void runCheck(typename TContents::TValueType &value, NSCAPI::nagiosReturn &returnCode, std::wstring &message, std::wstring &perf) {
std::wstring tstr;
if (crit.check(value, getAlias(), tstr, critical)) {
//std::wcout << _T("crit") << std::endl;
nscapi::plugin_helper::escalteReturnCodeToCRIT(returnCode);
} else if (warn.check(value, getAlias(), tstr, warning)) {
//std::wcout << _T("warn") << std::endl;
nscapi::plugin_helper::escalteReturnCodeToWARN(returnCode);
}else if (show == showLong) {
//std::wcout << _T("long") << std::endl;
tstr = getAlias() + _T(": ") + TContents::toStringLong(value);
}else if (show == showShort) {
//std::wcout << _T("short") << std::endl;
tstr = getAlias() + _T(": ") + TContents::toStringShort(value);
}
if (perfData) {
if (!perf.empty())
perf += _T(" ");
perf += gatherPerfData(value);
}
if (!message.empty() && !tstr.empty())
message += _T(", ");
if (!tstr.empty())
message += tstr;
//std::wcout << _T("result: ") << tstr << _T("--") << std::endl;
}
std::wstring gatherPerfData(typename TContents::TValueType &value) {
if (crit.hasBounds())
return crit.gatherPerfData(getAlias(), value, warn, crit);
else if (warn.hasBounds())
return warn.gatherPerfData(getAlias(), value, warn, crit);
else {
TContents tmp;
return tmp.gatherPerfData(getAlias(), value);
}
}
int main() {
struct confModules *foo;
int x;
foo=newConfModules();
addAlias(foo,"eth0","eepro100",CM_REPLACE);
addAlias(foo,"eth0","tulip",CM_COMMENT);
addOptions(foo,"eth0","debug=foo",0);
addLine(foo,"alias parport_lowlevel parport_pc",CM_COMMENT);
writeConfModules(foo,"foomod");
printf("=%s=\n",getAlias(foo,"eth0"));
printf("=%s=\n",getAlias(foo,"scuzzy_hostadapter"));
freeConfModules(foo);
}
void freeze()
{
IndexType victimIndex = m_freezeWorklist.takeAny();
ASSERT_WITH_MESSAGE(getAlias(victimIndex) == victimIndex, "coalesce() should not leave aliased Tmp in the worklist.");
m_simplifyWorklist.append(victimIndex);
freezeMoves(victimIndex);
}
virtual bool isKnown(const std::string &name_) const
{
// Convert name according to possible alias
std::string name = getAlias(name_);
// Get the definition
std::map<std::string, ItemDefinition*>::const_iterator i;
return m_item_definitions.find(name) != m_item_definitions.end();
}
void SCP_writeDpfeBase(FILE * fp, DPFE * d) {
// if d->module_type != NULL or d->base != NULL.
MACRO_writeDpfeBase(fp, d);
// else, default base.
// don't know how to specify n, is it the size of dimension array?
PARAMS_STRUCT * p = d->params_struct;
if (NULL == p) { return; }
fprintf(fp, " %s(g, x) = 0 if x = %d\n",
getAlias(d->gf->f_name), p->size - 1);
}
void assignColors()
{
ASSERT(m_simplifyWorklist.isEmpty());
ASSERT(m_worklistMoves.isEmpty());
ASSERT(m_freezeWorklist.isEmpty());
ASSERT(m_spillWorklist.isEmpty());
// Reclaim as much memory as possible.
m_interferenceEdges.clear();
m_degrees.clear();
m_moveList.clear();
m_worklistMoves.clear();
m_simplifyWorklist.clear();
m_spillWorklist.clear();
m_freezeWorklist.clear();
// Try to color the Tmp on the stack.
m_coloredTmp.resize(m_adjacencyList.size());
while (!m_selectStack.isEmpty()) {
unsigned tmpIndex = m_selectStack.takeLast();
ASSERT(!isPrecolored(tmpIndex));
ASSERT(!m_coloredTmp[tmpIndex]);
RegisterSet coloredRegisters;
for (IndexType adjacentTmpIndex : m_adjacencyList[tmpIndex]) {
IndexType aliasTmpIndex = getAlias(adjacentTmpIndex);
Reg reg = m_coloredTmp[aliasTmpIndex];
ASSERT(!isPrecolored(aliasTmpIndex) || (isPrecolored(aliasTmpIndex) && reg));
if (reg)
coloredRegisters.set(reg);
}
bool colorAssigned = false;
for (Reg reg : m_regsInPriorityOrder) {
if (!coloredRegisters.get(reg)) {
m_coloredTmp[tmpIndex] = reg;
colorAssigned = true;
break;
}
}
if (!colorAssigned)
m_spilledTmps.append(tmpIndex);
}
m_selectStack.clear();
if (m_spilledTmps.isEmpty())
m_coalescedTmpsAtSpill.clear();
else
m_coloredTmp.clear();
}
int isAliased(struct confModules *cf, char *alias, char *module)
{
char tmp[128];
char *modalias;
int x=0,retval=-1;
if ( (modalias=getAlias(cf,alias)) && (!strcmp(module,modalias)))
retval = 0;
else
while (1) {
snprintf(tmp,128,"%s%d",alias,x);
if ( (modalias=getAlias(cf,tmp)) && (!strcmp(module,modalias))) {
retval=x;
break;
}
if (!modalias && x!=0) break;
x++;
}
return retval;
}
void GraphObject::registerAttributes()
{
addAttribute("alias",
[&](const Values& args) {
auto alias = args[0].as<string>();
setAlias(alias);
return true;
},
[&]() -> Values { return {getAlias()}; },
{'s'});
setAttributeDescription("alias", "Alias name");
addAttribute("setSavable",
[&](const Values& args) {
auto savable = args[0].as<bool>();
setSavable(savable);
return true;
},
{'n'});
addAttribute("priorityShift",
[&](const Values& args) {
_priorityShift = args[0].as<int>();
return true;
},
[&]() -> Values { return {_priorityShift}; },
{'n'});
setAttributeDescription("priorityShift",
"Shift to the default rendering priority value, for those cases where two objects should be rendered in a specific order. Higher value means lower priority");
addAttribute("switchLock",
[&](const Values& args) {
auto attribIterator = _attribFunctions.find(args[0].as<string>());
if (attribIterator == _attribFunctions.end())
return false;
string status;
auto& attribFunctor = attribIterator->second;
if (attribFunctor.isLocked())
{
status = "Unlocked";
attribFunctor.unlock();
}
else
{
status = "Locked";
attribFunctor.lock();
}
Log::get() << Log::MESSAGE << _name << "~~" << args[0].as<string>() << " - " << status << Log::endl;
return true;
},
{'s'});
}
virtual const ItemDefinition& get(const std::string &name_) const
{
// Convert name according to possible alias
std::string name = getAlias(name_);
// Get the definition
std::map<std::string, ItemDefinition*>::const_iterator i;
i = m_item_definitions.find(name);
if(i == m_item_definitions.end())
i = m_item_definitions.find("unknown");
assert(i != m_item_definitions.end());
return *(i->second);
}
void coalesce()
{
unsigned moveIndex = m_worklistMoves.takeLastMove();
const MoveOperands& moveOperands = m_coalescingCandidates[moveIndex];
IndexType u = getAlias(moveOperands.srcIndex);
IndexType v = getAlias(moveOperands.dstIndex);
if (isPrecolored(v))
std::swap(u, v);
if (traceDebug)
dataLog("Coalescing move at index", moveIndex, " u = ", u, " v = ", v, "\n");
if (u == v) {
addWorkList(u);
if (traceDebug)
dataLog(" Coalesced\n");
} else if (isPrecolored(v) || m_interferenceEdges.contains(InterferenceEdge(u, v))) {
addWorkList(u);
addWorkList(v);
if (traceDebug)
dataLog(" Constrained\n");
} else if (canBeSafelyCoalesced(u, v)) {
combine(u, v);
addWorkList(u);
m_hasCoalescedNonTrivialMove = true;
if (traceDebug)
dataLog(" Safe Coalescing\n");
} else {
m_activeMoves.quickSet(moveIndex);
if (traceDebug)
dataLog(" Failed coalescing, added to active moves.\n");
}
}
Swift::Presence::ref Buddy::generatePresenceStanza(int features, bool only_new) {
std::string alias = getAlias();
std::string name = getSafeName();
Swift::StatusShow s;
std::string statusMessage;
if (!getStatus(s, statusMessage))
return Swift::Presence::ref();
if (m_jid.getNode().empty()) {
generateJID();
}
Swift::Presence::ref presence = Swift::Presence::create();
presence->setFrom(m_jid);
presence->setTo(m_rosterManager->getUser()->getJID().toBare());
presence->setType(Swift::Presence::Available);
if (!statusMessage.empty())
presence->setStatus(statusMessage);
if (s.getType() == Swift::StatusShow::None)
presence->setType(Swift::Presence::Unavailable);
presence->setShow(s.getType());
if (presence->getType() != Swift::Presence::Unavailable) {
// caps
presence->addPayload(boost::shared_ptr<Swift::Payload>(new Swift::CapsInfo(m_rosterManager->getUser()->getComponent()->getBuddyCapsInfo())));
// if (features & 0/*TRANSPORT_FEATURE_AVATARS*/) {
presence->addPayload(boost::shared_ptr<Swift::Payload>(new Swift::VCardUpdate (getIconHash())));
// }
if (isBlocked()) {
presence->addPayload(boost::shared_ptr<Swift::Payload>(new Transport::BlockPayload ()));
}
}
// if (only_new) {
// if (m_lastPresence)
// m_lastPresence->setTo(Swift::JID(""));
// if (m_lastPresence == presence) {
// return Swift::Presence::ref();
// }
// m_lastPresence = presence;
// }
return presence;
}
void SPC_writeGeneralFunctions(FILE * fp, DPFE * d) {
PARAMS_STRUCT * p = d->params_struct;
if (NULL == p) { return; }
fprintf(fp, "GENERAL_FUNCTIONS_BEGIN\n");
fprintf(fp, " private static NodeSet possibleNextNodes(int node) { \n");
fprintf(fp, " NodeSet result = new NodeSet(); \n");
fprintf(fp, " for (int i=0; i<distance[node].length; i++) { \n");
fprintf(fp, " if (%s[node][i]!=infty) {i \n", getAlias(p->name));
fprintf(fp, " result.add(new Integer(i)); \n");
fprintf(fp, " } \n");
fprintf(fp, " } \n");
fprintf(fp, " return result; \n");
fprintf(fp, " } \n");
fprintf(fp, "GENERAL_FUNCTIONS_END\n\n");
}
void freezeMoves(IndexType tmpIndex)
{
forEachNodeMoves(tmpIndex, [this, tmpIndex] (IndexType moveIndex) {
if (!m_activeMoves.quickClear(moveIndex))
m_worklistMoves.takeMove(moveIndex);
const MoveOperands& moveOperands = m_coalescingCandidates[moveIndex];
IndexType srcTmpIndex = moveOperands.srcIndex;
IndexType dstTmpIndex = moveOperands.dstIndex;
IndexType originalOtherTmp = srcTmpIndex != tmpIndex ? srcTmpIndex : dstTmpIndex;
IndexType otherTmpIndex = getAlias(originalOtherTmp);
if (m_degrees[otherTmpIndex] < m_regsInPriorityOrder.size() && !isMoveRelated(otherTmpIndex)) {
if (m_freezeWorklist.remove(otherTmpIndex))
m_simplifyWorklist.append(otherTmpIndex);
}
});
}
void MainWindow::onTextEnter()
{
bool stay = false;
cmds_t cmds;
QString text = ui->cmdText->text();
format_cmds(cmds, text.toStdString());
if(cmds.find("help") != cmds.end()) {
QString help = "Commands: ";
for(std::string cmd : list_cmd_types()) {
help += QString::fromStdString(cmd);
help += " ";
}
ui->noteText->append(help);
stay = true;
}
if(cmds.find("delete") != cmds.end()) {
delAlias();
stay = true;
}
if("" != cmds["set"]) {
uint num = getSelWinNum();
setAlias(QString::fromStdString(cmds["set"]), num);
stay = true;
}
if(cmds.find("aliases") != cmds.end()) {
listAlias();
stay = true;
}
if(!stay) {
if("" != cmds["get"]) {
getAlias(QString::fromStdString(cmds["get"]));
} else {
onWitemActivate(ui->winView->currentIndex());
}
}
ui->cmdText->clear();
}
void main(int argc, char *argv[])
#endif
{
char szText[160];
bool bSuccess;
short nTries = 0;
// Set results of what happens when a call to new fails
set_new_handler(badNew);
// Call the startup function
#ifdef OD32
startup(lpszCmdLine);
#else
startup(argc, argv);
#endif
Sleep(500);
do
{
// Attempt to start up the door server process. (No need to check if the door server process is already
// running; it does that on its own and shuts down extra copies as needed)
bSuccess = CreateProcess(DOOR_SERVER_EXE, NULL, NULL, NULL, false, DETACHED_PROCESS, NULL, NULL, new STARTUPINFO, new PROCESS_INFORMATION);
Sleep(1000);
nTries++;
}
while ( bSuccess == false && nTries < 5 );
// Get a handle on the door server's input mailslot
hInputSlot = openSlot(-1);
// Create this node's output mailslot.
hOutputSlot = createSlot( getNode() );
// If unable to open input slot, re-try up to 5 times (intial failure seems to happen on WinXP randomly)
// If still failure, this indicates the door server is not running and could not be started, so shut down.
nTries = 0;
while (hInputSlot == INVALID_HANDLE_VALUE )
{
Sleep(500);
hInputSlot = openSlot(-1);
if ( ++nTries > 5 )
{
local("Unable to start door: IPC error");
exitDoor(1);
}
}
// If the output slot for this node is already open, it means the node is already running the door.
if ( hOutputSlot == INVALID_HANDLE_VALUE )
{
local("Unable to start door: This node is already in use!");
pausePrompt();
exitDoor(1);
}
// Now that the mailslot handles were successful, call setupExitFunction() to register beforeExit() as the
// function called upon exit.
setupExitFunction();
// Send an input message to the server, to tell it a user is trying to enter the game. The user's info is
// passed as a string in the format below.
sprintf(szText, "%d&%c&%d&%s&%s", isSysop(), getGender(), getPlatform(), getAlias(), getRealName());
sendInput(szText, IP_ENTER_GAME);
// Handle I/O for the user
while (1)
{
performIO();
}
}
void dump() {
printf(" %X %X -> %X \n", lfsr1, lfsr2, getAlias());
}
///////////////////////////////////////////////////////////////////////////////
/// Simulate the given FMU using the forward euler method.
/// Time events are processed by reducing step size to exactly hit tNext.
/// State events are checked and fired only at the end of an Euler step.
/// The simulator may therefore miss state events and fires state events typically too late.
///
///\param fmu FMU.
///\param tEnd Ending time of simulation.
///\param h Tiem step size.
///\param loggingOn Controller for logging.
///\param separator Separator character.
///\return 0 if there is no error occurred.
///////////////////////////////////////////////////////////////////////////////
static int simulate(FMU* fmu, double tEnd, double h, fmiBoolean loggingOn, char separator) {
int i, n;
fmiBoolean timeEvent, stateEvent, stepEvent;
double time;
ModelDescription* md; // handle to the parsed XML file
const char* guid; // global unique id of the fmu
fmiCallbackFunctions callbacks; // called by the model during simulation
fmiComponent c; // instance of the fmu
fmiStatus fmiFlag; // return code of the fmu functions
fmiReal t0 = 0; // start time
fmiBoolean toleranceControlled = fmiFalse;
int nSteps = 0;
FILE* file;
fmiValueReference vr; // add it to get value reference for variables
//Note: User defined references
//Begin------------------------------------------------------------------
fmiValueReference vru[1], vry[1]; // value references for two input and two output variables
//End--------------------------------------------------------------------
ScalarVariable** vars = fmu->modelDescription->modelVariables; // add it to get variables
int k; // add a counter for variables
fmiReal ru1, ru2, ry, ry1, ry2; // add real variables for input and output
fmiInteger ix, iy; // add integer variables for input and output
fmiBoolean bx, by; // add boolean variables for input and output
fmiString sx, sy; // Zuo: add string variables for input and output
fmiStatus status; // Zuo: add stauus for fmi
printDebug("Instantiate the fmu.\n");
// instantiate the fmu
md = fmu->modelDescription;
guid = getString(md, att_guid);
printfDebug("Got GUID = %s!\n", guid);
callbacks.logger = fmuLogger;
callbacks.allocateMemory = calloc;
callbacks.freeMemory = free;
printDebug("Got callbacks!\n");
printfDebug("Model Identifer is %s\n", getModelIdentifier(md));
c = fmu->instantiateSlave(getModelIdentifier(md), guid, "Model1", "", 10, fmiFalse, fmiFalse, callbacks, loggingOn);
if (!c) {
printError("could not instantiate slaves.\n");
return 1;
}
printDebug("Instantiated slaves!\n");
// Open result file
if (!(file=fopen(RESULT_FILE, "w"))) {
printfError("could not write %s because:\n", RESULT_FILE);
printfError(" %s\n", strerror(errno));
return 1;
}
printDebug("Open results file!\n");
// Set the start time and initialize
time = t0;
printDebug("start to initialize fmu!\n");
fmiFlag = fmu->initializeSlave(c, t0, fmiTrue, tEnd);
printDebug("Initialized fmu!\n");
if (fmiFlag > fmiWarning) {
printError("could not initialize model");
return 1;
}
// Output solution for time t0
printDebug("start to outputRow");
//outputRow(fmu, c, t0, file, separator, TRUE); // output column names
//outputRow(fmu, c, t0, file, separator, FALSE); // output initla value of fmu
outputdata(t0, file, separator, 0, 0, TRUE);
printDebug("start to getValueReference");
/////////////////////////////////////////////////////////////////////////////
// Get value references for input and output varibles
// Note: User needs to specify the name of variables for their own fmus
//Begin------------------------------------------------------------------
vru[0] = getValueReference(getVariableByName(md, "Toa"));
//vru[1] = getValueReference(getVariableByName(md, "u2"));
vry[0] = getValueReference(getVariableByName(md, "TrmSou"));
//vry[1] = getValueReference(getVariableByName(md, "y2"));
//End--------------------------------------------------------------------
printDebug("Enter in simulation loop.\n");
// enter the simulation loop
while (time < tEnd) {
if (loggingOn) printf("Step %d to t=%.4f\n", nSteps, time);
///////////////////////////////////////////////////////////////////////////
// Step 1: get values of output variables from slaves
for (k=0; vars[k]; k++) {
ScalarVariable* sv = vars[k];
if (getAlias(sv)!=enu_noAlias) continue;
if (getCausality(sv) != enu_output) continue; // only get output variable
vr = getValueReference(sv);
switch (sv->typeSpec->type){
case elm_Real:
fmu->getReal(c, &vr, 1, &ry);
break;
case elm_Integer:
fmu->getInteger(c, &vr, 1, &iy);
break;
case elm_Boolean:
fmu->getBoolean(c, &vr, 1, &by);
break;
case elm_String:
fmu->getString(c, &vr, 1, &sy);
break;
}
// Allocate values to cooresponding varibles on master program
// Note: User needs to specify the output variables for their own fmu
//Begin------------------------------------------------------------------
if (vr == vry[0]) ry1 = ry;
//else if(vr == vry[1]) ry2 = ry;
//End--------------------------------------------------------------------
}
///////////////////////////////////////////////////////////////////////////
// Step 2: compute on master side
// Note: User can adjust the computing schemes of mater program
//Begin------------------------------------------------------------------
printf("Dymola output = %f\n", ry1);
//= ry2 + 3.0;
ru1 = 293;
//End--------------------------------------------------------------------
//////////////////////////////////////////////////////////////////////////
// Step 3: set input variables back to slaves
for (k=0; vars[k]; k++) {
ScalarVariable* sv = vars[k];
if (getAlias(sv)!=enu_noAlias) continue;
if (getCausality(sv) != enu_input) continue; // only set input variable
vr = getValueReference(sv);
// Note: User can adjust the settings for input variables
//Begin------------------------------------------------------------------
switch (sv->typeSpec->type){
case elm_Real:
if(vr == vru[0]) {
fmu->setReal(c, &vr, 1, &ru1);
printDebug("Set u1.\n");
}
//else if (vr == vru[1]) {
// fmu->setReal(c, &vr, 1, &ru2);
// printDebug("Set u2.\n");
//}
else
printf("Warning: no data given for input variable.\n");
break;
case elm_Integer:
fmu->setInteger(c, &vr, 1, &ix);
break;
case elm_Boolean:
fmu->setBoolean(c, &vr, 1, &bx);
break;
case elm_String:
printDebug("Get string in simulatio()");
fmu->setString(c, &vr, 1, &sx);
break;
}
//End--------------------------------------------------------------------
}
// Advance to next time step
status = fmu->doStep(c, time, h, fmiTrue);
// Terminate this row
// fprintf(file, "\n"); (comment out this line to get rid of the blank line between the results in the csv file.)
time = min(time+h, tEnd);
//outputRow(fmu, c, time, file, separator, FALSE); // output values for this step
outputdata(time, file, separator, ru1, ry1, FALSE);
nSteps++;
} // end of while
// Cleanup
fclose(file);
// Print simulation summary
if (loggingOn) printf("Step %d to t=%.4f\n", nSteps, time);
printf("Simulation from %g to %g terminated successful\n", t0, tEnd);
printf(" steps ............ %d\n", nSteps);
printf(" fixed step size .. %g\n", h);
return 0; // success
}
///////////////////////////////////////////////////////////////////////////////
/// Output time and all non-alias variables in CSV format.
/// If separator is ',', columns are separated by ',' and '.' is used for floating-point numbers.
/// Otherwise, the given separator (e.g. ';' or '\t') is to separate columns, and ',' is used for
/// floating-point numbers.
///
///\param fmu FMU.
///\param c FMI component.
///\param time Time when data is outputed.
///\param separator Separator in file.
///\param header Indicator of row head.
///////////////////////////////////////////////////////////////////////////////
static void outputRow(FMU *fmu, fmiComponent c, double time, FILE* file, char separator, boolean header, double x, double y) {
int k;
fmiReal r;
fmiInteger i;
fmiBoolean b;
fmiString s;
fmiValueReference vr;
ScalarVariable** vars = fmu->modelDescription->modelVariables;
char buffer[32];
// Print first column
if (header)
fprintf(file, "time");
else {
if (separator==',')
fprintf(file, "%.4f", time);
else {
// Separator is e.g. ';' or '\t'
doubleToCommaString(buffer, time);
fprintf(file, "%s", buffer);
}
}
// Print all other columns
for (k=0; vars[k]; k++) {
ScalarVariable* sv = vars[k];
if (getAlias(sv)!=enu_noAlias) continue;
if (header) {
// Output names only
fprintf(file, "%c%s", separator, getName(sv));
}
else {
// Output values
vr = getValueReference(sv);
switch (sv->typeSpec->type){
case elm_Real:
fmu->getReal(c, &vr, 1, &r);
if (separator==',')
fprintf(file, ",%.4f", r);
else {
// Separator is e.g. ';' or '\t'
doubleToCommaString(buffer, r);
fprintf(file, "%c%s", separator, buffer);
}
break;
case elm_Integer:
fmu->getInteger(c, &vr, 1, &i);
fprintf(file, "%c%d", separator, i);
break;
case elm_Boolean:
fmu->getBoolean(c, &vr, 1, &b);
fprintf(file, "%c%d", separator, b);
break;
case elm_String:
printDebug("get string in outputrow");
//fmu->getString(c, &vr, 1, &s);
//fprintf(file, "%c%s", separator, s);
break;
}
}
} // for
// Terminate this row
fprintf(file, "\n");
}
void
Sinful::regenerateV1String() {
if(! m_valid) {
// The empty list.
m_v1String = "{}";
return;
}
std::vector< SourceRoute > v;
std::vector< SourceRoute > publics;
//
// We need to preserve the primary address to permit round-trips from
// original serialization to v1 serialization and back again. If we're
// clever, we can also use the special primary-address entry to handle
// some troublesome backwards-compability concerns: original Sinful
// did no input validation, and an empty original Sinful is considered
// valid. We should also be able to maintain the invariant that all
// addresses are protocol literals (and therefore require no lookup).
//
SourceRoute sr( CP_PRIMARY, m_host, getPortNum(), PUBLIC_NETWORK_NAME );
v.push_back( sr );
//
// Presently,
// each element of the list must be of one of the following forms:
//
// a = primary, port = port, p = IPv4, n = "internet"
// a = primary, port = port, p = IPv6, n = "internet"
// a = addrs[], port = port, p = IPv4, n = "internet"
// a = addrs[], port = port, p = IPv6, n = "internet"
//
// a = primary, port = port, p = IPv4, n = "private"
// a = primary, port = port, p = IPv6, n = "private"
// a = private, port = privport, p = IPv4, n = "private"
// a = private, port = privport, p = IPv6, n = "private"
//
// a = CCB[], port = ccbport, p = IPv4, n = "internet"
// a = CCB[], port = ccbport, p = IPv6, n = "internet"
// a = CCB[], port = ccbport, p = IPv4, n = "internet", ccbsharedport
// a = CCB[], port = ccbport, p = IPv6, n = "internet", ccbsharedport
//
// Additionally, each of the above may also include sp; if any
// address includes sp, all must include (the same) sp.
//
// Start by generating our list of public addresses.
if( numParams() == 0 ) {
condor_sockaddr sa;
if( sa.from_ip_string( m_host ) ) {
SourceRoute * sr = simpleRouteFromSinful( * this );
if( sr != NULL ) {
publics.push_back( * sr );
delete sr;
}
}
} else if( hasAddrs() ) {
for( unsigned i = 0; i < addrs.size(); ++i ) {
condor_sockaddr sa = addrs[i];
SourceRoute sr( sa, PUBLIC_NETWORK_NAME );
publics.push_back( sr );
}
}
// If we have a private network, either:
// * add its private network address, if it exists
// or
// * add each of its public addresses.
// In both cases, the network name for the routes being added is the
// private network name.
if( getPrivateNetworkName() != NULL ) {
if( getPrivateAddr() == NULL ) {
for( unsigned i = 0; i < publics.size(); ++i ) {
SourceRoute sr( publics[i], getPrivateNetworkName() );
v.push_back( sr );
}
} else {
// The private address is defined to be a simple original Sinful,
// just and ip-and-port string surrounded by brackets. This is
// overkill, but it's less ugly than stripping the brackets.
Sinful s( getPrivateAddr() );
if(! s.valid()) {
m_valid = false;
return;
}
SourceRoute * sr = simpleRouteFromSinful( s, getPrivateNetworkName() );
if( sr == NULL ) {
m_valid = false;
return;
}
v.push_back( * sr );
free( sr );
}
}
// If we have a CCB address, add all CCB addresses. Otherwise, add all
// of our public addresses.
if( getCCBContact() != NULL ) {
unsigned brokerIndex = 0;
StringList brokers( getCCBContact(), " " );
brokers.rewind();
char * contact = NULL;
while( (contact = brokers.next()) != NULL ) {
MyString ccbAddr, ccbID;
MyString peer( "er, constructing v1 Sinful string" );
bool contactOK = CCBClient::SplitCCBContact( contact, ccbAddr, ccbID, peer, NULL );
if(! contactOK ) {
m_valid = false;
return;
}
//
// A ccbAddr is an original Sinful without the <brackets>. It
// may have "PrivNet", "sock", "noUDP", and "alias" set. What
// we want to do is add copy ccbAddr's source routes to this
// Sinful, adding the ccbID and setting the brokerIndex, so
// that we know how to merge them back together when regenerating
// this Sinful's original Sinful string.
//
std::string ccbSinfulString;
formatstr( ccbSinfulString, "<%s>", ccbAddr.c_str() );
Sinful s( ccbSinfulString.c_str() );
if(! s.valid()) { m_valid = false; return; }
std::vector< SourceRoute > w;
if(! s.getSourceRoutes( w )) { m_valid = false; return; }
for( unsigned j = 0; j < w.size(); ++j ) {
SourceRoute sr = w[j];
sr.setBrokerIndex( brokerIndex );
sr.setCCBID( ccbID.c_str() );
sr.setSharedPortID( "" );
if( s.getSharedPortID() != NULL ) {
sr.setCCBSharedPortID( s.getSharedPortID() );
}
v.push_back( sr );
}
++brokerIndex;
}
}
// We'll never use these addresses -- the CCB address will supersede
// them -- but we need to record them to properly recreate addrs.
for( unsigned i = 0; i < publics.size(); ++i ) {
v.push_back( publics[i] );
}
// Set the host alias, if present, on all addresses.
if( getAlias() != NULL ) {
std::string alias( getAlias() );
for( unsigned i = 0; i < v.size(); ++i ) {
v[i].setAlias( alias );
}
}
// Set the shared port ID, if present, on all addresses.
if( getSharedPortID() != NULL ) {
std::string spid( getSharedPortID() );
for( unsigned i = 0; i < v.size(); ++i ) {
v[i].setSharedPortID( spid );
}
}
// Set noUDP, if true, on all addresses. (We don't have to set
// noUDP on public non-CCB addresses, or on the private address,
// unless WANT_UDP_COMMAND_SOCKET is false. However, we can't
// distinguish that case from the former two unless both CCB and
// SP are disabled.)
if( noUDP() ) {
for( unsigned i = 0; i < v.size(); ++i ) {
v[i].setNoUDP( true );
}
}
//
// Now that we've generated a list of source routes, convert it into
// a nested ClassAd list. The correct way to do this is to faff
// about with ClassAds, but they make it uneccessarily hard; for now,
// I'll just generated the appropriate string directly.
//
m_v1String.erase();
m_v1String += "{";
m_v1String += v[0].serialize();
for( unsigned i = 1; i < v.size(); ++i ) {
m_v1String += ", ";
m_v1String += v[i].serialize();
}
m_v1String += "}";
}
//##ModelId=424BB64601BE
CString Endpoint::toString()
{
return getAlias() + "(" + getEpid() + ")";
}
void KS01_writeGoal(FILE * fp, DPFE * d) {
PARAMS_STRUCT * p = dpfe->params_struct;
if (NULL == p) { return; }
fprintf(fp, " %s(1, %d)\n", getAlias(d->gf->f_name),
p->size - 1);
}
std::map<std::string, std::string> SIPAccount::getAccountDetails() const
{
std::map<std::string, std::string> a;
a[ACCOUNT_ID] = _accountID;
// The IP profile does not allow to set an alias
a[CONFIG_ACCOUNT_ALIAS] = (_accountID == IP2IP_PROFILE) ? IP2IP_PROFILE : getAlias();
a[CONFIG_ACCOUNT_ENABLE] = isEnabled() ? "true" : "false";
a[CONFIG_ACCOUNT_TYPE] = getType();
a[HOSTNAME] = getHostname();
a[USERNAME] = getUsername();
a[CONFIG_RINGTONE_PATH] = getRingtonePath();
a[CONFIG_RINGTONE_ENABLED] = getRingtoneEnabled() ? "true" : "false";
a[CONFIG_ACCOUNT_MAILBOX] = getMailBox();
RegistrationState state = Unregistered;
std::string registrationStateCode;
std::string registrationStateDescription;
if (_accountID == IP2IP_PROFILE) {
registrationStateCode = ""; // emtpy field
registrationStateDescription = "Direct IP call";
} else {
state = getRegistrationState();
int code = getRegistrationStateDetailed().first;
std::stringstream out;
out << code;
registrationStateCode = out.str();
registrationStateDescription = getRegistrationStateDetailed().second;
}
a[REGISTRATION_STATUS] = (_accountID == IP2IP_PROFILE) ? "READY": Manager::instance().mapStateNumberToString (state);
a[REGISTRATION_STATE_CODE] = registrationStateCode;
a[REGISTRATION_STATE_DESCRIPTION] = registrationStateDescription;
// Add sip specific details
a[ROUTESET] = getServiceRoute();
a[CONFIG_ACCOUNT_RESOLVE_ONCE] = isResolveOnce() ? "true" : "false";
a[USERAGENT] = getUseragent();
a[CONFIG_ACCOUNT_REGISTRATION_EXPIRE] = getRegistrationExpire();
a[LOCAL_INTERFACE] = getLocalInterface();
a[PUBLISHED_SAMEAS_LOCAL] = getPublishedSameasLocal() ? "true" : "false";
a[PUBLISHED_ADDRESS] = getPublishedAddress();
std::stringstream localport;
localport << getLocalPort();
a[LOCAL_PORT] = localport.str();
std::stringstream publishedport;
publishedport << getPublishedPort();
a[PUBLISHED_PORT] = publishedport.str();
a[STUN_ENABLE] = isStunEnabled() ? "true" : "false";
a[STUN_SERVER] = getStunServer();
a[ACCOUNT_DTMF_TYPE] = (getDtmfType() == OVERRTP) ? "overrtp" : "sipinfo";
a[SRTP_KEY_EXCHANGE] = getSrtpKeyExchange();
a[SRTP_ENABLE] = getSrtpEnable() ? "true" : "false";
a[SRTP_RTP_FALLBACK] = getSrtpFallback() ? "true" : "false";
a[ZRTP_DISPLAY_SAS] = getZrtpDisplaySas() ? "true" : "false";
a[ZRTP_DISPLAY_SAS_ONCE] = getZrtpDiaplaySasOnce() ? "true" : "false";
a[ZRTP_HELLO_HASH] = getZrtpHelloHash() ? "true" : "false";
a[ZRTP_NOT_SUPP_WARNING] = getZrtpNotSuppWarning() ? "true" : "false";
// TLS listener is unique and parameters are modified through IP2IP_PROFILE
std::stringstream tlslistenerport;
tlslistenerport << getTlsListenerPort();
a[TLS_LISTENER_PORT] = tlslistenerport.str();
a[TLS_ENABLE] = getTlsEnable();
a[TLS_CA_LIST_FILE] = getTlsCaListFile();
a[TLS_CERTIFICATE_FILE] = getTlsCertificateFile();
a[TLS_PRIVATE_KEY_FILE] = getTlsPrivateKeyFile();
a[TLS_PASSWORD] = getTlsPassword();
a[TLS_METHOD] = getTlsMethod();
a[TLS_CIPHERS] = getTlsCiphers();
a[TLS_SERVER_NAME] = getTlsServerName();
a[TLS_VERIFY_SERVER] = getTlsVerifyServer() ? "true" : "false";
a[TLS_VERIFY_CLIENT] = getTlsVerifyClient() ? "true" : "false";
a[TLS_REQUIRE_CLIENT_CERTIFICATE] = getTlsRequireClientCertificate() ? "true" : "false";
a[TLS_NEGOTIATION_TIMEOUT_SEC] = getTlsNegotiationTimeoutSec();
a[TLS_NEGOTIATION_TIMEOUT_MSEC] = getTlsNegotiationTimeoutMsec();
return a;
}
/*
* getCommand
*
* arguments:
* char *cmdLine: pointer to the command line string
*
* returns: commandT*: pointer to the commandT struct generated by
* parsing the cmdLine string
*
* This parses the command line string, and returns a commandT struct,
* as defined in runtime.h. You must free the memory used by commandT
* using the freeCommand function after you are finished.
*
* This function tokenizes the input, preserving quoted strings. It
* supports escaping quotes and the escape character, '\'.
*/
commandT*
getCommand(char* cmdLine)
{
//printf("here");
char* restOfLine = (char*)malloc(sizeof(char)*BUFSIZE);
//char* restCmdLine = (char*)malloc(sizeof(char)*BUFSIZE);
commandT* cmd = malloc(sizeof(commandT) + sizeof(char*) * MAXARGS);
cmd->argv[0] = 0;
cmd->name = 0;
cmd->argc = 0;
cmd->piped = FALSE;
cmd->next=NULL;
int i, inArg = 0;
char quote = 0;
char escape = 0;
// Set up the initial empty argument
char* tmp = malloc(sizeof(char*) * BUFSIZE);
int tmpLen = 0;
tmp[0] = 0;
//For aliasing:
//aliasL* alias;
char* keptString = 0;
//printf("parsing:%s\n", cmdLine);
for (i = 0; cmdLine[i] != 0; i++)
{
//printf("\tindex %d, char %c\n", i, cmdLine[i]);
// Check for whitespace
if (cmdLine[i] == ' ')
{
if (inArg == 0)
continue;
if (quote == 0)
{
// End of an argument
cmd->argv[cmd->argc] = malloc(sizeof(char) * (tmpLen + 1));
strcpy(cmd->argv[cmd->argc], tmp);
//Get rest of command to add on to expanded command of alias
if(cmd->argc==0){
if(isAlias(cmd->argv[0])){
alias=getAlias(cmd->argv[0]);
if(alias->found == FALSE){
keptString = splitCmd(cmdLine, i, restOfLine);
//printf("The rest of the string is: %s\n", keptString);
}
}
}
inArg = 0;
tmp[0] = 0;
tmpLen = 0;
cmd->argc++;
cmd->argv[cmd->argc] = 0;
continue;
}
}
// If we get here, we're in text or a quoted string
inArg = 1;
// Start or end quoting.
if (cmdLine[i] == '\'' || cmdLine[i] == '"')
{
if (escape != 0 && quote != 0 && cmdLine[i] == quote)
{
// Escaped quote. Add it to the argument.
tmp[tmpLen++] = cmdLine[i];
tmp[tmpLen] = 0;
escape = 0;
continue;
}
if (quote == 0)
{
//printf("\t\tstarting quote around %c\n", cmdLine[i]);
quote = cmdLine[i];
continue;
}
else
{
if (cmdLine[i] == quote)
{
//printf("\t\tfound end quote %c\n", quote);
quote = 0;
continue;
}
}
}
// Handle escape character repeat
if (cmdLine[i] == '\\' && escape == '\\')
{
escape = 0;
tmp[tmpLen++] = '\\';
tmp[tmpLen] = 0;
continue;
}
// Handle single escape character followed by a non-backslash or quote character
if (escape == '\\')
{
if (quote != 0)
{
tmp[tmpLen++] = '\\';
tmp[tmpLen] = 0;
}
escape = 0;
}
// Set the escape flag if we have a new escape character sequence.
if (cmdLine[i] == '\\')
{
escape = '\\';
continue;
}
if(cmdLine[i] =='|'){
cmd->piped =TRUE;
i+=2;
char* nextCmd = splitCmd(cmdLine, i, restOfLine);
pipeSeq(nextCmd, cmd);
//printf("%s\n",nextCmd);
//cmd->piped =TRUE;
//printf("Piped is %b\n", cmd->piped);
break;
}
tmp[tmpLen++] = cmdLine[i];
tmp[tmpLen] = 0;
}
// End the final argument, if any.
if (tmpLen > 0)
{
//printf("\t\tend of argument %d, got:%s\n", cmd.argc, tmp);
cmd->argv[cmd->argc] = malloc(sizeof(char) * (tmpLen + 1));
strcpy(cmd->argv[cmd->argc], tmp);
//cmd->next=0;
inArg = 0;
tmp[0] = 0;
tmpLen = 0;
cmd->argc++;
cmd->argv[cmd->argc] = 0;
//If input is an alias call expanded command
if(isAlias(cmd->argv[0])){
alias=getAlias(cmd->argv[0]);
if(alias->found == FALSE){
char* concat = concatCmd(alias->origName, keptString);
alias->found=TRUE;
cmd = getCommand(concat);
alias->found=FALSE;
//free(concat);
}
// alias->found=FALSE;
}
}
free(tmp);
//TODO Maybe we Need the cmd Line?
free(restOfLine);
//free(restCmdLine);
cmd->name = cmd->argv[0];
return cmd;
} /* getCommand */
