/// basic test for line iteration
void RangeSetLineIteratorTest::testBasicIteration()
{
CharTextDocument doc;
doc.setText( QStringLiteral("a1|b2|c3|d4|e5|f6").replace("|","\n"));
TextRangeSet ranges(&doc);
ranges.addRange(0,0); // line: 0
ranges.addRange(1,1); // line: 0
ranges.addRange(2,7); // line: 0-2
ranges.addRange(12,15); // line: 4-5
RangeSetLineIterator itr(&ranges);
testTrue( itr.hasNext() );
testEqual( itr.next(), 0 );
testTrue( itr.hasNext() );
testEqual( itr.next(), 1 );
testTrue( itr.hasNext() );
testEqual( itr.next(), 2 );
testTrue( itr.hasNext() );
testEqual( itr.next(), 4 );
testTrue( itr.hasNext() );
testEqual( itr.next(), 5 );
testFalse( itr.hasNext() );
testEqual( itr.next(), -1 );
}
void testEmpty()
{
struct Set *set = constructSet();
testTrue(empty(set) == true, "New set is empty");
add(set, 123);
testTrue(empty(set) == false, "Non empty set is not empty");
SetClose(set);
}
void TextDocumentScopesTest::testStartsWith()
{
TextScopeManager* sm = Edbee::instance()->scopeManager();
TextScope* source = sm->refTextScope("aa.bb.cc.dd.ee");
testTrue( source->startsWith( sm->refTextScope("aa.bb") ) );
testTrue( source->startsWith( sm->refTextScope("aa.*") ) );
testTrue( source->startsWith( sm->refTextScope("*.bb") ) );
testTrue( source->startsWith( sm->refTextScope("*") ) );
testFalse( source->startsWith( sm->refTextScope("bb") ) );
testFalse( source->startsWith( sm->refTextScope("bb") ) );
}
void testInterp(const string& input, const string& expected)
{
Stack<Value> result;
Stack<Env*> globals;
bool ok = CompileModule(input, globals, result);
testTrue(ok);
Stack<Block*> block(result.as<CodeObject>()->block());
ok = interp->exec(block, result);
if (!ok)
cerr << "Error: " << result.asObject()->as<Exception>()->message() << endl;
testTrue(ok);
testEqual(repr(result.get()), expected);
}
void testSize()
{
struct Set *set = constructSet();
testTrue(size(set) == 0, "New set is size 0");
add(set, 1);
testTrue(size(set) == 1, "New set add one is size 1");
rm(set, 1);
testTrue(size(set) == 0, "Old set rm one is size 0");
SetClose(set);
}
local void
testAblog()
{
initFile();
ablogDebug = 0;
String Boolean_imp = "import from Boolean";
String C0_def = "C0: Category == with";
String C1_def = "C1: Category == C0 with";
String D0_def = "D0: C0 with == add";
String D1_def = "D1: C1 with == add";
StringList lines = listList(String)(5, Boolean_imp, C0_def, C1_def, D0_def, D1_def);
AbSynList code = listCons(AbSyn)(stdtypes(), abqParseLines(lines));
AbSyn absyn = abNewSequenceL(sposNone, code);
abPutUse(absyn, AB_Use_NoValue);
Stab file = stabFile();
Stab stab = stabPushLevel(file, sposNone, STAB_LEVEL_LARGE);
scopeBind(stab, absyn);
typeInfer(stab, absyn);
testTrue("Declare is sefo", abIsSefo(absyn));
testIntEqual("Error Count", 0, comsgErrorCount());
Syme C0 = uniqueMeaning(stab, "C0");
Syme C1 = uniqueMeaning(stab, "C1");
Syme D0 = uniqueMeaning(stab, "D0");
Syme D1 = uniqueMeaning(stab, "D1");
AbSyn sefo1 = has(abFrSyme(D1), abFrSyme(C1));
AbSyn sefo0 = has(abFrSyme(D1), abFrSyme(C0));
tiSefo(stab, sefo0);
tiSefo(stab, sefo1);
AbLogic cond0 = ablogFrSefo(sefo0);
AbLogic cond1 = ablogFrSefo(sefo1);
afprintf(dbOut, "Implies: %pAbLogic %pAbLogic %d\n", cond1, cond0, ablogImplies(cond1, cond0));
afprintf(dbOut, "Implies: %pAbLogic %pAbLogic %d\n", cond0, cond1, ablogImplies(cond0, cond1));
testTrue("00", ablogImplies(cond0, cond0));
testTrue("10", ablogImplies(cond1, cond0));
testFalse("01",ablogImplies(cond0, cond1));
testTrue("11", ablogImplies(cond1, cond1));
}
/// A special split-merge
/// Which means the second change was placed OVER the previous one on both side
/// (A) 1:1:
/// (B) 0:0:axb
/// (M) 0:2:ab
///
/// - mergeResult("1:1:", "0:2:axb"), "0:2:ab");
/// (text = a[x]b[y]e)
///
///
void TextChangeTest::testMerge7_splitMergeInvert()
{
{
TextChange a(1,1,"") ;
TextChange* b = new TextChange(0,0,"axb");
testTrue( a.giveAndMerge(0,b));
testEqual( a.offset(),0 );
testEqual( a.docLength(),0 );
testEqual( a.storedText(), "ab" );
}
{
TextChange a(0,1,"") ;
TextChange* b = new TextChange(0,0,"xab");
testTrue( a.giveAndMerge(0,b));
testEqual( a.offset(),0 );
testEqual( a.docLength(),0 );
testEqual( a.storedText(), "ab" );
}
{
TextChange a(0,2,"") ; // |abcd => [xy]abcd (0:2:)
TextChange* b = new TextChange(1,0,"yab"); // x[yab]cd => xcd (1:0:yab)
testTrue( a.giveAndMerge(0,b)); // => (0:1:ab)
testEqual( a.offset(),0 );
testEqual( a.docLength(),1 );
testEqual( a.storedText(), "ab" );
}
{
TextChange a(1,3,"bc") ; // a[bc]def => aXYZdef (1:3:bc)
TextChange* b = new TextChange(4,1,"de"); // aXYZ[de]f => aXYZ?f (4:1:de)
testTrue( a.giveAndMerge(0,b)); // => (1:4:bcde)
testEqual( a.offset(),1 );
testEqual( a.docLength(),4 );
testEqual( a.storedText(), "bcde" );
}
{
TextChange a(1,4,"bc") ; // a[bc]def => aKLMNdef (1:4:bc)
TextChange* b = new TextChange(2,2,"L"); // aK[L]MNdef => aKxyMNdef (2:2:L)
testTrue( a.giveAndMerge(0,b)); // => (1:5:bc)
testEqual( a.offset(),1 );
testEqual( a.docLength(),5 );
testEqual( a.storedText(), "bc" );
}
}
local void
testSymeSExpr()
{
String aSimpleDomain = "+++Comment\nDom: Category == with {f: () -> () ++ f\n}";
StringList lines = listList(String)(1, aSimpleDomain);
AbSynList code = listCons(AbSyn)(stdtypes(), abqParseLines(lines));
AbSyn absyn = abNewSequenceL(sposNone, code);
initFile();
Stab stab = stabFile();
abPutUse(absyn, AB_Use_NoValue);
scopeBind(stab, absyn);
typeInfer(stab, absyn);
testTrue("Declare is sefo", abIsSefo(absyn));
testIntEqual("Error Count", 0, comsgErrorCount());
SymeList symes = stabGetMeanings(stab, ablogFalse(), symInternConst("Dom"));
testIntEqual("unique meaning", 1, listLength(Syme)(symes));
Syme syme = car(symes);
SExpr sx = symeSExprAList(syme);
finiFile();
}
int test_skip_truncated_varint() {
// error expected if varint unfinished
int unpack_result = types__iter_unpack(TRUNCATED_VARINT, sizeof(TRUNCATED_VARINT), iter_msg_buffer, sizeof(iter_msg_buffer));
testTrue(unpack_result < 0, "error if reading truncated varint");
return 1;
}
int test_validation() {
int unpack_result = 0;
RequiredField2* c_req = required_field2__unpack(NULL, sizeof(F1V10), F1V10);
unpack_result = required_field2__iter_unpack(F1V10, sizeof(F1V10), iter_msg_buffer, sizeof(iter_msg_buffer));
testTrue((c_req != NULL) && (unpack_result >= 0),"don't validate required");
StringField* c_string = string_field__unpack(NULL, sizeof(ZERO_BYTE_STRING), ZERO_BYTE_STRING);
StringField* f_string = (StringField*)iter_msg_buffer;
unpack_result = string_field__iter_unpack(ZERO_BYTE_STRING, sizeof(ZERO_BYTE_STRING), iter_msg_buffer, sizeof(iter_msg_buffer));
testTrue((f_string->f1 != NULL) && (strcmp(c_string->f1,f_string->f1)==0),"don't validate string");
unpack_result = types__iter_unpack(NEGATIVE_LENGTH_STRING, sizeof(NEGATIVE_LENGTH_STRING), iter_msg_buffer, sizeof(iter_msg_buffer));
testTrue(unpack_result == PROTOBUF_ITER_WRONG_MESSAGE, "string length overflow");
return 1;
}
/// A special split-merge operation
/// Which means the second change was placed OVER the previous one on both side
/// (A) 1:0:BC
/// (B) 0:0:AD
/// (M) 0:0:ABCD
void TextChangeTest::testMerge6_splitMerge()
{
TextChange a(1,0,"bc");
TextChange* b = new TextChange(0,0,"ad");
testTrue( a.giveAndMerge(0,b) );
testEqual( a.offset(), 0 );
testEqual( a.docLength(), 0 );
testEqual( a.storedText(), "abcd" );
}
/// Test the overlapped by function
void TextChangeTest::testBoundaryMethods()
{
// INSERT TESTS
TextChange s1(4,4,""); // [ ]
TextChange s2(0,2,""); // [ ]
TextChange s3(5,2,""); // [ ]
TextChange s4(1,2,""); // [ ]
TextChange s5(2,2,""); // [ ]
// test non overlap touch
testFalse( s1.isOverlappedBy(&s2) );
testFalse( s1.isTouchedBy(&s2) );
testFalse( s2.isOverlappedBy(&s1) );
testFalse( s2.isTouchedBy(&s1) );
// test overlap (fully included)
testTrue( s1.isOverlappedBy(&s3) );
testFalse( s1.isTouchedBy(&s3) );
testTrue( s3.isOverlappedBy(&s1) );
testFalse( s3.isTouchedBy(&s1) );
// test overlap not fully included
testTrue( s4.isOverlappedBy(&s5));
testFalse( s4.isTouchedBy(&s5));
testTrue( s5.isOverlappedBy(&s4));
testFalse( s5.isTouchedBy(&s5));
// test touching items
testTrue( s2.isTouchedBy(&s5));
testFalse( s2.isOverlappedBy(&s5));
testTrue( s5.isTouchedBy(&s2));
testFalse( s5.isOverlappedBy(&s2));
// BACKSPACE TEST
TextChange d1(0,0,"Y");
TextChange d2(1,0,"X");
testFalse( d1.isTouchedBy(&d2) );
testFalse( d1.isOverlappedBy(&d2) );
testTrue( d2.isTouchedBy(&d1) );
testFalse( d2.isOverlappedBy(&d1) );
TextChange d3(0,0,"X");
TextChange d4(0,0,"Y");
testTrue( d3.isTouchedBy(&d4) );
testFalse( d3.isOverlappedBy(&d4) );
testTrue( d4.isTouchedBy(&d3) );
testFalse( d4.isOverlappedBy(&d3) );
}
local void
testTests()
{
Foam foam = foamNewSet(foamNewLoc(1), foamNewLoc(1));
testFalse("", foamIsMultiAssign(foam));
foam = foamNewSet(foamNew(FOAM_Values, 2, foamNewLoc(1), foamNewLoc(2)),
foamNewLoc(3));
testTrue("", foamIsMultiAssign(foam));
}
/// MERGE 5
/// - a[b]cdefgh =(wxyz)=> awxyzcdefgh (A) 1:4:b
/// - awx[y]zcdefgh =(q)=> awxqzcdefgh (B) 3:1:y
/// = This should be merge into: (M) 1:4:b => b
void TextChangeTest::testMerge5()
{
TextChange a(1,4,"b");
TextChange* b = new TextChange(3,1,"y");
testTrue( a.giveAndMerge(0,b) );
testEqual( a.offset(), 1 );
testEqual( a.docLength(), 4 );
testEqual( a.storedText(), "b" );
}
/// MERGE 2
/// - a[bc]defgh =(xyz)=> axyzdefgh (A) 1:3:bc
/// - [axyz]defgh =(q)=> qdefgh (B) 0:1:axyz
/// = This should be merge into: (M) 0:1:abc => a + bc
void TextChangeTest::testMerge2()
{
TextChange a(1,3,"bc");
TextChange* b = new TextChange(0,1,"axyz");
testTrue( a.giveAndMerge(0,b) );
testEqual( a.offset(), 0 );
testEqual( a.docLength(), 1 );
testEqual( a.storedText(), "abc" );
}
/// MERGE 1
/// - a[bc]defgh =(x)=> axdefgh (A) 1:1:bc
/// - a[xd]efgh =(y)=> ayefgh (B) 1:1:xd
/// = This should be merge into: (M) 1:1:bcd => bc + d
void TextChangeTest::testMerge1()
{
TextChange a(1,1,"bc");
TextChange* b = new TextChange(1,1,"xd");
testTrue( a.giveAndMerge(0,b) );
testEqual( a.offset(), 1 );
testEqual( a.docLength(), 1 );
testEqual( a.storedText(), "bcd" );
}
void testReplacement(const string& input,
const string& expected,
InstrCode initial,
InstrCode replacement,
InstrCode next1 = InstrCodeCount,
InstrCode next2 = InstrCodeCount)
{
Stack<Value> result;
Stack<Env*> globals;
bool ok = CompileModule(input, globals, result);
testTrue(ok);
Stack<Block*> block(result.as<CodeObject>()->block());
InstrThunk* instrp = block->findInstr(Instr_Lambda);
assert(instrp);
Instr* instr = instrp->data;
assert(instr->code() == Instr_Lambda);
LambdaInstr* lambda = static_cast<LambdaInstr*>(instr);
instrp = lambda->block()->findInstr(initial);
assert(instrp);
ok = interp->exec(block, result);
if (!ok)
cerr << "Error: " << result.asObject()->as<Exception>()->message() << endl;
testTrue(ok);
testEqual(repr(result.get()), expected);
instr = instrp->data;
testEqual(instrName(instr->code()), instrName(replacement));
if (next1 < InstrCodeCount) {
instr = getNextInstr(instr);
assert(instr);
testEqual(instrName(instr->code()), instrName(next1));
if (next2 < InstrCodeCount) {
instr = getNextInstr(instr);
assert(instr);
testEqual(instrName(instr->code()), instrName(next2));
}
}
}
int test_openx() {
BidRequest* c = bid_request__unpack(NULL, sizeof(OPENX_1), OPENX_1);
BidRequest* f = (BidRequest*)iter_msg_buffer;
bid_request__iter_unpack(OPENX_1, sizeof(OPENX_1), iter_msg_buffer, sizeof(iter_msg_buffer));
testTrue(c->matching_ad_ids[0]->campaign_id==f->matching_ad_ids[0]->campaign_id, "OpenX equal Matching Ad Id");
bid_request__free_unpacked(c, NULL);
return 1;
}
local void
testCall()
{
Foam foam;
foam = foamNew(FOAM_OCall, 3, FOAM_Clos, foamNewNil(), foamNewNil());
testIntEqual("foamOCallArgc", 0, foamOCallArgc(foam));
foam = foamNew(FOAM_OCall, 4, FOAM_Clos, foamNewNil(), foamNewNil(), foamNewSInt(1));
testIntEqual("foamOCallArgc", 1, foamOCallArgc(foam));
foam = foamNewPCall(FOAM_Proto_C, FOAM_NOp, foamNewGlo(int0), NULL);
testIntEqual("argc", 0, foamPCallArgc(foam));
testIntEqual("protocol", FOAM_Proto_C, foam->foamPCall.protocol);
foam = foamNewCCall(FOAM_Word, foamNewGlo(int0), NULL);
testIntEqual("argc", 0, foamCCallArgc(foam));
testTrue("op", foamEqual(foamNewGlo(int0), foam->foamCCall.op));
foam = foamNewCCall(FOAM_Word, foamNewGlo(int0), foamNewPar(1), NULL);
testIntEqual("argc", 1, foamCCallArgc(foam));
testTrue("op", foamEqual(foamNewPar(1), foam->foamCCall.argv[0]));
}
void testException(const string& input, const string& expected)
{
Stack<Value> result;
Stack<Env*> globals;
bool ok = CompileModule(input, globals, result);
testTrue(ok);
Stack<Block*> block(result.as<CodeObject>()->block());
testExpectingException = true;
ok = interp->exec(block, result);
testExpectingException = false;
if (ok) {
cerr << "Expected exception but got: " << result << endl;
abortTests();
}
Object *o = result.toObject();
testTrue(o->isInstanceOf(Exception::ObjectClass));
string message = o->as<Exception>()->fullMessage();
if (message.find(expected) == string::npos) {
cerr << "Expected message containing: " << expected << endl;
cerr << "But got: " << message << endl;
abortTests();
}
}
void testFullAndGrow()
{
struct Set *set = constructSet();
int i = 0;
for (i = 0; i < STARTING_SET_SIZE * 3; i++) {
add(set, i);
}
printf("%i %i %i\n", full(set), set->capacity, set->count);
testTrue(set->count == 30, "added 30 elements");
//rm(set, 29);
for (i = 0; i < STARTING_SET_SIZE * 3; i++) {
rm(set, i);
}
printf("%i %i %i\n", full(set), set->capacity, set->count);
testTrue(set->count == 0, "removed 30 elements");
SetClose(set);
}
/// This method tests the score selector
void TextDocumentScopesTest::testScopeSelectorRanking()
{
TextScopeManager* sm = Edbee::instance()->scopeManager();
sm->reset();
TextScopeList* multiScope = sm->createTextScopeList("text.html.markdown meta.paragraph.markdown markup.bold.markdown");
QList<TextScopeSelector*> selectors;
selectors.append( new TextScopeSelector("text.* markup.bold") );
selectors.append( new TextScopeSelector("text markup.bold") );
selectors.append( new TextScopeSelector("markup.bold") );
selectors.append( new TextScopeSelector("text.html meta.*.markdown markup") );
selectors.append( new TextScopeSelector("text.html meta.* markup") );
selectors.append( new TextScopeSelector("text.html * markup") );
selectors.append( new TextScopeSelector("text.html markup") );
selectors.append( new TextScopeSelector("text markup") );
selectors.append( new TextScopeSelector("markup") );
selectors.append( new TextScopeSelector("text.html") );
selectors.append( new TextScopeSelector("text") );
double lastRank = 1.0;
for(int i = 0; i < selectors.size(); ++i)
{
TextScopeSelector* sel = selectors.at(i);
double rank = sel->calculateMatchScore( multiScope );
if( !(rank < lastRank ) ) {
qlog_info() << "SCOPES: " << multiScope->toString();
qlog_info() << " PREV: " << selectors.at(i-1)->toString();
qlog_info() << " rank: " << lastRank;
qlog_info() << "";
qlog_info() << " NEW: " << sel->toString();
qlog_info() << " rank: " << rank;
}
testTrue( rank < lastRank );
lastRank = rank;
}
qDeleteAll(selectors);
delete multiScope;
}
void forgTest()
{
Buffer buf = bufNew();
ForeignOrigin forg1 = forgNew(FOAM_Proto_Java, strCopy("hello"));
ForeignOrigin forg2 = forgNew(FOAM_Proto_C, strCopy("world"));
ForeignOrigin forg3 = forgNew(FOAM_Proto_C, NULL);
ForeignOrigin forg1_r, forg2_r, forg3_r;
testTrue("1", forgEqual(forg1, forg1));
testTrue("2", forgEqual(forg2, forg2));
testFalse("3", forgEqual(forg1, forg2));
testFalse("4", forgEqual(forg1, forg3));
forgToBuffer(buf, forg1);
forgToBuffer(buf, forg2);
bufSetPosition(buf, 0);
forg1_r = forgFrBuffer(buf);
forg2_r = forgFrBuffer(buf);
testTrue("5", forgEqual(forg1_r, forg1));
testTrue("6", forgEqual(forg2_r, forg2));
int pos = bufPosition(buf);
bufSetPosition(buf, 0);
forgBufferSkip(buf);
forgBufferSkip(buf);
testIntEqual("7", pos, bufPosition(buf));
bufSetPosition(buf, 0);
forgToBuffer(buf, forg3);
forgToBuffer(buf, forg1);
pos = bufPosition(buf);
bufSetPosition(buf, 0);
forg3_r = forgFrBuffer(buf);
forg1_r = forgFrBuffer(buf);
testTrue("8", forgEqual(forg3_r, forg3));
testTrue("8", forgEqual(forg1_r, forg1));
testIntEqual("10", pos, bufPosition(buf));
}
int test_types() {
Types _types_msg;
Types* types_msg = &_types_msg;
Types *types_iter_msg = (Types*)iter_msg_buffer;
uint8_t pack_buffer[50*1024];
int packed_size;
int unpack_result;
// double
types_clean_msg();
types_msg->t_double = 134148.15123;
types_msg->has_t_double = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_double==types_msg->t_double, "double positive value");
types_clean_msg();
types_msg->t_double = -64322758.12234;
types_msg->has_t_double = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_double==types_msg->t_double, "double negative value");
// float
types_clean_msg();
types_msg->t_float = 48.15;
types_msg->has_t_float = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_float==types_msg->t_float, "float positive value");
types_clean_msg();
types_msg->t_float = -2758.12;
types_msg->has_t_float = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_float==types_msg->t_float, "float negative value");
// int32
types_clean_msg();
types_msg->t_int32 = 14142;
types_msg->has_t_int32 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_int32==types_msg->t_int32, "int32 positive value");
types_clean_msg();
types_msg->t_int32 = -14143;
types_msg->has_t_int32 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_int32==types_msg->t_int32, "int32 negative value");
// int64
types_clean_msg();
types_msg->t_int64 = 4295067796;
types_msg->has_t_int64 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_int64==types_msg->t_int64, "int64 positive value");
types_clean_msg();
types_msg->t_int64 = -4295067796;
types_msg->has_t_int64 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_int64==types_msg->t_int64, "int64 negative value");
// uint32
types_clean_msg();
types_msg->t_uint32 = 14142;
types_msg->has_t_uint32 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_uint32==types_msg->t_uint32, "uint32 value");
// uint64
types_clean_msg();
types_msg->t_uint64 = 4295067796;
types_msg->has_t_uint64 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_uint64==types_msg->t_uint64, "uint64 value");
// sint32
types_clean_msg();
types_msg->t_sint32 = 14142;
types_msg->has_t_sint32 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_sint32==types_msg->t_sint32, "sint32 positive value");
types_clean_msg();
types_msg->t_sint32 = -14143;
types_msg->has_t_sint32 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_sint32==types_msg->t_sint32, "sint32 negative value");
// sint64
types_clean_msg();
types_msg->t_sint64 = 4295067796;
types_msg->has_t_sint64 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_sint64==types_msg->t_sint64, "sint64 positive value");
types_clean_msg();
types_msg->t_sint64 = -4295067796;
types_msg->has_t_sint64 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_sint64==types_msg->t_sint64, "sint64 negative value");
// fixed32
types_clean_msg();
types_msg->t_fixed32 = 14142;
types_msg->has_t_fixed32 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_fixed32==types_msg->t_fixed32, "fixed32 value");
// fixed64
types_clean_msg();
types_msg->t_fixed64 = 4295067796;
types_msg->has_t_fixed64 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_fixed64==types_msg->t_fixed64, "fixed64 value");
// sfixed32
types_clean_msg();
types_msg->t_sfixed32 = 14142;
types_msg->has_t_sfixed32 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_sfixed32==types_msg->t_sfixed32, "sfixed32 positive value");
types_clean_msg();
types_msg->t_sfixed32 = -14142;
types_msg->has_t_sfixed32 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_sfixed32==types_msg->t_sfixed32, "sfixed32 negative value");
// sfixed64
types_clean_msg();
types_msg->t_sfixed64 = 4295067796;
types_msg->has_t_sfixed64 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_sfixed64==types_msg->t_sfixed64, "sfixed64 positive value");
types_clean_msg();
types_msg->t_sfixed64 = -4295067796;
types_msg->has_t_sfixed64 = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_sfixed64==types_msg->t_sfixed64, "sfixed64 negative value");
// bool
types_clean_msg();
types_msg->t_bool = 1;
types_msg->has_t_bool = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_bool==types_msg->t_bool, "bool true");
types_clean_msg();
types_msg->t_bool = 0;
types_msg->has_t_bool = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->t_bool==types_msg->t_bool, "bool false");
// enum
types_clean_msg();
types_msg->t_enum = TYPES__CHOICES__c1;
types_msg->has_t_enum = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->has_t_enum, "has enum (choice 1)");
testTrue(types_iter_msg->t_enum==types_msg->t_enum, "enum choice 1");
types_clean_msg();
types_msg->t_enum = TYPES__CHOICES__c2;
types_msg->has_t_enum = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->has_t_enum, "has enum (choice 2)");
testTrue(types_iter_msg->t_enum==types_msg->t_enum, "enum choice 2");
types_clean_msg();
types_msg->t_enum = TYPES__CHOICES__c3;
types_msg->has_t_enum = 1;
types_pack_and_iter_unpack();
testTrue(types_iter_msg->has_t_enum, "has enum (choice 3)");
testTrue(types_iter_msg->t_enum==types_msg->t_enum, "enum choice 3");
// string
types_clean_msg();
types_msg->t_string = "hello world";
types_pack_and_iter_unpack();
if (testTrue(types_iter_msg->t_string != NULL, "has string")) {
testTrue(strcmp(types_iter_msg->t_string, types_msg->t_string)==0, "string value");
}
// bytes
types_clean_msg();
types_msg->has_t_bytes = 1;
types_msg->t_bytes.len = 12;
char* hw = "world hello";
types_msg->t_bytes.data = (uint8_t*)hw;
types_pack_and_iter_unpack();
if (testTrue(types_iter_msg->has_t_bytes == types_msg->has_t_bytes, "has bytes")) {
if (testTrue(types_iter_msg->t_bytes.len == types_msg->t_bytes.len, "bytes len")) {
testTrue(memcmp(types_iter_msg->t_bytes.data, types_msg->t_bytes.data, types_msg->t_bytes.len) == 0, "bytes value");
}
}
// submessage
types_clean_msg();
Types__SubMessage sub;
types__sub_message__init(&sub);
sub.has_t_submessage_uint32 = 1;
sub.t_submessage_uint32 = 42;
types_msg->t_submessage = ⊂
types_pack_and_iter_unpack();
if (testTrue(types_iter_msg->t_submessage!=NULL, "has submessage")) {
if (testTrue(types_iter_msg->t_submessage->has_t_submessage_uint32, "submessage has uint32 field")) {
testTrue(types_iter_msg->t_submessage->t_submessage_uint32==42, "submessage uint32 field value");
}
}
// repeated uint32
types_clean_msg();
uint32_t repeated_data[5] = {42, 100500, 1024, 65000, 89555};
types_msg->n_t_repeated_uint32 = 5;
types_msg->t_repeated_uint32 = repeated_data;
types_pack_and_iter_unpack();
if (testTrue(types_iter_msg->n_t_repeated_uint32==5, "repeated uint32 size")) {
testTrue(types_iter_msg->t_repeated_uint32[0]==42, "repeated uint32 item 0");
testTrue(types_iter_msg->t_repeated_uint32[1]==100500, "repeated uint32 item 1");
testTrue(types_iter_msg->t_repeated_uint32[4]==89555, "repeated uint32 item 4");
}
// repeated string
types_clean_msg();
types_msg->n_t_repeated_string = 2;
types_msg->t_repeated_string = (char**)malloc(sizeof(char*)*2);
types_msg->t_repeated_string[0] = "hello world";
types_msg->t_repeated_string[1] = "42";
types_pack_and_iter_unpack();
free(types_msg->t_repeated_string);
testTrue(types_iter_msg->n_t_repeated_string==2, "repeated string size");
testTrue(strcmp(types_iter_msg->t_repeated_string[0], "hello world") == 0, "repeated string item 0");
testTrue(strcmp(types_iter_msg->t_repeated_string[1], "42") == 0, "repeated string item 1");
// repeated bytes
types_clean_msg();
types_msg->t_repeated_bytes = (ProtobufCBinaryData*)malloc(sizeof(ProtobufCBinaryData)*2);
types_msg->n_t_repeated_bytes = 2;
types_msg->t_repeated_bytes[0].len = sizeof(BINARY_HELLO_WORLD);
types_msg->t_repeated_bytes[0].data = malloc(sizeof(BINARY_HELLO_WORLD)*sizeof(uint8_t));
memcpy(types_msg->t_repeated_bytes[0].data, BINARY_HELLO_WORLD, sizeof(BINARY_HELLO_WORLD));
types_msg->t_repeated_bytes[1].len = sizeof(BINARY_42);
types_msg->t_repeated_bytes[1].data = malloc(sizeof(BINARY_42)*sizeof(uint8_t));
memcpy(types_msg->t_repeated_bytes[1].data, BINARY_42, sizeof(BINARY_42));
types_pack_and_iter_unpack();
free(types_msg->t_repeated_bytes[0].data);
free(types_msg->t_repeated_bytes[1].data);
free(types_msg->t_repeated_bytes);
testTrue(unpack_result > 2, "unpack repeated bytes");
testTrue(types_iter_msg->n_t_repeated_bytes==2, "repeated bytes count");
testTrue(types_iter_msg->t_repeated_bytes[0].len==11, "repeated bytes [0] len");
testTrue(types_iter_msg->t_repeated_bytes[1].len==2, "repeated bytes [1] len");
testTrue(memcmp(types_iter_msg->t_repeated_bytes[0].data, BINARY_HELLO_WORLD, 11) == 0, "repeated bytes [0] value");
testTrue(memcmp(types_iter_msg->t_repeated_bytes[1].data, BINARY_42, 2) == 0, "repeated bytes [1] value");
// packed fields unpack
PackedField* c_packed = packed_field__unpack(NULL, sizeof(REPEATED_PACKED), REPEATED_PACKED);
PackedField* f_packed = (PackedField*)iter_msg_buffer;
unpack_result = packed_field__iter_unpack(REPEATED_PACKED, sizeof(REPEATED_PACKED), iter_msg_buffer, sizeof(iter_msg_buffer));
testTrue(unpack_result>=0, "unpack repeated packed");
if (testTrue( (f_packed->n_f1==6) && (f_packed->n_f1==c_packed->n_f1), "packed repeated len")) {
testTrue(f_packed->f1[0]==10, "packed repeated item 0");
testTrue(f_packed->f1[5]==408, "packed repeated item 5");
}
MergeTest* c_merge = merge_test__unpack(NULL, sizeof(MERGE_TEST), MERGE_TEST);
MergeTest* f_merge = (MergeTest*)iter_msg_buffer;
unpack_result = merge_test__iter_unpack(MERGE_TEST, sizeof(MERGE_TEST), iter_msg_buffer, sizeof(iter_msg_buffer));
testTrue( (c_merge->submsg->f1==777) && (c_merge->submsg->f2==0), "protobuf-c not merged submessage");
testTrue( (f_merge->submsg->f1==777) && (f_merge->submsg->f2==42), "protobuf-c-iter-unpack merged submessage");
return 1;
}
int test_unpack_empty_message() {
int unpack_result = types__iter_unpack(TRUNCATED_VARINT, 0, iter_msg_buffer, sizeof(iter_msg_buffer));
testTrue(unpack_result == sizeof(Types), "unpack empty message");
return 1;
}