/*
* domaze:
* Draw the maze on this level.
*/
do_maze()
{
reg int least;
reg struct room *rp;
reg struct linked_list *item;
reg struct object *obj;
int cnt;
bool treas;
coord tp;
for (rp = rooms; rp < &rooms[MAXROOMS]; rp++) {
rp->r_flags = ISGONE; /* kill all rooms */
rp->r_fires = NULL; /* no fires */
}
rp = &rooms[0]; /* point to only room */
rp->r_flags = ISDARK; /* mazes always dark */
rp->r_pos.x = 0; /* room fills whole screen */
rp->r_pos.y = 1;
rp->r_max.x = cols - 1;
rp->r_max.y = lines - 3;
draw_maze(); /* put maze into window */
/*
* add some gold to make it worth looking for
*/
item = spec_item(GOLD, NULL, NULL, NULL);
obj = OBJPTR(item);
obj->o_count *= (rnd(5) + 5); /* add in one large hunk */
attach(lvl_obj, item);
cnt = 0;
do {
rnd_pos(rp, &tp);
} until (mvinch(tp.y, tp.x) == FLOOR || cnt++ > 5000);
mvaddch(tp.y, tp.x, GOLD);
obj->o_pos = tp;
/*
* add in some food to make sure he has enough
*/
item = spec_item(FOOD, NULL, NULL, NULL);
obj = OBJPTR(item);
attach(lvl_obj, item);
do {
rnd_pos(rp, &tp);
} until (mvinch(tp.y, tp.x) == FLOOR || cnt++ > 5000);
mvaddch(tp.y, tp.x, FOOD);
obj->o_pos = tp;
if (rnd(100) < 40) { /* treasure type maze */
treas = TRUE;
least = 10;
debug("treasure maze");
}
else { /* normal maze level */
least = 5;
treas = FALSE;
}
genmonsters(least, treas);
}
void Moc::parseFunctionArguments(FunctionDef *def)
{
Q_UNUSED(def);
while (hasNext()) {
ArgumentDef arg;
arg.type = parseType();
if (arg.type.name == "void")
break;
if (test(IDENTIFIER))
arg.name = lexem();
while (test(LBRACK)) {
arg.rightType += lexemUntil(RBRACK);
}
if (test(CONST) || test(VOLATILE)) {
arg.rightType += ' ';
arg.rightType += lexem();
}
arg.normalizedType = normalizeType(arg.type.name + ' ' + arg.rightType);
arg.typeNameForCast = normalizeType(noRef(arg.type.name) + "(*)" + arg.rightType);
if (test(EQ))
arg.isDefault = true;
def->arguments += arg;
if (!until(COMMA))
break;
}
}
bool Moc::parseEnum(EnumDef *def)
{
bool isTypdefEnum = false; // typedef enum { ... } Foo;
if (test(IDENTIFIER)) {
def->name = lexem();
} else {
if (lookup(-1) != TYPEDEF)
return false; // anonymous enum
isTypdefEnum = true;
}
if (!test(LBRACE))
return false;
do {
if (lookup() == RBRACE) // accept trailing comma
break;
next(IDENTIFIER);
def->values += lexem();
} while (test(EQ) ? until(COMMA) : test(COMMA));
next(RBRACE);
if (isTypdefEnum) {
if (!test(IDENTIFIER))
return false;
def->name = lexem();
}
return true;
}
void Moc::parseSlots(ClassDef *def, FunctionDef::Access access)
{
next(COLON);
while (inClass(def) && hasNext()) {
switch (next()) {
case PUBLIC:
case PROTECTED:
case PRIVATE:
case Q_SIGNALS_TOKEN:
case Q_SLOTS_TOKEN:
prev();
return;
case SEMIC:
continue;
case FRIEND:
until(SEMIC);
continue;
case USING:
error("'using' directive not supported in 'slots' section");
default:
prev();
}
FunctionDef funcDef;
funcDef.access = access;
if (!parseFunction(&funcDef))
continue;
def->slotList += funcDef;
while (funcDef.arguments.size() > 0 && funcDef.arguments.last().isDefault) {
funcDef.wasCloned = true;
funcDef.arguments.removeLast();
def->slotList += funcDef;
}
}
}
/**
*
* Copy a file to the standard output
*
**/
void copyfile(FILE *file)
{
int c;
until ((c = fgetc(file)) == EOF)
putchar(c);
}
char *
linebuf_prev (LINEBUF *buffer, DESCR *descr, const char *curline)
{
ASSERT (buffer);
ASSERT (descr);
ASSERT (curline);
if (curline == buffer-> tail)
return (NULL); /* We're at the start */
else
{
/* We're pointing to the byte after the line's null byte */
buffer_dec (curline); /* Bump down to null */
ASSERT (*curline == '\0');
do
{
buffer_dec (curline); /* And now look for previous null */
if (*curline == '\0')
{
buffer_inc (curline); /* Bump up to start of string */
break;
}
}
until (curline == buffer-> tail);
get_line (buffer, descr, curline);
return ((char *) curline);
}
}
bool ConnectionContext::get(boost::shared_ptr<SessionContext> ssn, boost::shared_ptr<ReceiverContext> lnk, qpid::messaging::Message& message, qpid::messaging::Duration timeout)
{
qpid::sys::AbsTime until(convert(timeout));
while (true) {
qpid::sys::ScopedLock<qpid::sys::Monitor> l(lock);
pn_delivery_t* current = pn_link_current((pn_link_t*) lnk->receiver);
QPID_LOG(debug, "In ConnectionContext::get(), current=" << current);
if (current) {
qpid::messaging::MessageImpl& impl = MessageImplAccess::get(message);
boost::shared_ptr<EncodedMessage> encoded(new EncodedMessage(pn_delivery_pending(current)));
ssize_t read = pn_link_recv(lnk->receiver, encoded->getData(), encoded->getSize());
if (read < 0) throw qpid::messaging::MessagingException("Failed to read message");
encoded->trim((size_t) read);
QPID_LOG(debug, "Received message of " << encoded->getSize() << " bytes: ");
encoded->init(impl);
impl.setEncoded(encoded);
impl.setInternalId(ssn->record(current));
pn_link_advance(lnk->receiver);
return true;
} else if (until > qpid::sys::now()) {
wait();
} else {
return false;
}
}
return false;
}
int mollweide(mapx_class *current, double lat, double lon,
double *x, double *y)
{
double dlon;
double phi, lam, theta, delta;
double sin_theta, cos_theta, psi, epsilon=1e-6;
int it, maxit=10;
dlon = lon - current->lon0;
NORMALIZE(dlon);
phi = RADIANS (lat);
lam = RADIANS (dlon);
delta = 0.0;
theta = phi;
sin_theta = sin(theta);
cos_theta = cos(theta);
if (fabs(cos_theta) > epsilon)
{ psi = PI*sin(phi);
it = 0;
repeat
{ delta = -(theta + sin_theta - psi) / (1 + cos_theta);
theta += delta;
sin_theta = sin(theta);
cos_theta = cos(theta);
if (++it >= maxit) break;
} until (fabs(delta) <= epsilon);
theta /= 2.0;
sin_theta = sin(theta);
cos_theta = cos(theta);
}
/**
*
* _help(debug);
*
* Display help file.
*
**/
PUBLIC void _help(DEBUG *debug, char *topic)
{
DISPLAY *display = debug->display;
#ifndef BUG
int proc_id;
#endif
dstart(display);
if (topic == NULL)
{
if ((proc_id = vfork()) == 0)
{
dup2(fileno(display->filein), 0);
dup2(fileno(display->fileout), 1);
dup2(fileno(display->fileout), 2);
execlp("more", "more", "/helios/etc/debug.hlp", NULL);
perror("more");
_exit(1);
}
#ifndef BUG
{
int t_state,terror;
do
{
terror = wait(&t_state);
}
until((terror == proc_id) || (terror == -1));
}
#endif
}
else
{
do_passages()
{
register struct rdes *r1, *r2;
register int i, j;
register int roomcount;
/*
* reinitialize room graph description
*/
for (r1 = rdes; r1 < &rdes[MAXROOMS]; r1++)
{
for (j = 0; j < MAXROOMS; j++)
r1->isconn[j] = FALSE;
r1->ingraph = FALSE;
}
/*
* starting with one room, connect it to a random adjacent room and
* then pick a new room to start with.
*/
roomcount = 1;
r1 = &rdes[rnd(MAXROOMS)];
r1->ingraph = TRUE;
do
{
/*
* find a room to connect with
*/
j = 0;
for (i = 0; i < MAXROOMS; i++)
if (r1->conn[i] && !rdes[i].ingraph && rnd(++j) == 0)
r2 = &rdes[i];
/*
* if no adjacent rooms are outside the graph, pick a new room
* to look from
*/
if (j == 0)
{
do
r1 = &rdes[rnd(MAXROOMS)];
until (r1->ingraph);
}
/*
* otherwise, connect new room to the graph, and draw a tunnel
* to it
*/
else
{
r2->ingraph = TRUE;
i = r1 - rdes;
j = r2 - rdes;
conn(i, j);
r1->isconn[j] = TRUE;
r2->isconn[i] = TRUE;
roomcount++;
}
} while (roomcount < MAXROOMS);
int main () {
int numbers[]={10,20,30,40,50};
MyIterator from(numbers);
MyIterator until(numbers+5);
for (MyIterator it=from; it!=until; it++)
std::cout << *it << ' ';
std::cout << '\n';
return 0;
}
void Moc::parseSignals(ClassDef *def)
{
int defaultRevision = -1;
if (test(Q_REVISION_TOKEN)) {
next(LPAREN);
QByteArray revision = lexemUntil(RPAREN);
revision.remove(0, 1);
revision.chop(1);
bool ok = false;
defaultRevision = revision.toInt(&ok);
if (!ok || defaultRevision < 0)
error("Invalid revision");
}
next(COLON);
while (inClass(def) && hasNext()) {
switch (next()) {
case PUBLIC:
case PROTECTED:
case PRIVATE:
case Q_SIGNALS_TOKEN:
case Q_SLOTS_TOKEN:
prev();
return;
case SEMIC:
continue;
case FRIEND:
until(SEMIC);
continue;
case USING:
error("'using' directive not supported in 'signals' section");
default:
prev();
}
FunctionDef funcDef;
funcDef.access = FunctionDef::Protected;
parseFunction(&funcDef);
if (funcDef.isVirtual)
warning("Signals cannot be declared virtual");
if (funcDef.inlineCode)
error("Not a signal declaration");
if (funcDef.revision > 0) {
++def->revisionedMethods;
} else if (defaultRevision != -1) {
funcDef.revision = defaultRevision;
++def->revisionedMethods;
}
def->signalList += funcDef;
while (funcDef.arguments.size() > 0 && funcDef.arguments.last().isDefault) {
funcDef.wasCloned = true;
funcDef.arguments.removeLast();
def->signalList += funcDef;
}
}
}
int test_iterator_1()
{
// std::iterator: 迭代器基类
int numbers[] = { 10, 20, 30, 40, 50 };
MyIterator from(numbers);
MyIterator until(numbers + 5);
for (MyIterator it = from; it != until; it++)
std::cout << *it << ' ';
std::cout << '\n';
return 0;
}
/* LISTALLHELP -- Starting at curpack, list out all packages and their tasks
* in a circular fashion until get back to curpack. this is like the search
* path works. Label the current package in some way. Serves ?? directive.
* TODO: this should be optimized once a nice form is settled on.
*/
void
listallhelp (int show_invis)
{
register struct package *pkp;
pkp = curpack;
do {
oprintf (" %s:\n", pkp->pk_name);
listhelp (pkp, show_invis);
if ((pkp = pkp->pk_npk) == NULL)
pkp = reference (package, pachead);
} until (pkp == curpack);
}
/*** Parse a while statement ***/
While* Parser::parseWhile()
{
if(!hasTokens() || peekToken().getType() != T_WHILE)
ParserSyntaxException(getToken(), "Expected \"while\" command!");
Token tok = getToken();
// Store the condition
std::auto_ptr<Object> cond(parseExpression());
if(!hasTokens() || peekToken().getType() != T_DO)
ParserSyntaxException(getToken(), "Expected \"do\" command!");
getToken();
// Parse any newlines
while(hasTokens() && peekToken().getType() == T_EOL)
getToken();
// Add commands until "od" or "until" is found
std::auto_ptr<NodeList> whileStmts(new NodeList());
while(hasTokens() && !(peekToken().getType() == T_OD || peekToken().getType() == T_UNTIL))
{
whileStmts->pushNode(parseStatement());
parseSeparation();
}
std::auto_ptr<While> result(new While());
result->setLineNumber(tok.getLineNumber());
result->setColumnNumber(tok.getColumnNumber());
if(hasTokens() && peekToken().getType() == T_OD)
{
getToken();
result->setCondition(cond.release());
result->setStatements(whileStmts.release());
return result.release();
}
if(hasTokens() && peekToken().getType() == T_UNTIL)
{
getToken();
std::auto_ptr<Object> until(parseExpression());
result->setCondition(cond.release());
result->setStatements(whileStmts.release());
result->setUntilCondition(until.release());
return result.release();
}
throw ParserSyntaxException(getToken(), "Expected \"od\" or \"until\" command!");
return 0;
}
QByteArray Moc::lexemUntil(Token target)
{
int from = index;
until(target);
QByteArray s;
while (from <= index) {
QByteArray n = symbols.at(from++-1).lexem();
if (s.size() && n.size()
&& is_ident_char(s.at(s.size()-1))
&& is_ident_char(n.at(0)))
s += ' ';
s += n;
}
return s;
}
Dt_input_scan *dt_input_scan (const char data_path[])
/* ... scans the ASCII input file data_path for the fields in the return
structure (see dt.h file). See also dt_input_load() which actually
loads the data and sets the has_weights field if necessary. */
/* NOTE: The returned address, which points to the return structure,
is a constant. DO NOT FREE() IT and consider the fields
of the structure as read-only. */
{
static Dt_input_scan data;
FILE *inp = basic_fopen (data_path, "r");
char *r;
;
/* default values */
data.name = STRDUP (data_path);
data.title = NULL;
data.lines = 0;
data.n = 0;
data.scale = 1.0; /* ie, no scaling */
data.fix_w = 0;
data.fix_a = 0;
data.decimals = 10; /* ie, int coordinates */
data.has_weights = 0; /* ie, unknown; see dt_input_load() */
;
/* scan the file */
print ("Scanning ASCII file \"%s\" ... ",
If (basic_fopen_zpath, basic_fopen_zpath, data_path));
flush ();
while ((r = basic_cb_getline (inp)))
{
data.lines ++;
if (basic_strip (r) AND (r[0] != '#'))
{ /* a data line: <x> <y> <z> */
data.n ++;
}
else if (is_command (&data, r, "title", 5))
{ /* # title: %s */
r = basic_strip (index (r, 'e') + 1);
if (r)
{
int i = -1;
data.title = STRDUP (r);
do { i ++; } until (data.title[i] == '\n');
data.title[i] = 0;
}
}
else if (is_command (&data, r, "scale", 5))
/*
* init_colors:
* Initialize the potion color scheme for this time
*/
void
init_colors(void)
{
int i, j;
int used[NCOLORS];
for (i = 0; i < NCOLORS; i++)
used[i] = FALSE;
for (i = 0; i < MAXPOTIONS; i++)
{
do
j = rnd(NCOLORS);
until (!used[j]);
used[j] = TRUE;
p_colors[i] = rainbow[j];
}
}
/**
*
* _edit(debug, loc):
*
* Invoke an editor.
*
**/
PUBLIC void _edit(DEBUG *debug, LOCATION loc)
{
DISPLAY *display = debug->display;
char *editor;
char lineopt[20];
#ifndef BUG
int proc_id;
#endif
(void)sprintf(lineopt, "-g%d", loc.line);
if ((editor = getvar(debug->env.Envv, "EDITOR")) == NULL) editor = "emacs";
/* ACE: The name stored with the source should be the full name, thus
eliminating the need to fiddle the current directory.
*/
#ifdef OLDCODE
chdir(debug->env.Objv[0]->Name);
#endif
/*
-- crf : 12/08/91 - clean up use of Environment Objv
*/
chdir(debug->env.Objv[OV_Cdir]->Name);
dstart(display);
if ((proc_id = vfork()) == 0)
{
dup2(fileno(display->filein), 0);
dup2(fileno(display->fileout), 1);
dup2(fileno(display->fileout), 2);
execlp(editor, editor, lineopt, getsource(loc.module)->name, NULL);
perror(editor);
_exit(1);
}
#ifndef BUG
{
int t_state,terror;
do
{
terror = wait(&t_state);
}
until((terror == proc_id) || (terror == -1));
}
#endif
dend(display, FALSE);
}
/*
* init_stones:
* Initialize the ring stone setting scheme for this time
*/
void
init_stones(void)
{
int used[NSTONES];
int i, j;
for (i = 0; i < NSTONES; i++)
used[i] = FALSE;
for (i = 0; i < MAXRINGS; i++)
{
do
j = rnd(NSTONES);
until (!used[j]);
used[j] = TRUE;
r_stones[i] = stones[j].st_name;
ring_info[i].oi_worth += stones[j].st_value;
}
}
/**
*
* _shell(debug, cmdline);
*
* Execute a shell.
*
**/
PUBLIC void _shell(DEBUG *debug, char *cmdline)
{
DISPLAY *display = debug->display;
char *shell;
#ifndef BUG
int proc_id;
#endif
if ((shell = getvar(debug->env.Envv, "SHELL")) == NULL) shell = "shell";
#ifdef OLDCODE
chdir(debug->env.Objv[0]->Name);
#endif
/*
-- crf : 12/08/91 - clean up use of Environment Objv
*/
chdir(debug->env.Objv[OV_Cdir]->Name);
dstart(display);
if ((proc_id = vfork()) == 0)
{
dup2(fileno(display->filein), 0);
dup2(fileno(display->fileout), 1);
dup2(fileno(display->fileout), 2);
if (cmdline == NULL) execlp(shell, shell, NULL);
else execlp(shell, shell, "-fc", cmdline, NULL);
perror(shell);
_exit(1);
}
#ifndef BUG
{
int t_state,terror;
do
{
terror = wait(&t_state);
}
until((terror == proc_id) || (terror == -1));
}
#endif
dend(display, cmdline != NULL);
}
void Procedure::parseBody(bool allowNative) {
if(nextToken()->value[0] == E_RADIO){
const Token *t = consumeToken(IDENTIFIER);
if(!allowNative){
compilerError(t, "Native code is not allowed in this context.");
}
native = true;
return;
}
const Token *token = consumeToken(IDENTIFIER);
if (token->value[0] != E_GRAPES){
ecCharToCharStack(token->value[0], c);
compilerError(token, "Expected 🍇 but found %s instead.", c);
}
firstToken = currentToken;
int d = 0;
while ((token = until(E_WATERMELON, E_GRAPES, &d)) != nullptr);
}
int test_iterator_20()
{
// std::reverse_iterator: 反向迭代器
std::vector<int> myvector;
for (int i = 0; i<10; i++) myvector.push_back(i);
typedef std::vector<int>::iterator iter_type;
// ? 0 1 2 3 4 5 6 7 8 9 ?
iter_type from(myvector.begin()); // ^
// ------>
iter_type until(myvector.end()); // ^
//
std::reverse_iterator<iter_type> rev_until(from); // ^
// <------
std::reverse_iterator<iter_type> rev_from(until); // ^
std::cout << "myvector:";
while (rev_from != rev_until)
std::cout << ' ' << *rev_from++; // 9 8 7 6 5 4 3 2 1 0
std::cout << '\n';
return 0;
}
/* RUN -- Run the code beginning at pc until we run an EXEC instruction of
* something other than a builtin command or END instruction.
* The EXEC instruction means that a new task is being started and we should
* return to the parser in the main "parse/run" loop in main. If, however,
* the exec was for a builtin (or procedure, someday) then no parsing is to
* be done and we just continue on with the current code.
* Note that execing the bye builtin is not a special case since it does a
* restor() which resets the pc to the instruction immediately following the
* exec IN THE PARENT task and we continue on with it.
* Increment pc after each "fetch" cycle and before the "exec" cycle.
* If any if the instructions fail, they will call error(). this will do
* a longjmp(errenv,1), causing setjmp to return (in main) and an
* immediate retreat to the most recent terminaltask with unwind().
*/
void
run (void)
{
register struct codeentry *cp;
register int opcode;
if (cltrace)
eprintf ("\t----- task %s -----\n",
currentask->t_ltp->lt_lname);
do {
cp = coderef (pc);
opcode = cp->c_opcode;
if (cltrace)
d_instr (stderr, "\t", pc);
if (cldebug)
eprintf ("run: pc = %d, opcode = %d\n", pc, opcode);
pc += cp->c_length;
(*opcodetbl[opcode]) (&cp->c_args);
} until ((opcode == EXEC && !(newtask->t_flags & T_BUILTIN)) ||
opcode == END || alldone);
}
void Moc::parseSignals(ClassDef *def)
{
next(COLON);
while (inClass(def) && hasNext()) {
switch (next()) {
case PUBLIC:
case PROTECTED:
case PRIVATE:
case Q_SIGNALS_TOKEN:
case Q_SLOTS_TOKEN:
prev();
return;
case SEMIC:
continue;
case FRIEND:
until(SEMIC);
continue;
case USING:
error("'using' directive not supported in 'signals' section");
default:
prev();
}
FunctionDef funcDef;
funcDef.access = FunctionDef::Protected;
parseFunction(&funcDef);
if (funcDef.isVirtual)
warning("Signals cannot be declared virtual");
if (funcDef.inlineCode)
error("Not a signal declaration");
def->signalList += funcDef;
while (funcDef.arguments.size() > 0 && funcDef.arguments.last().isDefault) {
funcDef.wasCloned = true;
funcDef.arguments.removeLast();
def->signalList += funcDef;
}
}
}
int main()
{
int numbers[]={10,20,30,40,50};
MyIterator from(numbers);
MyIterator until(numbers+5);
for (MyIterator it=from; it!=until; it++)
std::cout << *it << ' ';
std::cout << '\n';
// F*****g the Question 5 in http://blog.csdn.net/fengbingyang/article/details/8764931
// refer to http://programmers.stackexchange.com/questions/153386/why-is-x-x-undefined
int x=10;
x = x++;
from = from++;
printf("int++: %d, iter++: %d\n",x,*from);
std::vector<int> vc1(numbers, numbers+5);
std::vector<int> vc2(vc1.begin(), vc1.end());
std::vector<int> v(vc1);
auto mid1 = my_reverse(v.begin(), v.end());
for (int n : v)
std::cout << n << ' ';
std::cout << "Mid: " << mid1 <<'\n';
std::list<int> l(numbers, numbers+5);
auto mid2 = my_reverse(l.begin(), l.end());
for (auto n : l)
std::cout << n << ' ';
std::cout << "Mid: " << mid2<< '\n';
// std::istreambuf_iterator<char> i1(std::cin), i2;
// my_reverse(i1, i2); // compilation error
return 0;
}
buy_it()
{
reg int wh;
struct linked_list *item = NULL;
struct object *obj = NULL;
int wasfood = FALSE;
if (purse <= 0) {
msg("You have no money.");
return;
}
if (curprice < 0) { /* if not yet priced */
wh = price_it();
if (!wh) /* nothing to price */
return;
msg("Do you want to buy it? ");
do {
wh = wgetch(cw);
if (wh == ESC || wh == 'n') {
msg("");
return;
}
} until(wh == 'y');
}
/*
* buy_it:
* Buy the item on which the hero stands
*/
int buy_it()
{
int wh;
if (purse <= 0) {
msg("You have no money.");
return 0;
}
if (curprice < 0) { /* if not yet priced */
wh = price_it();
if (!wh) /* nothing to price */
return 0;
msg("Do you want to buy it? ");
do {
wh = readchar();
if (isupper(wh))
wh = tolower(wh);
if (wh == ESCAPE || wh == 'n') {
msg("");
return 0;
}
}
until(wh == 'y');
}
void GameStateManager::cleanup()
{
//unwind state stack in reverse
typedef std::vector<State*>::iterator iter_type;
iter_type from(gameStates.begin());
iter_type until(gameStates.end());
std::reverse_iterator<iter_type> rev_until(from);
std::reverse_iterator<iter_type> rev_from(until);
while (rev_from != rev_until)
{
delete *rev_from++;
}
for (auto& state : hangingStates)
{
delete state;
state = nullptr;
}
//remove all state pointers
gameStates.clear();
hangingStates.clear();
}
void Preprocessor::preprocess(const QByteArray &filename, Symbols &preprocessed)
{
currentFilenames.push(filename);
preprocessed.reserve(preprocessed.size() + symbols.size());
while (hasNext()) {
Token token = next();
switch (token) {
case PP_INCLUDE:
{
int lineNum = symbol().lineNum;
QByteArray include;
bool local = false;
if (test(PP_STRING_LITERAL)) {
local = lexem().startsWith('\"');
include = unquotedLexem();
} else
continue;
until(PP_NEWLINE);
// #### stringery
QFileInfo fi;
if (local)
fi.setFile(QFileInfo(QString::fromLocal8Bit(filename)).dir(), QString::fromLocal8Bit(include));
for (int j = 0; j < Preprocessor::includes.size() && !fi.exists(); ++j) {
const IncludePath &p = Preprocessor::includes.at(j);
if (p.isFrameworkPath) {
const int slashPos = include.indexOf('/');
if (slashPos == -1)
continue;
QByteArray frameworkCandidate = include.left(slashPos);
frameworkCandidate.append(".framework/Headers/");
fi.setFile(QString::fromLocal8Bit(QByteArray(p.path + '/' + frameworkCandidate)), QString::fromLocal8Bit(include.mid(slashPos + 1)));
} else {
fi.setFile(QString::fromLocal8Bit(p.path), QString::fromLocal8Bit(include));
}
// try again, maybe there's a file later in the include paths with the same name
// (186067)
if (fi.isDir()) {
fi = QFileInfo();
continue;
}
}
if (!fi.exists() || fi.isDir())
continue;
include = fi.canonicalFilePath().toLocal8Bit();
if (Preprocessor::preprocessedIncludes.contains(include))
continue;
Preprocessor::preprocessedIncludes.insert(include);
QFile file(QString::fromLocal8Bit(include));
if (!file.open(QFile::ReadOnly))
continue;
QByteArray input = file.readAll();
file.close();
if (input.isEmpty())
continue;
Symbols saveSymbols = symbols;
int saveIndex = index;
// phase 1: get rid of backslash-newlines
input = cleaned(input);
// phase 2: tokenize for the preprocessor
symbols = tokenize(input);
input.clear();
index = 0;
// phase 3: preprocess conditions and substitute macros
preprocessed += Symbol(0, MOC_INCLUDE_BEGIN, include);
preprocess(include, preprocessed);
preprocessed += Symbol(lineNum, MOC_INCLUDE_END, include);
symbols = saveSymbols;
index = saveIndex;
continue;
}
case PP_DEFINE:
{
next(IDENTIFIER);
QByteArray name = lexem();
int start = index;
until(PP_NEWLINE);
Macro macro;
macro.symbols.reserve(index - start - 1);
for (int i = start; i < index - 1; ++i)
macro.symbols += symbols.at(i);
macros.insert(name, macro);
continue;
}
case PP_UNDEF: {
next(IDENTIFIER);
QByteArray name = lexem();
until(PP_NEWLINE);
macros.remove(name);
continue;
}
case PP_IDENTIFIER:
{
// if (macros.contains(symbol()))
// ;
}
// we _could_ easily substitute macros by the following
// four lines, but we choose not to.
/*
if (macros.contains(sym.lexem())) {
preprocessed += substitute(macros, symbols, i);
continue;
}
*/
break;
case PP_HASH:
until(PP_NEWLINE);
continue; // skip unknown preprocessor statement
case PP_IFDEF:
case PP_IFNDEF:
case PP_IF:
while (!evaluateCondition()) {
if (!skipBranch())
break;
if (test(PP_ELIF)) {
} else {
until(PP_NEWLINE);
break;
}
}
continue;
case PP_ELIF:
case PP_ELSE:
skipUntilEndif();
// fall through
case PP_ENDIF:
until(PP_NEWLINE);
continue;
case SIGNALS:
case SLOTS: {
Symbol sym = symbol();
if (macros.contains("QT_NO_KEYWORDS"))
sym.token = IDENTIFIER;
else
sym.token = (token == SIGNALS ? Q_SIGNALS_TOKEN : Q_SLOTS_TOKEN);
preprocessed += sym;
} continue;
default:
break;
}
preprocessed += symbol();
}
currentFilenames.pop();
}