TEST(BitsSnoob, Basics) {
EXPECT_EQ(2, snoob(1u, 10u));
EXPECT_EQ(2, snoob(1u, 30u));
EXPECT_EQ(0xau, snoob(0x9u, 10u));
// TODO: Test 1 argument snoob
}
void
produce_simple_values()
{
using TestFactory = factory::MultiFact<string, theID>;
TestFactory theFact;
// the first "production line" is wired to a free function
theFact.defineProduction (ONE, buildOne);
// second "production line" uses a explicit partial closure
theFact.defineProduction (TWO, bind (buildSome<theID>, TWO));
// for the third "production line" we set up a function object
auto memberFunction = bind (&MultiFact_test::callMe, this, "lalü");
theFact.defineProduction (THR, memberFunction);
// and the fourth "production line" uses a lambda, closed with a local reference
string backdoor("backdoor");
theFact.defineProduction (FOU, [&] {
return backdoor;
});
CHECK (!isnil (theFact));
CHECK (theFact(ONE) == "1");
CHECK (theFact(TWO) == "2");
CHECK (theFact(THR) == "lalü");
CHECK (invocations_ == 1);
CHECK (theFact(FOU) == "backdoor");
backdoor = "I am " + backdoor.substr(0,4);
CHECK (theFact(FOU) == "I am back");
TestFactory anotherFact;
CHECK (isnil (anotherFact));
VERIFY_ERROR (INVALID, anotherFact(ONE) );
anotherFact.defineProduction (ONE, memberFunction);
CHECK (anotherFact(ONE) == "lalü");
CHECK (invocations_ == 2);
CHECK (theFact(THR) == "lalü");
CHECK (invocations_ == 3);
CHECK ( theFact.contains (FOU));
CHECK (!anotherFact.contains (FOU));
anotherFact = theFact;
CHECK (anotherFact.contains (FOU));
CHECK (!isSameObject(theFact, anotherFact));
CHECK (anotherFact(ONE) == "1");
CHECK (anotherFact(TWO) == "2");
CHECK (anotherFact(THR) == "lalü");
CHECK (anotherFact(FOU) == "I am back");
CHECK (invocations_ == 4);
}
void print_accepted(const util::NodeRange& nodes,
std::function<bool(Node, Node)> is_strong,
std::function<bool(Node)> is_root)
{
using util::fmt;
using std::endl;
using std::cout;
auto count_parents = [&](const auto N) {
using boost::count_if;
using common::pars;
auto has_n_parents = [&](auto node) {
auto is_accepted = [&](auto par) { return is_strong(par, node); };
return !is_root(node) && count_if(pars(node), is_accepted) == N;
};
return count_if(nodes, has_n_parents);
};
auto W = static_cast<floating_t>(nodes.size()) / 100.;
cout << "0 parents accepted: " << fmt(count_parents(0) / W) << "%" << endl;
cout << "1 parents accepted: " << fmt(count_parents(1) / W) << "%" << endl;
cout << "2 parents accepted: " << fmt(count_parents(2) / W) << "%" << endl;
cout << "3 parents accepted: " << fmt(count_parents(3) / W) << "%" << endl;
cout << "4 parents accepted: " << fmt(count_parents(4) / W) << "%" << endl;
}
/** @test verify an extension built on top of the ItemWrapper:
* a function which remembers the last result. Here we use
* a test function, which picks a member of an vector and
* returns a \em reference to it. Thus the cached "result"
* can be used to access and change the values within the
* original vector. In a real world usage scenario, such a
* function could be an (expensive) data structure access.
*/
void
verifyFunctionRefResult()
{
vector<int> testVec;
for (uint i=0; i<10; ++i)
testVec.push_back(i);
FunctionResult<int&(size_t)> funRes (pickElement_ofVector(testVec));
// function was never invoked, thus the remembered result is NIL
CHECK (!funRes);
VERIFY_ERROR (BOTTOM_VALUE, *funRes );
int& r5 = funRes (5);
CHECK (funRes); // indicates existence of cached result
CHECK (5 == r5);
CHECK (isSameObject (r5, testVec[5]));
int& r5x = *funRes;
CHECK (isSameObject (r5, r5x));
CHECK ( isSameObject (r5, *funRes));
int& r7 = funRes (7);
CHECK (!isSameObject (r5, *funRes));
CHECK ( isSameObject (r7, *funRes));
-- r5x;
++ *funRes;
CHECK (5-1 == testVec[5]);
CHECK (7+1 == testVec[7]);
CHECK (7+1 == r7);
}
void initStreams()
{
string parametersPassiveFileName("../OpenGL/parametersPassiveCdef.txt");
inputParameters.open(parametersPassiveFileName);
if ( !inputParameters.good() )
{
cerr << "File " << parametersPassiveFileName << " doesn't exist, enter a valid path" << endl;
cin.ignore(1E6,'\n');
exit(0);
}
parameters.loadParameterFile(inputParameters);
#ifdef _WIN32
// WARNING:
// Base directory and subject name, if are not
// present in the parameters file, the program will stop suddenly!!!
// Base directory where the files will be stored
string baseDir = parameters.find("BaseDir");
if ( !exists(baseDir) )
create_directory(baseDir);
// Subject name
string subjectName = parameters.find("SubjectName");
// Principal streams file
string transformationFileName("transformationFile_");
string trialFileName("trialFile_");
string anglesFileName("anglesFile_");
string responseFileName("responseFile_");
// Add the subject name to file extension
transformationFileName +=string(subjectName)+".txt";
trialFileName +=string(subjectName)+".txt";
anglesFileName +=string(subjectName)+".txt";
responseFileName +=string(subjectName)+".txt";
// Check for output file existence
/** Transformation file **/
if ( !fileExists((baseDir+transformationFileName)) )
transformationFile.open((baseDir+transformationFileName).c_str() );
/** Trial file **/
if ( !fileExists((baseDir+trialFileName)) )
trialFile.open((baseDir+trialFileName).c_str());
/** Angles file **/
if ( !fileExists((baseDir+anglesFileName)) )
anglesFile.open((baseDir+anglesFileName).c_str());
/** Response file **/
if ( !fileExists((baseDir+responseFileName)) )
responseFile.open((baseDir+responseFileName).c_str());
#endif
cerr << "streams end" << endl;
}
TEST(Peak, SortMagnitudeDescendingPositionDescending) {
Real positions [] = {1, 0, 1, 4, 5};
Real magnitudes[] = {2, 2, 3, 1, 6};
vector<util::Peak> peaks = realsToPeaks(arrayToVector<Real>(positions),
arrayToVector<Real>(magnitudes));
sort(peaks.begin(), peaks.end(),
ComparePeakMagnitude<std::greater<Real>, std::greater<Real> >());
Real expectedPos[] = {5,1,1,0,4};
Real expectedMag[] = {6,3,2,2,1};
vector<util::Peak> expectedPeaks= realsToPeaks(arrayToVector<Real>(expectedPos),
arrayToVector<Real>(expectedMag));
EXPECT_VEC_EQ(peaks, expectedPeaks);
}
TEST(Peak, SortPositionAscendingMagnitudeAscending) {
Real positions [] = {1, 0, 1, 4, 5};
Real magnitudes[] = {2, 2, 3, 1, 6};
vector<util::Peak> peaks = realsToPeaks(arrayToVector<Real>(positions),
arrayToVector<Real>(magnitudes));
sort(peaks.begin(), peaks.end(),
ComparePeakPosition<std::less<Real>, std::less<Real> >());
Real expectedPos[] = {0,1,1,4,5};
Real expectedMag[] = {2,2,3,1,6};
vector<util::Peak> expectedPeaks= realsToPeaks(arrayToVector<Real>(expectedPos),
arrayToVector<Real>(expectedMag));
EXPECT_VEC_EQ(peaks, expectedPeaks);
}
void
__expect_in_target (E const& elm, Literal oper)
{
if (end_of_target())
throw error::State(_Fmt("Unable to %s element %s from target as demanded; "
"no (further) elements in target sequence") % oper % elm
, LUMIERA_ERROR_DIFF_CONFLICT);
if (*pos_ != elm)
throw error::State(_Fmt("Unable to %s element %s from target as demanded; "
"found element %s on current target position instead")
% oper % elm % *pos_
, LUMIERA_ERROR_DIFF_CONFLICT);
}
/** @test proper handling of move and rvalue references */
void
verifySaneMoveHandling()
{
using Data = shared_ptr<int>;
using Wrap = ItemWrapper<Data>;
Data data{new int(12345)};
CHECK (1 == data.use_count());
Wrap wrap{data};
CHECK (2 == data.use_count());
CHECK (12345 == **wrap);
CHECK (isSameObject (*data, **wrap));
CHECK (!isSameObject (data, *wrap));
Wrap wcopy{wrap};
CHECK (3 == data.use_count());
Wrap wmove{move (wcopy)};
CHECK (3 == data.use_count());
CHECK (not wcopy);
CHECK (wmove);
wcopy = move(wmove);
CHECK (3 == data.use_count());
CHECK (not wmove);
CHECK (wcopy);
Wrap wmove2{move (data)};
CHECK (0 == data.use_count());
CHECK (3 == wmove2->use_count());
CHECK (not data);
CHECK (wmove2);
CHECK (wrap);
wmove2 = move (wcopy);
CHECK (2 == wmove2->use_count());
CHECK (not wcopy);
CHECK (wmove2);
CHECK (wrap);
wmove2 = move (wrap);
CHECK (1 == wmove2->use_count());
CHECK (not wrap);
CHECK (wmove2);
wmove2 = move (wmove);
CHECK (not wcopy);
CHECK (not wmove);
CHECK (not wmove2);
}
virtual void
run (Arg)
{
// Prepare an (test)Index (dummy "session")
PPIdx testSession (build_testScopes());
ElementQuery queryAPI;
MORef<DummyMO> dummy1 = queryAPI.pick (elementID_contains("MO2"));
CHECK (dummy1);
CHECK (dummy1->isValid());
INFO (test, "Location in Tree: %s", cStr(ScopePath(dummy1.getPlacement())));
string elementID = dummy1->operator string();
CHECK (contains (elementID, "MO2"));
string specificID = elementID.substr(10); // should contain the random int-ID
MORef<DummyMO> dummy2;
CHECK (!dummy2);
dummy2 = queryAPI.pick (elementID_contains(specificID));
CHECK (dummy2); // found the same object again
CHECK (dummy2->isValid());
CHECK (dummy2 == dummy1);
// put aside a new handle holding onto the MObject
PDum newPlacement(dummy1.getPlacement());
CHECK (testSession->contains(dummy1));
CHECK (!testSession->contains(newPlacement));
// and now remove the placement and all contained elements
testSession->clear (dummy1);
CHECK (!testSession->contains(dummy1));
MORef<DummyMO> findAgain = queryAPI.pick (elementID_contains(specificID));
CHECK (!findAgain); // empty result because searched element was removed from session...
MORef<DummyMO> otherElm = queryAPI.pick (elementID_contains("MO21"));
CHECK (otherElm); // now pick just some other arbitrary element
testSession->insert(newPlacement, otherElm);
dummy2 = queryAPI.pick (elementID_contains(specificID));
CHECK (dummy2);
CHECK (dummy2 != dummy1);
CHECK (dummy2 != newPlacement);
CHECK (isSharedPointee(newPlacement, dummy2.getPlacement()));
CHECK (Scope::containing (dummy2.getRef()) == Scope (otherElm));
INFO (test, "New treelocation: %s", cStr(ScopePath(dummy2.getPlacement())));
}
virtual void
run (Arg)
{
IterQueue<int> queue;
CHECK (isnil (queue));
VERIFY_ERROR (ITER_EXHAUST, *queue );
VERIFY_ERROR (ITER_EXHAUST, ++queue );
queue.feed (1);
queue.feed (3);
queue.feed (5);
CHECK (!isnil (queue));
CHECK (1 == *queue);
++queue;
CHECK (3 == *queue);
CHECK (3 == queue.pop());
CHECK (5 == *queue);
++queue;
CHECK (isnil (queue));
VERIFY_ERROR (ITER_EXHAUST, *queue );
VERIFY_ERROR (ITER_EXHAUST, ++queue );
VERIFY_ERROR (ITER_EXHAUST, queue.pop() );
// use the generic builder API to feed
// the contents of another iterator into the queue
queue = build(queue).usingSequence (elements (23,45));
int i = queue.pop();
CHECK (i == 23);
CHECK (45 == *queue);
// feeding new elements and pulling / iteration can be mixed
queue.feed(67);
CHECK (45 == *queue);
++queue;
CHECK (67 == *queue);
++queue;
CHECK (isnil (queue));
queue.feed(89);
CHECK (89 == *queue);
queue.pop();
VERIFY_ERROR (ITER_EXHAUST, *queue );
}
/** @test OpaqueHolder with additional storage for subclass.
* When a subclass requires more storage than the base class or
* Interface, we need to create a custom OpaqueHolder, specifying the
* actually necessary storage. Such a custom OpaqueHolder behaves exactly
* like the standard variant, but there is protection against accidentally
* using a standard variant to hold an instance of the larger subclass.
*
* @test Moreover, if the concrete class has a custom operator bool(), it
* will be invoked automatically from OpaqueHolder's operator bool()
*
*/
void
checkSpecialSubclass ()
{
typedef OpaqueHolder<Base, sizeof(Special)> SpecialOpaque;
cout << showSizeof<Base>() << endl;
cout << showSizeof<Special>() << endl;
cout << showSizeof<Opaque>() << endl;
cout << showSizeof<SpecialOpaque>() << endl;
CHECK (sizeof(Special) > sizeof(Base));
CHECK (sizeof(SpecialOpaque) > sizeof(Opaque));
CHECK (sizeof(SpecialOpaque) <= sizeof(Special) + sizeof(void*) + _ALIGN_);
Special s1 (6);
Special s2 (3);
CHECK (!s1); // even value
CHECK (s2); // odd value
CHECK (7 == s1.getIt()); // indeed subclass of DD<7>
CHECK (7 == s2.getIt());
SpecialOpaque ospe0;
SpecialOpaque ospe1 (s1);
SpecialOpaque ospe2 (s2);
CHECK (!ospe0); // note: bool test (isValid)
CHECK (!ospe1); // also forwarded to contained object (myVal_==6 is even)
CHECK ( ospe2);
CHECK ( isnil(ospe0)); // while isnil just checks the empty state
CHECK (!isnil(ospe1));
CHECK (!isnil(ospe2));
CHECK (7 == ospe1->getIt());
CHECK (6 == ospe1.get<Special>().myVal_);
CHECK (3 == ospe2.get<Special>().myVal_);
ospe1 = DD<5>(); // but can be reassigned like any normal Opaque
CHECK (ospe1);
CHECK (5 == ospe1->getIt());
VERIFY_ERROR (WRONG_TYPE, ospe1.get<Special>() );
Opaque normal = DD<5>();
CHECK (normal);
CHECK (5 == normal->getIt());
#if false ////////////////////////////////////////////////////////TODO: restore throwing ASSERT
// Assertion protects against SEGV
VERIFY_ERROR (ASSERTION, normal = s1 );
#endif////////////////////////////////////////////////////////////
}
inline bool
protocolled (TY val2check)
{
return contains ( command2::check_.str()
, lexical_cast<string> (val2check)
);
}
/** Returns the tooltip for this item. */
const QString CSearchAnalysisItem::getToolTip() {
typedef CSwordModuleSearch::Results::const_iterator RCI;
using util::htmlEscape;
QString toolTipString("<center><b>");
toolTipString.append(htmlEscape(m_bookName)).append("</b></center><hr/>")
.append("<table cellspacing=\"0\" cellpadding=\"3\" width=\"10"
"0%\" height=\"100%\" align=\"center\">");
/// \todo Fix that loop
int i = 0;
for (RCI it = m_results.begin(); it != m_results.end(); ++it) {
const CSwordModuleInfo * const info = it.key();
const int count = it.value().getCount();
const double percent = (info && count)
? ((static_cast<double>(m_resultCountArray.at(i))
* static_cast<double>(100.0))
/ static_cast<double>(count))
: 0.0;
toolTipString.append("<tr bgcolor=\"white\"><td><b><font color=\"")
.append(CSearchAnalysisScene::getColor(i).name()).append("\">")
.append(info ? info->name() : QString::null)
.append("</font></b></td><td>")
.append(m_resultCountArray.at(i))
.append(" (")
.append(QString::number(percent, 'g', 2))
.append("%)</td></tr>");
++i;
}
return toolTipString.append("</table>");
}
Preprocessor::Preprocessor(String aFileName, int aMaxErrorNum) {
curFileName = aFileName;
curFile = new ifstream(curFileName.getCString(), ios::in);
lineNumber = colNumber = 1;
errorNum = warningNum = 0;
maxErrorNum = aMaxErrorNum;
backtracked = 0;
if (!curFile->is_open()) {
throw String("Error: couldn't open file.");
delete curFile;
curFile = NULL;
return;
}
unsigned char i;
for (i=0; i<255; i++) {
firstIdentifierChars[i] = isLetterChar(i) || i=='_';
nextIdentifierChars[i] = isLetterChar(i) || isNumberChar(i) || i=='_';
firstNumberChars[i] = isNumberChar(i) || i=='.';
nextNumberChars[i] = isLetterChar(i) || isNumberChar(i) || i=='_' || i=='.';
specialChars[i] = false;
}
}
void
verifyCreation_and_Copy()
{
typedef PV Holder;
typedef IMP ImpType;
typedef typename PV::Interface Api;
long prevSum = _checkSum;
uint prevCnt = _created;
Holder val = Holder::template build<ImpType>();
CHECK (prevSum+111 == _checkSum); // We got one primary ctor call
CHECK (prevCnt+1 <= _created); // Note: usually, the compiler optimises
CHECK (prevCnt+2 >= _created); // and skips the spurious copy-operation
CHECK (sizeof(Holder) >= sizeof(ImpType));
Api& embedded = val;
CHECK (isSameObject(embedded,val));
CHECK (INSTANCEOF(ImpType, &embedded));
prevCnt = _created;
Holder val2(val); // invoke copy ctor without knowing the implementation type
embedded.apiFunc();
CHECK (val != val2); // invoking the API function had an sideeffect on the state
val = val2; // assignment of copy back to the original...
CHECK (val == val2); // cancels the side effect
CHECK (prevCnt+1 == _created); // one new embedded instance was created by copy ctor
}
void
TreeDiffMutatorBinding::__failMismatch (Literal oper, GenNode const& spec)
{
throw error::State(_Fmt("Unable to %s element %s. Current shape of target "
"data does not match expectations") % oper % spec
, LUMIERA_ERROR_DIFF_CONFLICT);
}
void
TreeDiffMutatorBinding::__fail_not_found (GenNode const& elm)
{
throw error::State(_Fmt("Premature end of sequence; unable to locate "
"element %s in the remainder of the target.") % elm
, LUMIERA_ERROR_DIFF_CONFLICT);
}
void Texture::draw() {
bind();
quad.draw();
unbind();
checkGLError("Texture::draw quad draw");
}
void
SAMReader::reinit(_int64 startingOffset, _int64 amountOfFileToProcess)
{
_ASSERT(-1 != headerSize && startingOffset >= headerSize); // Must call init() before reinit()
//
// There's no way to tell if we start at the very beginning of a read, we need to see the previous newline.
// So, read one byte before our assigned read in case that was the terminating newline of the previous read.
//
if (startingOffset > headerSize) {
startingOffset--;
amountOfFileToProcess++;
}
data->reinit(startingOffset, amountOfFileToProcess);
char* buffer;
_int64 validBytes;
if (!data->getData(&buffer, &validBytes)) {
return;
}
if (startingOffset != headerSize) {
char *firstNewline = strnchr(buffer,'\n',validBytes);
if (NULL == firstNewline) {
return;
}
data->advance((unsigned)(firstNewline - buffer + 1)); // +1 skips over the newline.
}
}
String Preprocessor::peek (unsigned int position) {
while (tokens.size() <= position) {
if (!getToken())
return String();
}
return tokens [position].token;
}
void
TreeDiffMutatorBinding::__expect_further_elements (GenNode const& elm)
{
if (not treeMutator_->hasSrc())
throw error::State(_Fmt("Premature end of target sequence, still expecting element %s; "
"unable to apply diff further.") % elm
, LUMIERA_ERROR_DIFF_CONFLICT);
}
void
__expect_further_elements (E const& elm)
{
if (end_of_target())
throw error::State(_Fmt("Premature end of target sequence, still expecting element %s; "
"unable to apply diff further.") % elm
, LUMIERA_ERROR_DIFF_CONFLICT);
}
void
TreeDiffMutatorBinding::__expect_valid_parent_scope (GenNode::ID const& idi)
{
if (0 == scopeManger_->depth())
throw error::Fatal(_Fmt("Diff application floundered after leaving scope %s; "
"unbalanced nested scopes, diff attempts to pop root.") % idi.getSym()
, LUMIERA_ERROR_DIFF_CONFLICT);
}
void
__expect_found (E const& elm, Iter const& targetPos)
{
if (targetPos == orig_.end())
throw error::State(_Fmt("Premature end of sequence; unable to locate "
"element %s in the remainder of the target.") % elm
, LUMIERA_ERROR_DIFF_CONFLICT);
}
/** @test verify the allocation/de-allocation handling as
* embedded into the CommandRegistry operation.
* Simulates on low level what normally happens
* during command lifecycle.
*/
void
checkAllocation (CommandRegistry& registry)
{
// simulate what normally happens within a CommandDef
typedef void Sig_oper(int);
typedef long Sig_capt(int);
typedef void Sig_undo(int,long);
function<Sig_oper> o_Fun (command1::operate);
function<Sig_capt> c_Fun (command1::capture);
function<Sig_undo> u_Fun (command1::undoIt);
CHECK (o_Fun && c_Fun && u_Fun);
CHECK (cnt_inst == registry.instance_count());
// when the CommandDef is complete, it issues the
// allocation call to the registry behind the scenes....
typedef shared_ptr<CommandImpl> PImpl;
PImpl pImpl = registry.newCommandImpl(o_Fun,c_Fun,u_Fun);
CHECK (1+cnt_inst == registry.instance_count());
CHECK (pImpl);
CHECK (pImpl->isValid());
CHECK (!pImpl->canExec());
CHECK (1 == pImpl.use_count()); // no magic involved, we hold the only instance
PImpl clone = registry.createCloneImpl(*pImpl);
CHECK (clone->isValid());
CHECK (!clone->canExec());
CHECK (1 == clone.use_count());
CHECK (1 == pImpl.use_count());
CHECK (2+cnt_inst == registry.instance_count());
CHECK (!isSameObject (*pImpl, *clone));
CHECK (*pImpl == *clone);
CHECK (!pImpl->canExec());
typedef Types<int> ArgType;
TypedArguments<Tuple<ArgType>> arg{Tuple<ArgType>(98765)};
pImpl->setArguments(arg);
CHECK (pImpl->canExec());
CHECK (!clone->canExec()); // this proves the clone has indeed a separate identity
CHECK (*pImpl != *clone);
// discard the first clone and overwrite with a new one
clone = registry.createCloneImpl(*pImpl);
CHECK (2+cnt_inst == registry.instance_count());
CHECK (*pImpl == *clone);
CHECK (clone->canExec());
clone.reset();
pImpl.reset();
// corresponding allocation slots cleared automatically
CHECK (cnt_inst == registry.instance_count());
}
void
TreeDiffMutatorBinding::__expect_end_of_scope (GenNode::ID const& idi)
{
if (not treeMutator_->completeScope())
throw error::State(_Fmt("Diff application floundered in nested scope %s; "
"unexpected extra elements found when diff "
"should have settled everything.") % idi.getSym()
, LUMIERA_ERROR_DIFF_CONFLICT);
}
unsigned char *Texture::mapData() {
if(!texture) {
glBindBuffer(GL_PIXEL_UNPACK_BUFFER, pboTexture);
texture = (unsigned char*)(glMapBuffer(GL_PIXEL_UNPACK_BUFFER,
GL_READ_WRITE));
}
checkGLError("Texture::mapData");
return texture;
}
TEST(Peak, RealsToPeaks) {
Real positionsArray [] = {1, 0, 1, 4, 5};
Real magnitudesArray [] = {2, 2, 3, 1, 6};
util::Peak peaksArray [] = {util::Peak(1,2),util::Peak(0,2),util::Peak(1,3),util::Peak(4,1),util::Peak(5,6)};
vector<Real> positions = arrayToVector<Real>(positionsArray);
vector<Real> magnitudes = arrayToVector<Real>(magnitudesArray);
vector<util::Peak> peaks = realsToPeaks(positions, magnitudes);
EXPECT_VEC_EQ(peaks, arrayToVector<util::Peak>(peaksArray));
}
/** finish and leave child object scope, return to parent */
void
TreeDiffMutatorBinding::emu (GenNode const& n)
{
TRACE (diff, "tree-diff: LEAVE scope %s", cStr(n.idi));
__expect_end_of_scope (n.idi);
treeMutator_ = &scopeManger_->closeScope();
__expect_valid_parent_scope (n.idi);
}