// since in gcc 4.7 construction delegation does not work - provide a work around
// whitelist_static_app::whitelist_static_app(cppcms::service &srv, const string& folder, const value& whitelist, hash_algorithm algo)
// : whitelist_static_app(srv, folder, signature::hash_function(algo)) {}
whitelist_static_app::whitelist_static_app(cppcms::service &srv, const fs::path& folder, const value& whitelist, hash_algorithm algo)
: base_app(srv), whitelist_(whitelist), hash_function_(signature::hash_function(algo)), folder_(folder)
{
mapper().assign("");
}
int main(int argc, char** argv)
{
utils::mpi_world mpi_world(argc, argv);
const int mpi_rank = MPI::COMM_WORLD.Get_rank();
const int mpi_size = MPI::COMM_WORLD.Get_size();
try {
if (getoptions(argc, argv) != 0)
return 1;
if (command.empty())
throw std::runtime_error("no command?");
typedef MapReduce map_reduce_type;
typedef map_reduce_type::id_type id_type;
typedef map_reduce_type::value_type value_type;
typedef map_reduce_type::queue_type queue_type;
typedef map_reduce_type::queue_id_type queue_id_type;
typedef map_reduce_type::subprocess_type subprocess_type;
typedef Mapper mapper_type;
typedef Reducer reducer_type;
typedef Consumer consumer_type;
typedef Merger merger_type;
if (mpi_rank == 0) {
subprocess_type subprocess(command);
queue_type queue_is(mpi_size);
queue_type queue_send(1);
queue_id_type queue_id;
queue_type queue_recv;
const bool flush_output = (output_file == "-"
|| (boost::filesystem::exists(output_file)
&& ! boost::filesystem::is_regular_file(output_file)));
utils::compress_istream is(input_file, 1024 * 1024);
utils::compress_ostream os(output_file, 1024 * 1024 * (! flush_output));
boost::thread consumer(consumer_type(queue_is, is));
boost::thread merger(merger_type(queue_recv, os, mpi_size));
boost::thread mapper(mapper_type(queue_send, queue_id, subprocess));
boost::thread reducer(reducer_type(queue_recv, queue_id, subprocess));
typedef utils::mpi_ostream ostream_type;
typedef utils::mpi_istream_simple istream_type;
typedef boost::shared_ptr<ostream_type> ostream_ptr_type;
typedef boost::shared_ptr<istream_type> istream_ptr_type;
typedef std::vector<ostream_ptr_type, std::allocator<ostream_ptr_type> > ostream_ptr_set_type;
typedef std::vector<istream_ptr_type, std::allocator<istream_ptr_type> > istream_ptr_set_type;
ostream_ptr_set_type ostream(mpi_size);
istream_ptr_set_type istream(mpi_size);
for (int rank = 1; rank < mpi_size; ++ rank) {
ostream[rank].reset(new ostream_type(rank, line_tag, 4096));
istream[rank].reset(new istream_type(rank, line_tag, 4096));
}
std::string line;
value_type value(0, std::string());
value_type value_recv(0, std::string());
int non_found_iter = 0;
while (value.first != id_type(-1)) {
bool found = false;
for (int rank = 1; rank < mpi_size && value.first != id_type(-1); ++ rank)
if (ostream[rank]->test() && queue_is.pop(value, true) && value.first != id_type(-1)) {
ostream[rank]->write(utils::lexical_cast<std::string>(value.first) + ' ' + value.second);
found = true;
}
if (queue_send.empty() && queue_is.pop(value, true) && value.first != id_type(-1)) {
queue_send.push(value);
found = true;
}
// reduce...
for (int rank = 1; rank < mpi_size; ++ rank)
if (istream[rank] && istream[rank]->test()) {
if (istream[rank]->read(line)) {
tokenize(line, value_recv);
queue_recv.push_swap(value_recv);
} else {
queue_recv.push(std::make_pair(id_type(-1), std::string()));
istream[rank].reset();
}
found = true;
}
non_found_iter = loop_sleep(found, non_found_iter);
}
bool terminated = false;
for (;;) {
bool found = false;
if (! terminated && queue_send.push(std::make_pair(id_type(-1), std::string()), true)) {
terminated = true;
found = true;
}
// termination...
for (int rank = 1; rank < mpi_size; ++ rank)
if (ostream[rank] && ostream[rank]->test()) {
if (! ostream[rank]->terminated())
ostream[rank]->terminate();
else
ostream[rank].reset();
found = true;
}
// reduce...
for (int rank = 1; rank < mpi_size; ++ rank)
if (istream[rank] && istream[rank]->test()) {
if (istream[rank]->read(line)) {
tokenize(line, value_recv);
queue_recv.push_swap(value_recv);
} else {
queue_recv.push(std::make_pair(id_type(-1), std::string()));
istream[rank].reset();
}
found = true;
}
// termination condition!
if (std::count(istream.begin(), istream.end(), istream_ptr_type()) == mpi_size
&& std::count(ostream.begin(), ostream.end(), ostream_ptr_type()) == mpi_size
&& terminated) break;
non_found_iter = loop_sleep(found, non_found_iter);
}
mapper.join();
reducer.join();
consumer.join();
merger.join();
} else {
subprocess_type subprocess(command);
queue_type queue_send(1);
queue_id_type queue_id;
queue_type queue_recv;
boost::thread mapper(mapper_type(queue_send, queue_id, subprocess));
boost::thread reducer(reducer_type(queue_recv, queue_id, subprocess));
typedef utils::mpi_istream istream_type;
typedef utils::mpi_ostream_simple ostream_type;
boost::shared_ptr<istream_type> is(new istream_type(0, line_tag, 4096));
boost::shared_ptr<ostream_type> os(new ostream_type(0, line_tag, 4096));
std::string line;
value_type value;
bool terminated = false;
int non_found_iter = 0;
for (;;) {
bool found = false;
if (is && is->test() && queue_send.empty()) {
if (is->read(line))
tokenize(line, value);
else {
value.first = id_type(-1);
value.second = std::string();
is.reset();
}
queue_send.push_swap(value);
found = true;
}
if (! terminated) {
if (os && os->test() && queue_recv.pop_swap(value, true)) {
if (value.first == id_type(-1))
terminated = true;
else
os->write(utils::lexical_cast<std::string>(value.first) + ' ' + value.second);
found = true;
}
} else {
if (os && os->test()) {
if (! os->terminated())
os->terminate();
else
os.reset();
found = true;
}
}
if (! is && ! os) break;
non_found_iter = loop_sleep(found, non_found_iter);
}
mapper.join();
reducer.join();
}
// synchronize...
if (mpi_rank == 0) {
std::vector<MPI::Request, std::allocator<MPI::Request> > request_recv(mpi_size);
std::vector<MPI::Request, std::allocator<MPI::Request> > request_send(mpi_size);
std::vector<bool, std::allocator<bool> > terminated_recv(mpi_size, false);
std::vector<bool, std::allocator<bool> > terminated_send(mpi_size, false);
terminated_recv[0] = true;
terminated_send[0] = true;
for (int rank = 1; rank != mpi_size; ++ rank) {
request_recv[rank] = MPI::COMM_WORLD.Irecv(0, 0, MPI::INT, rank, notify_tag);
request_send[rank] = MPI::COMM_WORLD.Isend(0, 0, MPI::INT, rank, notify_tag);
}
int non_found_iter = 0;
for (;;) {
bool found = false;
for (int rank = 1; rank != mpi_size; ++ rank)
if (! terminated_recv[rank] && request_recv[rank].Test()) {
terminated_recv[rank] = true;
found = true;
}
for (int rank = 1; rank != mpi_size; ++ rank)
if (! terminated_send[rank] && request_send[rank].Test()) {
terminated_send[rank] = true;
found = true;
}
if (std::count(terminated_send.begin(), terminated_send.end(), true) == mpi_size
&& std::count(terminated_recv.begin(), terminated_recv.end(), true) == mpi_size) break;
non_found_iter = loop_sleep(found, non_found_iter);
}
} else {
MPI::Request request_send = MPI::COMM_WORLD.Isend(0, 0, MPI::INT, 0, notify_tag);
MPI::Request request_recv = MPI::COMM_WORLD.Irecv(0, 0, MPI::INT, 0, notify_tag);
bool terminated_send = false;
bool terminated_recv = false;
int non_found_iter = 0;
for (;;) {
bool found = false;
if (! terminated_send && request_send.Test()) {
terminated_send = true;
found = true;
}
if (! terminated_recv && request_recv.Test()) {
terminated_recv = true;
found = true;
}
if (terminated_send && terminated_recv) break;
non_found_iter = loop_sleep(found, non_found_iter);
}
}
}
catch (const std::exception& err) {
std::cerr << "error: " << argv[0] << " "<< err.what() << std::endl;
MPI::COMM_WORLD.Abort(1);
return 1;
}
return 0;
}
/*}}}*/
};
int
xchar_length (xchar_t ch) /*{{{*/
{
return utf8_length_tab[ch];
}/*}}}*/
int
xchar_strict_length (xchar_t ch) /*{{{*/
{
return utf8_strict_length_tab[ch];
}/*}}}*/
int
xchar_valid_position (const xchar_t *s, int length) /*{{{*/
{
# define VALID(ccc) (((ccc) & 0xc0) == 0x80)
int len, n;
if (((len = xchar_strict_length (*s)) > 0) && (length >= len))
for (n = len; n > 1; ) {
--n;
if (! VALID (*(s + n))) {
len = -1;
break;
}
}
else
len = -1;
return len;
# undef VALID
}/*}}}*/
bool_t
xchar_valid (const xchar_t *s, int length) /*{{{*/
{
int n;
while (length > 0)
if ((n = xchar_valid_position (s, length)) > 0) {
s += n;
length -= n;
} else
break;
return length == 0 ? true : false;
}/*}}}*/
const char *
xchar_to_char (const xchar_t *s) /*{{{*/
{
return (const char *) s;
}/*}}}*/
const xchar_t *
char_2_xchar (const char *s) /*{{{*/
{
return (const xchar_t *) s;
}/*}}}*/
const char *
byte_to_char (const byte_t *b) /*{{{*/
{
return (const char *) b;
}/*}}}*/
int
xstrlen (const xchar_t *s) /*{{{*/
{
int len, clen;
for (len = 0; *s; ++len) {
clen = xchar_length (*s);
while ((clen-- > 0) && *s)
++s;
}
return len;
}/*}}}*/
int
xstrcmp (const xchar_t *s1, const char *s2) /*{{{*/
{
return strcmp (xchar_to_char (s1), s2);
}/*}}}*/
int
xstrncmp (const xchar_t *s1, const char *s2, size_t n) /*{{{*/
{
return strncmp (xchar_to_char (s1), s2, n);
}/*}}}*/
bool_t
xmlbuf_equal (xmlbuf_t *b1, xmlbuf_t *b2) /*{{{*/
{
if ((! b1) && (! b2))
return true;
if (b1 && b2 && (b1 -> length == b2 -> length) &&
((! b1 -> length) || (! memcmp (b1 -> buffer, b2 -> buffer, b1 -> length))))
return true;
return false;
}/*}}}*/
char *
xmlbuf_to_string (xmlbuf_t *b) /*{{{*/
{
return buffer_copystring ((buffer_t *) b);
}/*}}}*/
long
xmlbuf_to_long (xmlbuf_t *b) /*{{{*/
{
const char *s = b ? buffer_string (b) : NULL;
return s ? strtol (s, NULL, 0) : -1;
}/*}}}*/
static inline unsigned long
mkcp (const xchar_t *s, int *len) /*{{{*/
{
unsigned long cp;
int n;
*len = xchar_length (*s);
for (n = 0, cp = 0; n < *len; ++n) {
cp <<= 8;
cp |= s[n];
}
return cp;
}/*}}}*/
static inline const utfmap_t *
mapfind (const xchar_t *s, int *len, const utfmap_t *map, int msize) /*{{{*/
{
unsigned long cp;
int low, high, pos;
int dummy;
cp = mkcp (s, len ? len : & dummy);
for (low = 0, high = msize; low < high; ) {
pos = (low + high) >> 1;
if (map[pos].cp == cp)
return & map[pos];
else if (map[pos].cp < cp)
low = pos + 1;
else
high = pos;
}
return NULL;
}/*}}}*/
static inline bool_t
isword (const xchar_t *s) /*{{{*/
{
unsigned long cp;
int len;
cp = mkcp (s, & len);
if (len == 1)
return isalnum (s[0]) ? true : false;
else {
int low, high, pos;
for (low = 0, high = is_word_length; low < high;) {
pos = (low + high) >> 1;
if (is_word[pos] == cp)
return true;
if (is_word[pos] < cp)
low = pos + 1;
else
high = pos;
}
}
return false;
}/*}}}*/
static inline const xchar_t *
mapper (const utfmap_t *map, int msize, const xchar_t *s, int *slen, int *olen) /*{{{*/
{
const utfmap_t *m = mapfind (s, slen, map, msize);
if (m) {
if (olen)
*olen = m -> dlen;
return m -> dst;
}
return NULL;
}/*}}}*/
const xchar_t *
xtolower (const xchar_t *s, int *slen, int *olen) /*{{{*/
{
return mapper (utflower, utflower_length, s, slen, olen);
}/*}}}*/
const xchar_t *
xtoupper (const xchar_t *s, int *slen, int *olen) /*{{{*/
{
return mapper (utfupper, utfupper_length, s, slen, olen);
}/*}}}*/
InputGroup::InputGroup(unsigned category_, const char *label_) : category(category_), label(label_) {
mapper().add(this);
}
void InputSettingsWindow::inputEvent(uint16_t scancode) {
if(!activeInput) return;
if(!isActiveWindow() || isMinimized()) return;
int16_t state = mapper().state(scancode);
if(dynamic_cast<DigitalInput*>(activeInput)) {
if(Keyboard::isAnyKey(scancode) && mapper().state(scancode)) {
for(unsigned i = 0; i < Keyboard::Count; i++) {
//don't map escape key, as it is reserved by the user interface
if(scancode == keyboard(i)[Keyboard::Escape]) return;
}
setAssignment(string() << mapper().modifierString() << Scancode::encode(scancode));
} else if(Keyboard::isAnyModifier(scancode) && optionAssignModifiers->isChecked()) {
setAssignment(string() << Scancode::encode(scancode));
} else if(Mouse::isAnyButton(scancode) && mapper().state(scancode)) {
//ensure button was clicked inside list box
unsigned wx = 0, wy = 0;
QWidget *widget = message;
while(widget) {
wx += widget->geometry().x();
wy += widget->geometry().y();
widget = widget->parentWidget();
}
unsigned px = QCursor::pos().x();
unsigned py = QCursor::pos().y();
if(px < wx || px >= wx + message->size().width()) return;
if(py < wy || py >= wy + message->size().height()) return;
setAssignment(string() << mapper().modifierString() << Scancode::encode(scancode));
} else if(Joypad::isAnyHat(scancode)) {
string position;
if(state == Joypad::HatUp) position = ".Up";
else if(state == Joypad::HatDown) position = ".Down";
else if(state == Joypad::HatLeft) position = ".Left";
else if(state == Joypad::HatRight) position = ".Right";
else return;
setAssignment(string() << mapper().modifierString() << Scancode::encode(scancode) << position);
} else if(Joypad::isAnyAxis(scancode) && mapper().distance(scancode) > 64) {
if(mapper().calibrated == false) {
MappedInput *temp = activeInput;
activeInput = 0;
mapper().calibrate();
activeInput = temp;
}
if(mapper().isTrigger[Joypad::numberDecode(scancode)][Joypad::axisDecode(scancode)] == false) {
string position;
if(state < -24576) position = ".Lo";
else if(state > +24576) position = ".Hi";
else return;
setAssignment(string() << mapper().modifierString() << Scancode::encode(scancode) << position);
} else {
if(state >= 0) return;
setAssignment(string() << mapper().modifierString() << Scancode::encode(scancode) << ".Trigger");
}
} else if(Joypad::isAnyButton(scancode) && mapper().state(scancode)) {
setAssignment(string() << mapper().modifierString() << Scancode::encode(scancode));
}
} else if(dynamic_cast<AnalogInput*>(activeInput)) {
if(Mouse::isAnyButton(scancode)) {
//ensure button was clicked inside list box
unsigned wx = 0, wy = 0;
QWidget *widget = message;
while(widget) {
wx += widget->geometry().x();
wy += widget->geometry().y();
widget = widget->parentWidget();
}
unsigned px = QCursor::pos().x();
unsigned py = QCursor::pos().y();
if(px < wx || px >= wx + message->size().width()) return;
if(py < wy || py >= wy + message->size().height()) return;
unsigned number = Mouse::numberDecode(scancode);
unsigned button = Mouse::buttonDecode(scancode);
if(button == 0) setAssignment(string() << Scancode::encode(mouse(number).axis(0)));
if(button == 2) setAssignment(string() << Scancode::encode(mouse(number).axis(1)));
} else if(Joypad::isAnyAxis(scancode) && mapper().distance(scancode) > 64) {
if(mapper().calibrated == false) {
MappedInput *temp = activeInput;
activeInput = 0;
mapper().calibrate();
activeInput = temp;
}
if(mapper().isTrigger[Joypad::numberDecode(scancode)][Joypad::axisDecode(scancode)] == false) {
if(state < -24576 || state > +24576) {
setAssignment(string() << Scancode::encode(scancode));
}
}
}
}
}
ElfReader::Result ElfReader::readIt()
{
if (!m_elfData.sectionHeaders.isEmpty())
return Ok;
if (!m_elfData.programHeaders.isEmpty())
return Ok;
ElfMapper mapper(this);
if (!mapper.map())
return Corrupt;
const quint64 fdlen = mapper.fdlen;
if (fdlen < 64) {
m_errorString = QLibrary::tr("'%1' is not an ELF object (%2)")
.arg(m_binary).arg(QLatin1String("file too small"));
return NotElf;
}
if (strncmp(mapper.start, "\177ELF", 4) != 0) {
m_errorString = QLibrary::tr("'%1' is not an ELF object")
.arg(m_binary);
return NotElf;
}
// 32 or 64 bit
m_elfData.elfclass = ElfClass(mapper.start[4]);
const bool is64Bit = m_elfData.elfclass == Elf_ELFCLASS64;
if (m_elfData.elfclass != Elf_ELFCLASS32 && m_elfData.elfclass != Elf_ELFCLASS64) {
m_errorString = QLibrary::tr("'%1' is an invalid ELF object (%2)")
.arg(m_binary).arg(QLatin1String("odd cpu architecture"));
return Corrupt;
}
// int bits = (data[4] << 5);
// If you remove this check to read ELF objects of a different arch,
// please make sure you modify the typedefs
// to match the _plugin_ architecture.
// if ((sizeof(void*) == 4 && bits != 32)
// || (sizeof(void*) == 8 && bits != 64)) {
// if (errorString)
// *errorString = QLibrary::tr("'%1' is an invalid ELF object (%2)")
// .arg(m_binary).arg(QLatin1String("wrong cpu architecture"));
// return Corrupt;
// }
// Read Endianess.
m_elfData.endian = ElfEndian(mapper.ustart[5]);
if (m_elfData.endian != Elf_ELFDATA2LSB && m_elfData.endian != Elf_ELFDATA2MSB) {
m_errorString = QLibrary::tr("'%1' is an invalid ELF object (%2)")
.arg(m_binary).arg(QLatin1String("odd endianess"));
return Corrupt;
}
const uchar *data = mapper.ustart + 16; // e_ident
m_elfData.elftype = ElfType(getHalfWord(data, m_elfData));
m_elfData.elfmachine = ElfMachine(getHalfWord(data, m_elfData));
/* e_version = */ getWord(data, m_elfData);
m_elfData.entryPoint = getAddress(data, m_elfData);
quint64 e_phoff = getOffset(data, m_elfData);
quint64 e_shoff = getOffset(data, m_elfData);
/* e_flags = */ getWord(data, m_elfData);
quint32 e_shsize = getHalfWord(data, m_elfData);
if (e_shsize > fdlen) {
m_errorString = QLibrary::tr("'%1' is an invalid ELF object (%2)")
.arg(m_binary).arg(QLatin1String("unexpected e_shsize"));
return Corrupt;
}
quint32 e_phentsize = getHalfWord(data, m_elfData);
QTC_CHECK(e_phentsize == (is64Bit ? 56 : 32));
quint32 e_phnum = getHalfWord(data, m_elfData);
quint32 e_shentsize = getHalfWord(data, m_elfData);
if (e_shentsize % 4) {
m_errorString = QLibrary::tr("'%1' is an invalid ELF object (%2)")
.arg(m_binary).arg(QLatin1String("unexpected e_shentsize"));
return Corrupt;
}
quint32 e_shnum = getHalfWord(data, m_elfData);
quint32 e_shtrndx = getHalfWord(data, m_elfData);
QTC_CHECK(data == mapper.ustart + (is64Bit ? 64 : 52));
if (quint64(e_shnum) * e_shentsize > fdlen) {
m_errorString = QLibrary::tr("'%1' is an invalid ELF object (%2)")
.arg(m_binary)
.arg(QLatin1String("announced %2 sections, each %3 bytes, exceed file size"))
.arg(e_shnum).arg(e_shentsize);
return Corrupt;
}
quint64 soff = e_shoff + e_shentsize * e_shtrndx;
// if ((soff + e_shentsize) > fdlen || soff % 4 || soff == 0) {
// m_errorString = QLibrary::tr("'%1' is an invalid ELF object (%2)")
// .arg(m_binary)
// .arg(QLatin1String("shstrtab section header seems to be at %1"))
// .arg(QString::number(soff, 16));
// return Corrupt;
// }
if (e_shoff) {
ElfSectionHeader strtab;
parseSectionHeader(mapper.ustart + soff, &strtab, m_elfData);
const quint64 stringTableFileOffset = strtab.offset;
if (quint32(stringTableFileOffset + e_shentsize) >= fdlen
|| stringTableFileOffset == 0) {
m_errorString = QLibrary::tr("'%1' is an invalid ELF object (%2)")
.arg(m_binary)
.arg(QLatin1String("string table seems to be at %1"))
.arg(QString::number(soff, 16));
return Corrupt;
}
for (quint32 i = 0; i < e_shnum; ++i) {
const uchar *s = mapper.ustart + e_shoff + i * e_shentsize;
ElfSectionHeader sh;
parseSectionHeader(s, &sh, m_elfData);
if (stringTableFileOffset + sh.index > fdlen) {
m_errorString = QLibrary::tr("'%1' is an invalid ELF object (%2)")
.arg(m_binary)
.arg(QLatin1String("section name %2 of %3 behind end of file"))
.arg(i).arg(e_shnum);
return Corrupt;
}
sh.name = mapper.start + stringTableFileOffset + sh.index;
if (sh.name == ".gdb_index") {
m_elfData.symbolsType = FastSymbols;
} else if (sh.name == ".debug_info") {
m_elfData.symbolsType = PlainSymbols;
} else if (sh.name == ".gnu_debuglink") {
m_elfData.debugLink = QByteArray(mapper.start + sh.offset);
m_elfData.symbolsType = LinkedSymbols;
} else if (sh.name == ".note.gnu.build-id") {
m_elfData.symbolsType = BuildIdSymbols;
if (sh.size > 16)
m_elfData.buildId = QByteArray(mapper.start + sh.offset + 16,
sh.size - 16).toHex();
}
m_elfData.sectionHeaders.append(sh);
}
}
if (e_phoff) {
for (quint32 i = 0; i < e_phnum; ++i) {
const uchar *s = mapper.ustart + e_phoff + i * e_phentsize;
ElfProgramHeader ph;
parseProgramHeader(s, &ph, m_elfData);
m_elfData.programHeaders.append(ph);
}
}
return Ok;
}
reply::reply(cppcms::service &srv) : thread_shared(srv)
{
dispatcher().assign(".*",&reply::prepare,this,0);
mapper().assign("{1}");
}
static void _testEPRs(void)
{
const String NAMESPACE = "aa/bb";
const String CLASSNAME = "MyClass";
CIMRepository r(repositoryRoot, CIMRepository::MODE_XML);
WsmToCimRequestMapper mapper(&r);
// Test mapping of EPRs
CIMObjectPath objectPath;
WsmEndpointReference epr;
epr.address = "http://www.acme.com:5988/wsman";
epr.resourceUri = String(WSM_RESOURCEURI_CIMSCHEMAV2) + "/MyClass";
epr.selectorSet->selectors.
append(WsmSelector("prop1", "value1"));
epr.selectorSet->selectors.
append(WsmSelector("__cimnamespace", NAMESPACE));
mapper.convertEPRToObjectPath(epr, objectPath);
PEGASUS_TEST_ASSERT(objectPath.toString() ==
"//www.acme.com/aa/bb:MyClass.prop1=\"value1\"");
// Test mapping of EPR values
WsmValue wsmEprValue(epr);
CIMValue cimObjpathValue(CIMTYPE_REFERENCE, false);
mapper.convertWsmToCimValue(wsmEprValue, NAMESPACE, cimObjpathValue);
CIMObjectPath objectPath1;
cimObjpathValue.get(objectPath1);
PEGASUS_TEST_ASSERT(objectPath1.toString() ==
"//www.acme.com/aa/bb:MyClass.prop1=\"value1\"");
// Test mapping of EPR array values
WsmEndpointReference epr1;
epr1.address = "http://www.acme1.com:5988/wsman";
epr1.resourceUri = String(WSM_RESOURCEURI_CIMSCHEMAV2) + "/MyClass";
epr1.selectorSet->selectors.
append(WsmSelector("prop1", "value2"));
epr1.selectorSet->selectors.
append(WsmSelector("__cimnamespace", NAMESPACE));
Array<WsmEndpointReference> eprArray;
eprArray.append(epr);
eprArray.append(epr1);
WsmValue wsmEprArrayValue(eprArray);
CIMValue cimObjpathArrayValue(CIMTYPE_REFERENCE, true);
mapper.convertWsmToCimValue(
wsmEprArrayValue, NAMESPACE, cimObjpathArrayValue);
Array<CIMObjectPath> objectPathArray;
cimObjpathArrayValue.get(objectPathArray);
PEGASUS_TEST_ASSERT(objectPathArray[0].toString() ==
"//www.acme.com/aa/bb:MyClass.prop1=\"value1\"");
PEGASUS_TEST_ASSERT(objectPathArray[1].toString() ==
"//www.acme1.com/aa/bb:MyClass.prop1=\"value2\"");
// Test invalid __cimnamespace selector type
WsmEndpointReference epr2;
epr2.address = "http://www.acme.com:5988/wsman";
epr2.resourceUri = String(WSM_RESOURCEURI_CIMSCHEMAV2) + "/MyClass";
epr2.selectorSet->selectors.
append(WsmSelector("__cimnamespace", epr1));
ASSERT_FAULT(
mapper.convertEPRToObjectPath(epr2, objectPath),
"wsman:InvalidSelectors");
// Test illegal __cimnamespace name
WsmEndpointReference epr3;
epr3.address = "http://www.acme.com:5988/wsman";
epr3.resourceUri = String(WSM_RESOURCEURI_CIMSCHEMAV2) + "/MyClass";
epr3.selectorSet->selectors.
append(WsmSelector("__cimnamespace", "garbage namespace #@!"));
ASSERT_FAULT(
mapper.convertEPRToObjectPath(epr3, objectPath),
"wsman:InvalidSelectors");
// Test illegal property name
WsmEndpointReference epr4;
epr4.address = "http://www.acme.com:5988/wsman";
epr4.resourceUri = String(WSM_RESOURCEURI_CIMSCHEMAV2) + "/MyClass";
epr4.selectorSet->selectors.
append(WsmSelector("__cimnamespace", NAMESPACE));
epr4.selectorSet->selectors.
append(WsmSelector("prop 1", "value"));
ASSERT_FAULT(
mapper.convertEPRToObjectPath(epr4, objectPath),
"wsman:InvalidSelectors");
// Test non-existent property name
WsmEndpointReference epr5;
epr5.address = "http://www.acme.com:5988/wsman";
epr5.resourceUri = String(WSM_RESOURCEURI_CIMSCHEMAV2) + "/MyClass";
epr5.selectorSet->selectors.
append(WsmSelector("__cimnamespace", NAMESPACE));
epr5.selectorSet->selectors.
append(WsmSelector("prop3", "value"));
ASSERT_FAULT(
mapper.convertEPRToObjectPath(epr5, objectPath),
"wsman:InvalidSelectors");
// Test type mismatch in key types
WsmEndpointReference epr6;
epr6.address = "https://www.acme.com:5988/wsman";
epr6.resourceUri = String(WSM_RESOURCEURI_CIMSCHEMAV2) + "/MyClass";
epr6.selectorSet->selectors.
append(WsmSelector("__cimnamespace", NAMESPACE));
epr6.selectorSet->selectors.
append(WsmSelector("prop3", epr1));
ASSERT_FAULT(
mapper.convertEPRToObjectPath(epr6, objectPath),
"wsman:InvalidSelectors");
// Test anonymous address in EPR
String addr1 = mapper.convertEPRAddressToHostname(WSM_ADDRESS_ANONYMOUS);
PEGASUS_TEST_ASSERT(addr1 == String::EMPTY);
// Test malformed EPR addresses
ASSERT_FAULT(
mapper.convertEPRAddressToHostname("garbage"),
"wsa:InvalidMessageInformationHeader");
ASSERT_FAULT(
mapper.convertEPRAddressToHostname("http://blah"),
"wsa:InvalidMessageInformationHeader");
ASSERT_FAULT(
mapper.convertEPRAddressToHostname("http://bsa#@^&sa/wsman"),
"wsa:InvalidMessageInformationHeader");
}
void MSWidgetResourceMapper::WidgetDestroyCallback::process(void)
{
mapper().widgetDestroyed(this);
}
static void _testConversionErrors(void)
{
WsmToCimRequestMapper mapper((CIMRepository*) 0);
// Invalid boolean
{
CIMValue cimValue(CIMTYPE_BOOLEAN, false);
WsmValue wsmValue("test");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
// Invalid uint/sint
{
CIMValue cimValue(CIMTYPE_UINT8, false);
WsmValue wsmValue("test");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_SINT8, false);
WsmValue wsmValue("test");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
// Uint/sint out of bounds errors
{
CIMValue cimValue(CIMTYPE_SINT8, false);
WsmValue wsmValue("-222");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_SINT16, false);
WsmValue wsmValue("-777777");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_SINT32, false);
WsmValue wsmValue("-4444444444");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_UINT8, false);
WsmValue wsmValue("333");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_UINT16, false);
WsmValue wsmValue("777777");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_UINT32, false);
WsmValue wsmValue("4444444444");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
// Invalid real values
{
CIMValue cimValue(CIMTYPE_REAL32, false);
WsmValue wsmValue("35.54.32");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_REAL64, false);
WsmValue wsmValue("35.54.32");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
// Test special floating point values. The only special values allowed
// are INF, -INF and NaN
{
CIMValue cimValue(CIMTYPE_REAL32, false);
WsmValue wsmValue("+INF");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_REAL32, false);
WsmValue wsmValue("0x2");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_REAL32, false);
WsmValue wsmValue("nan");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_REAL32, false);
WsmValue wsmValue("inf");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
{
CIMValue cimValue(CIMTYPE_REAL32, false);
WsmValue wsmValue("i");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
// Invalid char16
{
CIMValue cimValue(CIMTYPE_CHAR16, false);
WsmValue wsmValue("35.54.32");
ASSERT_FAULT(
mapper.convertWsmToCimValue(wsmValue, CIMNamespaceName(), cimValue),
"wxf:InvalidRepresentation");
}
// Invalid class URI
{
ASSERT_FAULT(
mapper.convertResourceUriToClassName("garbage"),
"wsa:DestinationUnreachable");
}
{
String classURI = String(WSM_RESOURCEURI_CIMSCHEMAV2) + "/My{}Class";
ASSERT_FAULT(
mapper.convertResourceUriToClassName(classURI),
"wsa:DestinationUnreachable");
}
// Invalid date/time
{
CIMDateTime cimDT;
// Invalid dates
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("-2004-12-01", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("+2004-12-01", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-+2-01", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12- 1", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("322004-12-01", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-112-01", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-00", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12:01", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01ZX", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01Z+01:30", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01+001:30", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01+01:030", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-0101:30", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01+25:30", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01+22:66", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01+++1:3", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01-01:-6", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01-01:66", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01Z+:.", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("4324g432", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("a-e-3Z", cimDT),
"wxf:InvalidRepresentation");
// Invalid Datetimes
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01T", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01T11:22:33X", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01T11:22:33.Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01T11:22:33.44Z0", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01T11:22:33.44Z+0", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("004-12-01T11:22:33.44Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01T11Z22:33.44Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01T11:22:133.44Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-01T11:22.133Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("--T::", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("1-1-1T1:1:1", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime(" 004-12-01T11:22:33Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-+2-01T11:22:33Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12- 1T11:22:33Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-1T11:22:33Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-11T-1:22:33Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-11T11:+2:33Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-11T11:22: 3Z", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-11T11:22:33.X", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-11T11:22:33.+1", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-11T11:22:33.+1S", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-11T11:22:33+25:00", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("2004-12-11T11:22:33+22:66", cimDT),
"wxf:InvalidRepresentation");
// Invalid intervals
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("PT", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1YT", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P100", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("PT100", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("PT100K", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("PT100Y", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("PT100D", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1M1Y", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1D1M", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1DT1M1H", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1DTM", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1YT1Y", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1YT1M1.S", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1YT1M1S.0", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1YT1H1.2M", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1YT1HT1M", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P-1Y", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P-1M", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P-1D", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("PT-1H", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("PT-1M", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("PT-1S", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P 1Y", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P~Y", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P22.33S", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("PT22.33S1Y", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P999999999Y", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P9999999999Y", cimDT),
"wxf:InvalidRepresentation");
ASSERT_FAULT(
mapper.convertWsmToCimDatetime("P1Y9999999999S", cimDT),
"wxf:InvalidRepresentation");
}
}
static void _testInstances(void)
{
const String NAMESPACE = "aa/bb";
const String CLASSNAME = "MyClass";
CIMRepository r(repositoryRoot, CIMRepository::MODE_XML);
WsmToCimRequestMapper mapper(&r);
// Create a repository entry
r.createNameSpace(NAMESPACE);
CIMClass cimClass(CLASSNAME);
cimClass.addProperty(CIMProperty(CIMName("prop1"), String::EMPTY));
cimClass.addProperty(CIMProperty(CIMName("prop2"), String::EMPTY));
r.createClass(NAMESPACE, cimClass);
CIMInstance cimInst;
WsmInstance wsmInst(CLASSNAME);
WsmValue val1("value1");
WsmValue val2("value2");
// Test mapping of instances
wsmInst.addProperty(WsmProperty(String("prop1"), val1));
wsmInst.addProperty(WsmProperty(String("prop2"), val2));
mapper.convertWsmToCimInstance(wsmInst, NAMESPACE, cimInst);
String str1, str2;
PEGASUS_TEST_ASSERT(cimInst.getClassName().getString() == CLASSNAME);
PEGASUS_TEST_ASSERT(
cimInst.getProperty(0).getName().getString() == "prop1");
PEGASUS_TEST_ASSERT(cimInst.getProperty(0).getType() == CIMTYPE_STRING);
cimInst.getProperty(0).getValue().get(str1);
PEGASUS_TEST_ASSERT(str1 == "value1");
PEGASUS_TEST_ASSERT(
cimInst.getProperty(1).getName().getString() == "prop2");
PEGASUS_TEST_ASSERT(cimInst.getProperty(1).getType() == CIMTYPE_STRING);
cimInst.getProperty(1).getValue().get(str2);
PEGASUS_TEST_ASSERT(str2 == "value2");
// Test mapping of instance values
WsmValue wsmInstValue(wsmInst);
CIMValue cimInstValue(CIMTYPE_INSTANCE, false);
mapper.convertWsmToCimValue(wsmInstValue, NAMESPACE, cimInstValue);
CIMInstance cimInst1;
cimInstValue.get(cimInst1);
PEGASUS_TEST_ASSERT(cimInst1.getClassName().getString() == CLASSNAME);
PEGASUS_TEST_ASSERT(
cimInst1.getProperty(0).getName().getString() == "prop1");
PEGASUS_TEST_ASSERT(cimInst1.getProperty(0).getType() == CIMTYPE_STRING);
cimInst1.getProperty(0).getValue().get(str1);
PEGASUS_TEST_ASSERT(str1 == "value1");
PEGASUS_TEST_ASSERT(
cimInst1.getProperty(1).getName().getString() == "prop2");
PEGASUS_TEST_ASSERT(cimInst1.getProperty(1).getType() == CIMTYPE_STRING);
cimInst1.getProperty(1).getValue().get(str2);
PEGASUS_TEST_ASSERT(str2 == "value2");
// Test mapping of instance array values
WsmInstance wsmInst1(CLASSNAME);
WsmValue val3("value3");
WsmValue val4("value4");
wsmInst1.addProperty(WsmProperty(String("prop1"), val3));
wsmInst1.addProperty(WsmProperty(String("prop2"), val4));
Array<WsmInstance> wsmInstArray;
wsmInstArray.append(wsmInst);
wsmInstArray.append(wsmInst1);
WsmValue wsmInstArrayValue(wsmInstArray);
CIMValue cimInstArrayValue(CIMTYPE_INSTANCE, true);
mapper.convertWsmToCimValue(
wsmInstArrayValue, NAMESPACE, cimInstArrayValue);
Array<CIMInstance> cimInstArray;
cimInstArrayValue.get(cimInstArray);
PEGASUS_TEST_ASSERT(cimInstArray.size() == 2);
PEGASUS_TEST_ASSERT(
cimInstArray[0].getClassName().getString() == CLASSNAME);
PEGASUS_TEST_ASSERT(
cimInstArray[0].getProperty(0).getName().getString() == "prop1");
PEGASUS_TEST_ASSERT(
cimInstArray[0].getProperty(0).getType() == CIMTYPE_STRING);
cimInstArray[0].getProperty(0).getValue().get(str1);
PEGASUS_TEST_ASSERT(str1 == "value1");
PEGASUS_TEST_ASSERT(
cimInstArray[0].getProperty(1).getName().getString() == "prop2");
PEGASUS_TEST_ASSERT(
cimInstArray[0].getProperty(1).getType() == CIMTYPE_STRING);
cimInstArray[0].getProperty(1).getValue().get(str2);
PEGASUS_TEST_ASSERT(str2 == "value2");
PEGASUS_TEST_ASSERT(
cimInstArray[1].getClassName().getString() == CLASSNAME);
PEGASUS_TEST_ASSERT(
cimInstArray[1].getProperty(0).getName().getString() == "prop1");
PEGASUS_TEST_ASSERT(
cimInstArray[1].getProperty(0).getType() == CIMTYPE_STRING);
cimInstArray[1].getProperty(0).getValue().get(str1);
PEGASUS_TEST_ASSERT(str1 == "value3");
PEGASUS_TEST_ASSERT(
cimInstArray[1].getProperty(1).getName().getString() == "prop2");
PEGASUS_TEST_ASSERT(
cimInstArray[1].getProperty(1).getType() == CIMTYPE_STRING);
cimInstArray[1].getProperty(1).getValue().get(str2);
PEGASUS_TEST_ASSERT(str2 == "value4");
// Test non-existent class
try
{
wsmInst.setClassName("garbage");
mapper.convertWsmToCimInstance(wsmInst, NAMESPACE, cimInst);
PEGASUS_TEST_ASSERT(0);
}
catch (CIMException& e)
{
PEGASUS_TEST_ASSERT(e.getCode() == CIM_ERR_NOT_FOUND);
}
// Test non-existent property
{
WsmValue val("value3");
wsmInst.setClassName(CLASSNAME);
wsmInst.addProperty(WsmProperty(String("prop3"), val));
ASSERT_FAULT(
mapper.convertWsmToCimInstance(wsmInst, NAMESPACE, cimInst),
"wsman:SchemaValidationError");
}
}
static void _testValues(void)
{
WsmToCimRequestMapper mapper((CIMRepository*) 0);
// Test simple data types
testSimpleType(Boolean(true));
testSimpleType(Boolean(false));
testSimpleType((Sint8)-4);
testSimpleType((Sint16)-44);
testSimpleType((Sint32)-444);
testSimpleType((Sint64)-4444);
testSimpleType((Uint8)4);
testSimpleType((Uint16)44);
testSimpleType((Uint32)444);
testSimpleType((Uint64)4444);
testSimpleType(Char16('Z'));
testSimpleType(Real32(1.5));
testSimpleType(Real64(55.5));
testSimpleType(Uint64(123456789));
testSimpleType(Sint64(-123456789));
testSimpleType(String("Hello world"));
// Test special floating point values: NaN, INF, -INF
WsmValue wsmf1("NaN");
CIMValue cimf1((Real32)0.0);
mapper.convertWsmToCimValue(wsmf1, CIMNamespaceName(), cimf1);
PEGASUS_TEST_ASSERT(cimf1.toString() == PEGASUS_NAN);
WsmValue wsmf2("INF");
CIMValue cimf2((Real32)0.0);
mapper.convertWsmToCimValue(wsmf2, CIMNamespaceName(), cimf2);
PEGASUS_TEST_ASSERT(cimf2.toString() == PEGASUS_INF);
WsmValue wsmf3("-INF");
CIMValue cimf3((Real32)0.0);
mapper.convertWsmToCimValue(wsmf3, CIMNamespaceName(), cimf3);
PEGASUS_TEST_ASSERT(cimf3.toString() == PEGASUS_NEG_INF);
WsmValue wsmd1("NaN");
CIMValue cimd1((Real64)0.0);
mapper.convertWsmToCimValue(wsmd1, CIMNamespaceName(), cimd1);
PEGASUS_TEST_ASSERT(cimd1.toString() == PEGASUS_NAN);
WsmValue wsmd2("INF");
CIMValue cimd2((Real64)0.0);
mapper.convertWsmToCimValue(wsmd2, CIMNamespaceName(), cimd2);
PEGASUS_TEST_ASSERT(cimd2.toString() == PEGASUS_INF);
WsmValue wsmd3("-INF");
CIMValue cimd3((Real64)0.0);
mapper.convertWsmToCimValue(wsmd3, CIMNamespaceName(), cimd3);
PEGASUS_TEST_ASSERT(cimd3.toString() == PEGASUS_NEG_INF);
// Test datetime
CIMDateTime cimDT;
mapper.convertWsmToCimDatetime("P1Y1M1DT10H5M44.0012345678901234S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000396100544.001234:000"));
mapper.convertWsmToCimDatetime("P1Y1M1DT10H5M44.12345678901234S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000396100544.123456:000"));
mapper.convertWsmToCimDatetime("P1Y1M1DT10H5M44.0055555555S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000396100544.005555:000"));
mapper.convertWsmToCimDatetime("P1Y1M1DT10H5M44.00500000S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000396100544.005000:000"));
mapper.convertWsmToCimDatetime("P1Y1M1DT10H5M44.9999999S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000396100544.999999:000"));
mapper.convertWsmToCimDatetime("P1Y1M1DT10H5M44S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000396100544.000000:000"));
mapper.convertWsmToCimDatetime("P1Y1M1DT10H5M44.0055S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000396100544.005500:000"));
mapper.convertWsmToCimDatetime("PT10H5M44.0055S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000000100544.005500:000"));
mapper.convertWsmToCimDatetime("P10Y", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00003652000000.000000:000"));
mapper.convertWsmToCimDatetime("P10Y18M", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00004201000000.000000:000"));
mapper.convertWsmToCimDatetime("P10Y18M40D", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00004241000000.000000:000"));
mapper.convertWsmToCimDatetime("P10Y18M40DT34H", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00004242100000.000000:000"));
mapper.convertWsmToCimDatetime("P10Y18M40DT34H70M", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00004242111000.000000:000"));
mapper.convertWsmToCimDatetime("P10Y18M40DT34H70M140S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00004242111220.000000:000"));
mapper.convertWsmToCimDatetime("PT70M140S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000000011220.000000:000"));
mapper.convertWsmToCimDatetime("PT140S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000000000220.000000:000"));
mapper.convertWsmToCimDatetime("PT5M44.0055S", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("00000000000544.005500:000"));
mapper.convertWsmToCimDatetime("2004-12-01", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201******.******+000"));
mapper.convertWsmToCimDatetime("2004-12-01Z", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201******.******+000"));
mapper.convertWsmToCimDatetime("2004-12-01+02:00", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201******.******+120"));
mapper.convertWsmToCimDatetime("2004-12-01-11:30", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201******.******-690"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34+02:00", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.000000+120"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34.0012+02:00", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.001200+120"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34.0012-04:15", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.001200-255"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34Z", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.000000+000"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34.0012Z", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.001200+000"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34.00+02:00", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.000000+120"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34.0000000+02:00", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.000000+120"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34.0000009+02:00", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.000000+120"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34.000001+02:00", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.000001+120"));
mapper.convertWsmToCimDatetime("2004-12-01T12:23:34.1+02:00", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.100000+120"));
mapper.convertWsmToCimDatetime("20041201122334.001200+360", cimDT);
PEGASUS_TEST_ASSERT(cimDT == CIMDateTime("20041201122334.001200+360"));
// Test arrays of simple types
Array<Sint8> s8_arr;
s8_arr.append(-11);
s8_arr.append(-22);
testArrayType(s8_arr);
Array<Sint16> s16_arr;
s16_arr.append(-111);
s16_arr.append(-222);
testArrayType(s16_arr);
Array<Sint32> s32_arr;
s32_arr.append(-1111);
s32_arr.append(-2222);
testArrayType(s32_arr);
Array<Sint64> s64_arr;
s64_arr.append(-11111);
s64_arr.append(-22222);
testArrayType(s64_arr);
Array<Uint8> u8_arr;
u8_arr.append(11);
u8_arr.append(22);
testArrayType(u8_arr);
Array<Uint16> u16_arr;
u16_arr.append(111);
u16_arr.append(222);
testArrayType(u16_arr);
Array<Uint32> u32_arr;
u32_arr.append(1111);
u32_arr.append(2222);
testArrayType(u32_arr);
Array<Uint64> u64_arr;
u64_arr.append(11111);
u64_arr.append(22222);
testArrayType(u64_arr);
Array<Boolean> b_arr;
b_arr.append(true);
b_arr.append(false);
testArrayType(b_arr);
Array<Real32> r32_arr;
r32_arr.append(Real32(1.5));
r32_arr.append(Real32(2.5));
testArrayType(r32_arr);
Array<Real64> r64_arr;
r64_arr.append(Real64(11.5));
r64_arr.append(Real64(12.5));
testArrayType(r64_arr);
Array<Char16> c16_arr;
c16_arr.append(Char16('Z'));
c16_arr.append(Char16('X'));
testArrayType(c16_arr);
Array<CIMDateTime> dt_arr;
dt_arr.append(CIMDateTime("19991224120000.000000+360"));
dt_arr.append(CIMDateTime("20001224120000.000000+360"));
testArrayType(dt_arr);
Array<String> str_arr;
str_arr.append("Test string 1");
str_arr.append("Test string 2");
testArrayType(str_arr);
// Test class URI to class name conversion
String classURI = String(WSM_RESOURCEURI_CIMSCHEMAV2) + "/MyClass";
CIMName cimName = mapper.convertResourceUriToClassName(classURI);
PEGASUS_TEST_ASSERT(cimName.getString() == "MyClass");
}
/*===========================================================================*/
const bool Main::exec( void )
{
// GLUT viewer application.
kvs::glut::Application app( m_argc, m_argv );
// Parse specified arguments.
kvsview::OrthoSlice::Argument arg( m_argc, m_argv );
if( !arg.parse() ) return( false );
// Create screen.
kvs::glut::Screen screen( &app );
screen.setSize( 512, 512 );
screen.setTitle( kvsview::CommandName + " - " + kvsview::OrthoSlice::CommandName );
// Check the input point data.
m_input_name = arg.value<std::string>();
if ( !kvsview::FileChecker::ImportableStructuredVolume( m_input_name ) &&
!kvsview::FileChecker::ImportableUnstructuredVolume( m_input_name ) )
{
kvsMessageError("%s is not volume data.", m_input_name.c_str());
return( false );
}
// Visualization pipeline.
kvs::VisualizationPipeline pipe( m_input_name );
pipe.import();
// Verbose information.
if ( arg.verboseMode() )
{
std::cout << "IMPORTED OBJECT" << std::endl;
std::cout << kvsview::ObjectInformation( pipe.object() ) << std::endl;
std::cout << std::endl;
}
// Pointer to the volume object data.
const kvs::VolumeObjectBase* volume = kvs::VolumeObjectBase::DownCast( pipe.object() );
// Transfer function.
const kvs::TransferFunction tfunc = arg.transferFunction( volume );
// Legend bar.
kvsview::Widget::LegendBar legend_bar( &screen );
legend_bar.setColorMap( tfunc.colorMap() );
if ( !tfunc.hasRange() )
{
const kvs::VolumeObjectBase* object = kvs::VolumeObjectBase::DownCast( pipe.object() );
const kvs::Real32 min_value = static_cast<kvs::Real32>( object->minValue() );
const kvs::Real32 max_value = static_cast<kvs::Real32>( object->maxValue() );
legend_bar.setRange( min_value, max_value );
}
legend_bar.show();
// Orientation axis.
kvsview::Widget::OrientationAxis orientation_axis( &screen );
orientation_axis.show();
// Set up the slice plane class.
kvs::PipelineModule mapper( new kvs::OrthoSlice );
const float position = arg.hasOption("p") ? arg.position() : pipe.object()->objectCenter().z();
const kvs::OrthoSlice::AlignedAxis axis( arg.axis() );
mapper.get<kvs::OrthoSlice>()->setPlane( position, axis );
mapper.get<kvs::OrthoSlice>()->setTransferFunction( tfunc );
pipe.connect( mapper );
// Construct the visualization pipeline.
if ( !pipe.exec() )
{
kvsMessageError("Cannot execute the visulization pipeline.");
return( false );
}
screen.registerObject( &pipe );
// Disable shading.
pipe.renderer()->disableShading();
// Verbose information.
if ( arg.verboseMode() )
{
std::cout << "RENDERERED OBJECT" << std::endl;
std::cout << kvsview::ObjectInformation( pipe.object() ) << std::endl;
std::cout << std::endl;
std::cout << "VISUALIZATION PIPELINE" << std::endl;
std::cout << pipe << std::endl;
}
// Apply the specified parameters to the global and the visualization pipeline.
arg.applyTo( screen, pipe );
arg.applyTo( screen );
// Show the screen.
screen.show();
// Create a plane slider.
kvsview::OrthoSlice::PlaneSlider slider( &screen );
slider.setMargin( 10 );
slider.setCaption("Slice");
slider.setVolumeObject( volume );
slider.setTransferFunction( tfunc );
slider.setAxis( axis );
slider.setValue( position );
slider.setRange( volume->minObjectCoord()[axis], volume->maxObjectCoord()[axis] );
slider.show();
return( arg.clear(), app.run() );
}
whitelist_static_app::whitelist_static_app(cppcms::service &srv, const fs::path& folder, const value& whitelist, const hash_function_t hash_function)
: base_app(srv), whitelist_(whitelist), hash_function_(hash_function), folder_(folder)
{
mapper().assign("");
}
void RectObject::renderOnto(RenderedImage &image) {
CoordinateMapper mapper(image);
image.painter().drawRect(mapper.dataToPixel(bound()).toQRect());
}
void test_sectionalize(std::string const& caseid, G const& g, std::size_t section_count,
std::string const& index_check, std::string const& dir_check,
std::size_t max_count = 10)
{
boost::ignore_unused_variable_warning(caseid);
static const std::size_t dimension_count = boost::mpl::size<DimensionVector>::value;
typedef typename bg::point_type<G>::type point;
typedef bg::model::box<point> box;
typedef bg::sections<box, dimension_count> sections;
sections s;
bg::sectionalize<Reverse, DimensionVector>(g,
bg::detail::no_rescale_policy(), s, 0, max_count);
BOOST_CHECK_EQUAL(s.size(), section_count);
// Check if sections are consecutive and consistent
int previous_index = -1;
BOOST_FOREACH(typename sections::value_type const& sec, s)
{
if (sec.begin_index > 0)
{
BOOST_CHECK_EQUAL(previous_index, sec.begin_index);
}
BOOST_CHECK_EQUAL(int(sec.count), int(sec.end_index - sec.begin_index));
previous_index = sec.end_index;
}
// Output streams for sections, boxes, other
std::ostringstream out_sections;
std::ostringstream out_boxes;
std::ostringstream out_dirs;
for (typename sections::size_type i = 0; i < s.size(); i++)
{
box const& b = s[i].bounding_box;
if (i > 0)
{
out_sections << "|";
out_dirs << "|";
out_boxes << "|";
}
out_sections << s[i].begin_index << ".." << s[i].end_index;
out_boxes << bg::get<0,0>(b) << " " << bg::get<0,1>(b)
<< ".." << bg::get<1,0>(b) << " " << bg::get<1,1>(b);
for (std::size_t d = 0; d < dimension_count; d++)
{
out_dirs << (d == 0 ? "" : " ");
switch(s[i].directions[d])
{
case -99: out_dirs << "DUP"; break;
case -1 : out_dirs << "-"; break;
case 0 : out_dirs << "."; break;
case +1 : out_dirs << "+"; break;
}
}
}
if (! index_check.empty())
{
BOOST_CHECK_EQUAL(out_sections.str(), index_check);
}
if (! dir_check.empty())
{
BOOST_CHECK_EQUAL(out_dirs.str(), dir_check);
}
#if defined(TEST_WITH_SVG)
{
std::ostringstream filename;
filename << "sectionalize_"
<< caseid << ".svg";
std::ofstream svg(filename.str().c_str());
typedef typename bg::point_type<G>::type point_type;
bg::svg_mapper<point_type> mapper(svg, 500, 500);
mapper.add(g);
static const bool is_line = bg::geometry_id<G>::type::value == 2;
mapper.map(g, is_line
? "opacity:0.6;stroke:rgb(0,0,255);stroke-width:5"
: "opacity:0.6;fill:rgb(0,0,255);stroke:rgb(0,0,0);stroke-width:0.5");
for (typename sections::size_type i = 0; i < s.size(); i++)
{
box b = s[i].bounding_box;
bg::buffer(b, b, 0.01);
mapper.map(b, s[i].duplicate
? "fill-opacity:0.4;stroke-opacity:0.6;fill:rgb(0,128,0);stroke:rgb(0,255,0);stroke-width:2.0"
: "fill-opacity:0.2;stroke-opacity:0.4;fill:rgb(255,0,0);stroke:rgb(255,0,0);stroke-width:0.5");
std::ostringstream out;
for (int d = 0; d < dimension_count; d++)
{
out << (d == 0 ? "[" : " ");
switch(s[i].directions[d])
{
case -99: out << "DUP"; break;
case -1 : out << "-"; break;
case 0 : out << "."; break;
case +1 : out << "+"; break;
}
}
out << "] " << s[i].begin_index << ".." << s[i].end_index;
point_type p;
bg::centroid(b, p);
mapper.text(p, out.str(), "");
}
}
#endif
}
static bool test_overlay_p_q(std::string const& caseid, G1 const& p, G2 const& q, bool svg, double tolerance)
{
bool result = true;
typedef typename boost::geometry::coordinate_type<G1>::type coordinate_type;
typedef typename boost::geometry::point_type<G1>::type point_type;
typedef boost::geometry::detail::intersection::intersection_point<point_type> ip_type;
typedef boost::geometry::strategy_intersection
<
typename boost::geometry::cs_tag<point_type>::type,
G1,
G2,
ip_type,
CalculationType
> strategy;
std::vector<OutputType> out_i, out_u;
CalculationType area_p = boost::geometry::area(p);
CalculationType area_q = boost::geometry::area(q);
CalculationType area_i = 0;
CalculationType area_u = 0;
boost::geometry::intersection_inserter<OutputType>(p, q, std::back_inserter(out_i), strategy());
for (typename std::vector<OutputType>::iterator it = out_i.begin();
it != out_i.end();
++it)
{
area_i += boost::geometry::area(*it);
}
boost::geometry::union_inserter<OutputType>(p, q, std::back_inserter(out_u), strategy());
for (typename std::vector<OutputType>::iterator it = out_u.begin();
it != out_u.end();
++it)
{
area_u += boost::geometry::area(*it);
}
double diff = (area_p + area_q) - area_u - area_i;
if (std::abs(diff) > tolerance
// for creating SVG-selection: || area_i > 2.0e+006
)
{
result = false;
svg = true;
std::cout
<< "type: " << string_from_type<CalculationType>::name()
<< " id: " << caseid
<< " area i: " << area_i
<< " area u: " << area_u
<< " area p: " << area_p
<< " area q: " << area_q
<< " diff: " << diff
<< std::endl
<< std::setprecision(20)
<< " p: " << boost::geometry::wkt(p) << std::endl
<< " q: " << boost::geometry::wkt(q) << std::endl
;
}
if(svg)
{
std::ostringstream filename;
filename << "overlay_" << caseid << "_"
<< string_from_type<coordinate_type>::name()
<< string_from_type<CalculationType>::name()
<< ".svg";
std::ofstream svg(filename.str().c_str());
boost::geometry::svg_mapper<point_type> mapper(svg, 500, 500);
mapper.add(p);
mapper.add(q);
mapper.map(p, "opacity:0.6;fill:rgb(0,255,0);stroke:rgb(0,0,0);stroke-width:1");
mapper.map(q, "opacity:0.6;fill:rgb(0,0,255);stroke:rgb(0,0,0);stroke-width:1");
for (typename std::vector<OutputType>::const_iterator it = out_i.begin();
it != out_i.end(); ++it)
{
mapper.map(*it, "opacity:0.6;fill:none;stroke:rgb(255,0,0);stroke-width:3");
}
for (typename std::vector<OutputType>::const_iterator it = out_u.begin();
it != out_u.end(); ++it)
{
mapper.map(*it, "opacity:0.6;fill:none;stroke:rgb(255,0,255);stroke-width:3");
}
}
return result;
}
// map a x-value float to the plot object
uint16_t Plotter::getScreenX(float x) {
if (x < xMin) { return xo; }
if (x > xMax) { return xo + width; }
return (uint16_t)mapper(x, xMin, xMax, xo, xo + width);
}
size_t map(T& val, const char* base_address, uint64_t flags = 0, const char* friendly_name = "<TOP>")
{
detail::map_visitor mapper(base_address, flags);
mapper(val, friendly_name);
return mapper.bytes_read();
}
// map a y-value float to the plot object
uint16_t Plotter::getScreenY(float y) {
if (y < yMin) { return yo; }
if (y > yMax) { return yo+height; }
return (uint16_t)round(mapper(y, yMin, yMax, yo + height, yo));
}
flat_thread::flat_thread(cppcms::service &s) : thread_shared(s)
{
dispatcher().assign(".*",&flat_thread::prepare,this,0);
mapper().assign("{1}");
}
void test_union(std::string const& caseid, G1 const& g1, G2 const& g2,
std::size_t expected_count, std::size_t expected_hole_count,
int expected_point_count, double expected_area,
double percentage)
{
typedef typename bg::coordinate_type<G1>::type coordinate_type;
std::vector<OutputType> clip;
bg::union_(g1, g2, clip);
typename bg::default_area_result<G1>::type area = 0;
std::size_t n = 0;
std::size_t holes = 0;
for (typename std::vector<OutputType>::iterator it = clip.begin();
it != clip.end(); ++it)
{
area += bg::area(*it);
holes += bg::num_interior_rings(*it);
n += bg::num_points(*it, true);
}
{
// Test inserter functionality
// Test if inserter returns output-iterator (using Boost.Range copy)
std::vector<OutputType> inserted, array_with_one_empty_geometry;
array_with_one_empty_geometry.push_back(OutputType());
boost::copy(array_with_one_empty_geometry, bg::detail::union_::union_insert<OutputType>(g1, g2, std::back_inserter(inserted)));
typename bg::default_area_result<G1>::type area_inserted = 0;
int index = 0;
for (typename std::vector<OutputType>::iterator it = inserted.begin();
it != inserted.end();
++it, ++index)
{
// Skip the empty polygon created above to avoid the empty_input_exception
if (bg::num_points(*it) > 0)
{
area_inserted += bg::area(*it);
}
}
BOOST_CHECK_EQUAL(boost::size(clip), boost::size(inserted) - 1);
BOOST_CHECK_CLOSE(area_inserted, expected_area, percentage);
}
/***
std::cout << "case: " << caseid
<< " n: " << n
<< " area: " << area
<< " polygons: " << boost::size(clip)
<< " holes: " << holes
<< std::endl;
***/
if (expected_point_count >= 0)
{
BOOST_CHECK_MESSAGE(n == std::size_t(expected_point_count),
"union: " << caseid
<< " #points expected: " << expected_point_count
<< " detected: " << n
<< " type: " << (type_for_assert_message<G1, G2>())
);
}
BOOST_CHECK_EQUAL(clip.size(), expected_count);
BOOST_CHECK_EQUAL(holes, expected_hole_count);
BOOST_CHECK_CLOSE(area, expected_area, percentage);
#if defined(TEST_WITH_SVG)
{
bool const ccw =
bg::point_order<G1>::value == bg::counterclockwise
|| bg::point_order<G2>::value == bg::counterclockwise;
bool const open =
bg::closure<G1>::value == bg::open
|| bg::closure<G2>::value == bg::open;
std::ostringstream filename;
filename << "union_"
<< caseid << "_"
<< string_from_type<coordinate_type>::name()
<< (ccw ? "_ccw" : "")
<< (open ? "_open" : "")
<< ".svg";
std::ofstream svg(filename.str().c_str());
bg::svg_mapper
<
typename bg::point_type<G2>::type
> mapper(svg, 500, 500);
mapper.add(g1);
mapper.add(g2);
mapper.map(g1, "fill-opacity:0.5;fill:rgb(153,204,0);"
"stroke:rgb(153,204,0);stroke-width:3");
mapper.map(g2, "fill-opacity:0.3;fill:rgb(51,51,153);"
"stroke:rgb(51,51,153);stroke-width:3");
//mapper.map(g1, "opacity:0.6;fill:rgb(0,0,255);stroke:rgb(0,0,0);stroke-width:1");
//mapper.map(g2, "opacity:0.6;fill:rgb(0,255,0);stroke:rgb(0,0,0);stroke-width:1");
for (typename std::vector<OutputType>::const_iterator it = clip.begin();
it != clip.end(); ++it)
{
mapper.map(*it, "fill-opacity:0.2;stroke-opacity:0.4;fill:rgb(255,0,0);"
"stroke:rgb(255,0,255);stroke-width:8");
//mapper.map(*it, "opacity:0.6;fill:none;stroke:rgb(255,0,0);stroke-width:5");
}
}
#endif
}
forums::forums(cppcms::service &srv) : master(srv)
{
mapper().assign("{1}"); // with id
mapper().assign(""); // default
dispatcher().assign(".*",&forums::prepare,this,0);
}
typename bg::default_area_result<G1>::type test_intersection(std::string const& caseid,
G1 const& g1, G2 const& g2,
std::size_t expected_count = 0, int expected_point_count = 0,
double expected_length_or_area = 0,
double percentage = 0.0001,
bool debug = false)
{
bool const is_line = bg::geometry_id<OutputType>::type::value == 2;
if (debug)
{
std::cout << std::endl << "case " << caseid << std::endl;
}
typedef typename bg::coordinate_type<G1>::type coordinate_type;
typedef typename bg::point_type<G1>::type point_type;
typedef bg::strategy_intersection
<
typename bg::cs_tag<point_type>::type,
G1,
G2,
point_type,
CalculationType
> strategy;
// Check both normal behaviour, and _inserter behaviour
if (! debug)
{
std::vector<OutputType> out;
bg::intersection(g1, g2, out);
}
std::vector<OutputType> clip;
bg::detail::intersection::intersection_insert<OutputType>(g1, g2, std::back_inserter(clip), strategy());
typename bg::default_area_result<G1>::type length_or_area = 0;
int n = 0;
for (typename std::vector<OutputType>::iterator it = clip.begin();
it != clip.end();
++it)
{
if (expected_point_count > 0)
{
n += bg::num_points(*it, true);
}
// instead of specialization we check it run-time here
length_or_area += is_line
? bg::length(*it)
: bg::area(*it);
if (debug)
{
std::cout << std::setprecision(20) << bg::wkt(*it) << std::endl;
}
}
#if ! defined(BOOST_GEOMETRY_NO_BOOST_TEST)
if (expected_point_count > 0)
{
BOOST_CHECK_MESSAGE(bg::math::abs(n - expected_point_count) < 3,
"intersection: " << caseid
<< " #points expected: " << expected_point_count
<< " detected: " << n
<< " type: " << (type_for_assert_message<G1, G2>())
);
}
if (expected_count > 0)
{
BOOST_CHECK_MESSAGE(clip.size() == expected_count,
"intersection: " << caseid
<< " #outputs expected: " << expected_count
<< " detected: " << clip.size()
<< " type: " << (type_for_assert_message<G1, G2>())
);
}
double const detected_length_or_area = boost::numeric_cast<double>(length_or_area);
BOOST_CHECK_CLOSE(detected_length_or_area, expected_length_or_area, percentage);
#endif
#if defined(TEST_WITH_SVG)
{
bool const ccw =
bg::point_order<G1>::value == bg::counterclockwise
|| bg::point_order<G2>::value == bg::counterclockwise;
bool const open =
bg::closure<G1>::value == bg::open
|| bg::closure<G2>::value == bg::open;
std::ostringstream filename;
filename << "intersection_"
<< caseid << "_"
<< string_from_type<coordinate_type>::name()
<< string_from_type<CalculationType>::name()
<< (ccw ? "_ccw" : "")
<< (open ? "_open" : "")
<< ".svg";
std::ofstream svg(filename.str().c_str());
bg::svg_mapper<point_type> mapper(svg, 500, 500);
mapper.add(g1);
mapper.add(g2);
mapper.map(g1, is_line
? "opacity:0.6;stroke:rgb(0,255,0);stroke-width:5"
: "fill-opacity:0.5;fill:rgb(153,204,0);"
"stroke:rgb(153,204,0);stroke-width:3");
mapper.map(g2, "fill-opacity:0.3;fill:rgb(51,51,153);"
"stroke:rgb(51,51,153);stroke-width:3");
for (typename std::vector<OutputType>::const_iterator it = clip.begin();
it != clip.end(); ++it)
{
mapper.map(*it, "fill-opacity:0.2;stroke-opacity:0.4;fill:rgb(255,0,0);"
"stroke:rgb(255,0,255);stroke-width:8");
}
}
#endif
if (debug)
{
std::cout << "end case " << caseid << std::endl;
}
return length_or_area;
}
InputSettingsWindow::InputSettingsWindow() {
activeInput = 0;
layout = new QVBoxLayout;
layout->setMargin(Style::WindowMargin);
layout->setSpacing(Style::WidgetSpacing);
setLayout(layout);
list = new QTreeWidget;
list->setColumnCount(2);
list->setAllColumnsShowFocus(true);
list->setSortingEnabled(false);
list->header()->hide();
list->header()->setResizeMode(QHeaderView::ResizeToContents);
layout->addWidget(list);
controlLayout = new QHBoxLayout;
layout->addLayout(controlLayout);
message = new QLabel;
message->setSizePolicy(QSizePolicy::Expanding, QSizePolicy::Fixed);
controlLayout->addWidget(message);
optionButton = new QPushButton("Options");
controlLayout->addWidget(optionButton);
optionMenu = new QMenu;
optionButton->setMenu(optionMenu);
optionAssignModifiers = new QbCheckAction("Assign Modifiers as Keys", 0);
optionMenu->addAction(optionAssignModifiers);
assignButton = new QPushButton("Assign");
controlLayout->addWidget(assignButton);
unassignButton = new QPushButton("Unassign");
controlLayout->addWidget(unassignButton);
connect(list, SIGNAL(itemSelectionChanged()), this, SLOT(synchronize()));
connect(list, SIGNAL(itemActivated(QTreeWidgetItem*, int)), this, SLOT(assign()));
connect(assignButton, SIGNAL(released()), this, SLOT(assign()));
connect(unassignButton, SIGNAL(released()), this, SLOT(unassign()));
connect(optionAssignModifiers, SIGNAL(triggered()), this, SLOT(toggleAssignModifiers()));
//initialize list
port1 = new QTreeWidgetItem(list);
port1->setData(0, Qt::UserRole, QVariant(-1));
port1->setText(0, "Controller Port 1");
port2 = new QTreeWidgetItem(list);
port2->setData(0, Qt::UserRole, QVariant(-1));
port2->setText(0, "Controller Port 2");
userInterface = new QTreeWidgetItem(list);
userInterface->setData(0, Qt::UserRole, QVariant(-1));
userInterface->setText(0, "User Interface");
for(unsigned i = 0; i < mapper().size(); i++) {
InputGroup &group = *(mapper()[i]);
QTreeWidgetItem *grandparent = 0;
if(group.category == InputCategory::Port1) { grandparent = port1; }
if(group.category == InputCategory::Port2) { grandparent = port2; }
if(group.category == InputCategory::UserInterface) { grandparent = userInterface; }
if(!grandparent) continue;
QTreeWidgetItem *parent = new QTreeWidgetItem(grandparent);
parent->setData(0, Qt::UserRole, QVariant(-1));
parent->setText(0, group.label);
for(unsigned i = 0; i < group.size(); i++) {
QTreeWidgetItem *child = new QTreeWidgetItem(parent);
child->setData(0, Qt::UserRole, QVariant(inputTable.size()));
inputTable.add(group[i]);
}
}
updateList();
synchronize();
}
void Session::validateMessage(NetworkMessage m)
{
if(validator().validate(m))
mapper().map(m);
}
double test_growth(Geometry const& geometry, int n, int d, double distance)
{
namespace bg = boost::geometry;
typedef typename bg::coordinate_type<Geometry>::type coordinate_type;
typedef typename bg::point_type<Geometry>::type point_type;
// extern int point_buffer_count;
std::ostringstream complete;
complete
<< "point" << "_"
<< "growth" << "_"
<< string_from_type<coordinate_type>::name()
<< "_" << "r"
<< "_" << n
<< "_" << d
// << "_" << point_buffer_count
;
//std::cout << complete.str() << std::endl;
std::ostringstream filename;
filename << "buffer_" << complete.str() << ".svg";
std::ofstream svg(filename.str().c_str());
#ifdef BOOST_GEOMETRY_DEBUG_WITH_MAPPER
bg::svg_mapper<point_type> mapper(svg, 500, 500);
{
bg::model::box<point_type> box;
bg::envelope(geometry, box);
bg::buffer(box, box, distance * 1.01);
mapper.add(box);
}
#endif
JoinStrategy
<
point_type,
typename bg::point_type<GeometryOut>::type
> join_strategy;
EndStrategy
<
point_type,
typename bg::point_type<GeometryOut>::type
> end_strategy;
typedef bg::strategy::buffer::distance_symmetric<coordinate_type> distance_strategy_type;
distance_strategy_type distance_strategy(distance);
std::vector<GeometryOut> buffered;
typedef typename bg::rescale_policy_type<point_type>::type
rescale_policy_type;
rescale_policy_type rescale_policy
= bg::get_rescale_policy<rescale_policy_type>(geometry);
bg::detail::buffer::buffer_inserter<GeometryOut>(geometry,
std::back_inserter(buffered),
distance_strategy,
join_strategy,
end_strategy,
rescale_policy
#ifdef BOOST_GEOMETRY_DEBUG_WITH_MAPPER
, mapper
#endif
);
typename bg::default_area_result<GeometryOut>::type area = 0;
BOOST_FOREACH(GeometryOut const& polygon, buffered)
{
area += bg::area(polygon);
}
void test_traverse(std::string const& caseid, G1 const& g1, G2 const& g2)
{
typedef bg::detail::intersection::intersection_point
<typename bg::point_type<G2>::type> ip;
typedef typename boost::range_const_iterator<std::vector<ip> >::type iterator;
typedef std::vector<ip> ip_vector;
ip_vector ips;
typedef typename bg::strategy::side::services::default_strategy
<
typename bg::cs_tag<G1>::type
>::type strategy_type;
typedef bg::detail::overlay::traversal_turn_info
<
typename bg::point_type<G2>::type
> turn_info;
typedef typename boost::range_iterator<const std::vector<turn_info> >::type iterator;
std::vector<turn_info> ips;
bg::get_turns<false, false, bg::detail::overlay::assign_null_policy>(g1, g2, ips);
bg::enrich_intersection_points(ips, g1, g2, strategy_type());
typedef bg::model::ring<typename bg::point_type<G2>::type> ring_type;
typedef std::vector<ring_type> out_vector;
out_vector v;
bg::traverse
<
strategy_type,
ring_type
>
(
g1, g2, -1, ips, std::back_inserter(v)
);
#if defined(TEST_WITH_SVG)
{
std::ostringstream filename;
filename << "intersection_" << caseid << ".svg";
std::ofstream svg(filename.str().c_str());
// Trick to have this always LongDouble
//typedef bg::model::d2::point_xy<long double> P;
typedef typename bg::point_type<G1>::type P;
//typename bg::replace_point_type<G1, P>::type rg1;
//typename bg::replace_point_type<G2, P>::type rg2;
bg::svg_mapper<P> mapper(svg, 1000, 800);
mapper.add(g1);
mapper.add(g2);
// Input shapes in green/blue
mapper.map(g1, "opacity:0.8;fill:rgb(0,255,0);"
"stroke:rgb(0,0,0);stroke-width:1");
mapper.map(g2, "opacity:0.8;fill:rgb(0,0,255);"
"stroke:rgb(0,0,0);stroke-width:1");
// Traversal rings in red
for (typename out_vector::const_iterator it = boost::begin(v);
it != boost::end(v);
++it)
{
mapper.map(*it, "fill-opacity:0.1;stroke-opacity:0.9;"
"fill:rgb(255,0,0);stroke:rgb(255,0,0);stroke-width:5");
std::cout << bg::wkt(*it) << std::endl;
std::cout << bg::area(*it) << std::endl;
}
// IP's in orange
for (iterator it = boost::begin(ips); it != boost::end(ips); ++it)
{
mapper.map(it->point, "fill:rgb(255,128,0);"
"stroke:rgb(0,0,100);stroke-width:1");
}
}
#endif
}
/*}}}*/
};
int
xchar_length (xchar_t ch) /*{{{*/
{
return utf8_length_tab[ch];
}/*}}}*/
int
xchar_strict_length (xchar_t ch) /*{{{*/
{
return utf8_strict_length_tab[ch];
}/*}}}*/
int
xchar_valid_position (const xchar_t *s, int length) /*{{{*/
{
# define VALID(ccc) (((ccc) & 0xc0) == 0x80)
int len, n;
if (((len = xchar_strict_length (*s)) > 0) && (length >= len))
for (n = len; n > 1; ) {
--n;
if (! VALID (*(s + n))) {
len = -1;
break;
}
}
else
len = -1;
return len;
# undef VALID
}/*}}}*/
bool_t
xchar_valid (const xchar_t *s, int length) /*{{{*/
{
int n;
while (length > 0)
if ((n = xchar_valid_position (s, length)) > 0) {
s += n;
length -= n;
} else
break;
return length == 0 ? true : false;
}/*}}}*/
const char *
xchar_to_char (const xchar_t *s) /*{{{*/
{
return (const char *) s;
}/*}}}*/
const xchar_t *
char_2_xchar (const char *s) /*{{{*/
{
return (const xchar_t *) s;
}/*}}}*/
const char *
byte_to_char (const byte_t *b) /*{{{*/
{
return (const char *) b;
}/*}}}*/
int
xstrlen (const xchar_t *s) /*{{{*/
{
int len, clen;
for (len = 0; *s; ++len) {
clen = xchar_length (*s);
while ((clen-- > 0) && *s)
++s;
}
return len;
}/*}}}*/
int
xstrcmp (const xchar_t *s1, const char *s2) /*{{{*/
{
return strcmp (xchar_to_char (s1), s2);
}/*}}}*/
int
xstrncmp (const xchar_t *s1, const char *s2, size_t n) /*{{{*/
{
return strncmp (xchar_to_char (s1), s2, n);
}/*}}}*/
bool_t
xmlbuf_equal (xmlbuf_t *b1, xmlbuf_t *b2) /*{{{*/
{
if ((! b1) && (! b2))
return true;
if (b1 && b2 && (b1 -> length == b2 -> length) &&
((! b1 -> length) || (! memcmp (b1 -> buffer, b2 -> buffer, b1 -> length))))
return true;
return false;
}/*}}}*/
char *
xmlbuf_to_string (xmlbuf_t *b) /*{{{*/
{
return buffer_copystring ((buffer_t *) b);
}/*}}}*/
long
xmlbuf_to_long (xmlbuf_t *b) /*{{{*/
{
const char *s = b ? buffer_string (b) : NULL;
return s ? strtol (s, NULL, 0) : -1;
}/*}}}*/
static inline unsigned long
mkcp (const xchar_t *s, int *len) /*{{{*/
{
unsigned long cp;
int n;
*len = xchar_length (*s);
for (n = 0, cp = 0; n < *len; ++n) {
cp <<= 8;
cp |= s[n];
}
return cp;
}/*}}}*/
static inline const utfmap_t *
mapfind (const xchar_t *s, int *len, const utfmap_t *map, int msize) /*{{{*/
{
unsigned long cp;
int low, high, pos;
int dummy;
cp = mkcp (s, len ? len : & dummy);
for (low = 0, high = msize; low < high; ) {
pos = (low + high) >> 1;
if (map[pos].cp == cp)
return & map[pos];
else if (map[pos].cp < cp)
low = pos + 1;
else
high = pos;
}
return NULL;
}/*}}}*/
static inline bool_t
isword (const xchar_t *s) /*{{{*/
{
unsigned long cp;
int len;
cp = mkcp (s, & len);
if (len == 1)
return isalnum (s[0]) ? true : false;
else {
int low, high, pos;
for (low = 0, high = is_word_length; low < high;) {
pos = (low + high) >> 1;
if (is_word[pos] == cp)
return true;
if (is_word[pos] < cp)
low = pos + 1;
else
high = pos;
}
}
return false;
}/*}}}*/
static inline const xchar_t *
mapper (const utfmap_t *map, int msize, const xchar_t *s, int *slen, int *olen) /*{{{*/
{
const utfmap_t *m = mapfind (s, slen, map, msize);
if (m) {
if (olen)
*olen = m -> dlen;
return m -> dst;
}
return NULL;
}/*}}}*/
const xchar_t *
xtolower (const xchar_t *s, int *slen, int *olen) /*{{{*/
{
return mapper (utflower, utflower_length, s, slen, olen);
}/*}}}*/
const xchar_t *
xtoupper (const xchar_t *s, int *slen, int *olen) /*{{{*/
{
return mapper (utfupper, utfupper_length, s, slen, olen);
}/*}}}*/
const xchar_t *
xtotitle (const xchar_t *s, int *slen, int *olen) /*{{{*/
{
return mapper (utftitle, utftitle_length, s, slen, olen);
}/*}}}*/
typename bg::default_area_result<G1>::type test_intersection(std::string const& caseid,
G1 const& g1, G2 const& g2,
std::size_t expected_count = 0, int expected_point_count = 0,
double expected_length_or_area = 0,
double percentage = 0.0001,
bool debug = false)
{
if (debug)
{
std::cout << std::endl << "case " << caseid << std::endl;
}
typedef typename bg::point_type<G1>::type point_type;
if (! debug)
{
// Check _inserter behaviour with stratey
typedef bg::strategy_intersection
<
typename bg::cs_tag<point_type>::type,
G1,
G2,
point_type,
typename bg::rescale_policy_type<point_type>::type,
CalculationType
> strategy;
std::vector<OutputType> clip;
bg::detail::intersection::intersection_insert<OutputType>(g1, g2, std::back_inserter(clip), strategy());
}
typename bg::default_area_result<G1>::type length_or_area = 0;
// Check normal behaviour
std::vector<OutputType> intersection_output;
bg::intersection(g1, g2, intersection_output);
check_result<G1, G2>(intersection_output, caseid, expected_count, expected_point_count,
expected_length_or_area, percentage, debug);
// Check variant behaviour
intersection_output.clear();
bg::intersection(boost::variant<G1>(g1), g2, intersection_output);
check_result<G1, G2>(intersection_output, caseid, expected_count, expected_point_count,
expected_length_or_area, percentage, debug);
intersection_output.clear();
bg::intersection(g1, boost::variant<G2>(g2), intersection_output);
check_result<G1, G2>(intersection_output, caseid, expected_count, expected_point_count,
expected_length_or_area, percentage, debug);
intersection_output.clear();
bg::intersection(boost::variant<G1>(g1), boost::variant<G2>(g2), intersection_output);
check_result<G1, G2>(intersection_output, caseid, expected_count, expected_point_count,
expected_length_or_area, percentage, debug);
#if defined(TEST_WITH_SVG)
{
bool const is_line = bg::geometry_id<OutputType>::type::value == 2;
typedef typename bg::coordinate_type<G1>::type coordinate_type;
bool const ccw =
bg::point_order<G1>::value == bg::counterclockwise
|| bg::point_order<G2>::value == bg::counterclockwise;
bool const open =
bg::closure<G1>::value == bg::open
|| bg::closure<G2>::value == bg::open;
std::ostringstream filename;
filename << "intersection_"
<< caseid << "_"
<< string_from_type<coordinate_type>::name()
<< string_from_type<CalculationType>::name()
<< (ccw ? "_ccw" : "")
<< (open ? "_open" : "")
#if defined(BOOST_GEOMETRY_NO_ROBUSTNESS)
<< "_no_rob"
#endif
<< ".svg";
std::ofstream svg(filename.str().c_str());
bg::svg_mapper<point_type> mapper(svg, 500, 500);
mapper.add(g1);
mapper.add(g2);
mapper.map(g1, is_line
? "opacity:0.6;stroke:rgb(0,255,0);stroke-width:5"
: "fill-opacity:0.5;fill:rgb(153,204,0);"
"stroke:rgb(153,204,0);stroke-width:3");
mapper.map(g2, "fill-opacity:0.3;fill:rgb(51,51,153);"
"stroke:rgb(51,51,153);stroke-width:3");
for (typename std::vector<OutputType>::const_iterator it = intersection_output.begin();
it != intersection_output.end(); ++it)
{
mapper.map(*it, "fill-opacity:0.2;stroke-opacity:0.4;fill:rgb(255,0,0);"
"stroke:rgb(255,0,255);stroke-width:8");
}
}
#endif
if (debug)
{
std::cout << "end case " << caseid << std::endl;
}
return length_or_area;
}