an error code %d", tmp_err_code);
// III: Initialize the parsing data and hook the callback handlers to the parser object
parsingData.eventCount = 0;
parsingData.expectAttributeData = 0;
if (EXIP_OK != initAllocList(&parsingData.allocList))
fail("Memory allocation error!");
testParser.handler.fatalError = sample_fatalError;
testParser.handler.error = sample_fatalError;
testParser.handler.startDocument = sample_startDocument;
testParser.handler.endDocument = sample_endDocument;
testParser.handler.startElement = sample_startElement;
testParser.handler.attribute = sample_attribute;
testParser.handler.stringData = sample_stringData;
testParser.handler.endElement = sample_endElement;
testParser.handler.decimalData = sample_decimalData;
testParser.handler.intData = sample_intData;
testParser.handler.floatData = sample_floatData;
// IV: Parse the header of the stream
tmp_err_code = parseHeader(&testParser, FALSE);
fail_unless (tmp_err_code == EXIP_OK, "parsing the header returns an error code %d", tmp_err_code);
tmp_err_code = setSchema(&testParser, &schema);
fail_unless (tmp_err_code == EXIP_OK, "setSchema() returns an error code %d", tmp_err_code);
// V: Parse the body of the EXI stream
while(tmp_err_code == EXIP_OK)
{
switch (parsingData.eventCount)
{
case 0:
fail_unless(stringEqualToAscii(parsingData.eventCode, "SD"));
break;
case 1:
fail_unless(stringEqualToAscii(parsingData.eventCode, "SE"));
fail_unless(stringEqualToAscii(parsingData.uri, "urn:foo"));
fail_unless(stringEqualToAscii(parsingData.localName, "AB"));
break;
case 2:
fail_unless(stringEqualToAscii(parsingData.eventCode, "CH"));
break;
case 3:
fail_unless(stringEqualToAscii(parsingData.eventCode, "EE"));
break;
case 4:
fail_unless(stringEqualToAscii(parsingData.eventCode, "ED"));
break;
default:
// Unexpected event count caught below.
break;
}
tmp_err_code = parseNext(&testParser);
parsingData.eventCount++;
}
fail_unless(stringEqualToAscii(parsingData.eventCode, "ED"));
fail_unless(parsingData.eventCount == 4,
"Unexpected event count: %u", parsingData.eventCount);
// VI: Free the memory allocated by the parser object
freeAllocList(&parsingData.allocList);
destroyParser(&testParser);
fclose(infile);
fail_unless (tmp_err_code == EXIP_PARSING_COMPLETE, "Error during parsing of the EXI body %d", tmp_err_code);
}
