// @(#)root/meta:$Name: $:$Id: TCint.cxx,v 1.63 2003/04/11 11:48:11 rdm Exp $
// Author: Fons Rademakers 01/03/96
/*************************************************************************
* Copyright (C) 1995-2000, Rene Brun and Fons Rademakers. *
* All rights reserved. *
* *
* For the licensing terms see $ROOTSYS/LICENSE. *
* For the list of contributors see $ROOTSYS/README/CREDITS. *
*************************************************************************/
//////////////////////////////////////////////////////////////////////////
// //
// This class defines an interface to the CINT C/C++ interpreter made //
// by Masaharu Goto from HP Japan. //
// //
// CINT is an almost full ANSI compliant C/C++ interpreter. //
// //
//////////////////////////////////////////////////////////////////////////
#include "TCint.h"
#include "TROOT.h"
#include "TApplication.h"
#include "TGlobal.h"
#include "TDataType.h"
#include "TClass.h"
#include "TBaseClass.h"
#include "TDataMember.h"
#include "TMethod.h"
#include "TMethodArg.h"
#include "TObjArray.h"
#include "TObjString.h"
#include "TString.h"
#include "TList.h"
#include "TVirtualPad.h"
#include "TSystem.h"
#include "TVirtualMutex.h"
#ifdef WIN32
# ifndef ROOT_TGWin32Command
# include "TGWin32Command.h"
# undef GetClassInfo
# endif
#endif
R__EXTERN int optind;
// reference cint includes
// make sure fproto.h is loaded (it was excluded in TCint.h)
#undef G__FPROTO_H
#include "fproto.h"
#include "Api.h"
// Those are missing from the cint API files:
extern "C" int G__const_whatnoerror();
extern "C" int G__const_setnoerror();
extern "C" int G__const_resetnoerror();
extern "C" void G__clearfilebusy(int);
extern "C" void G__clearstack();
extern "C" int ScriptCompiler(const char *filename, const char *opt) {
return gSystem->CompileMacro(filename, opt);
}
extern "C" int IgnoreInclude(const char *fname, const char *expandedfname) {
return gROOT->IgnoreInclude(fname,expandedfname);
}
extern "C" void TCint_UpdateClassInfo(char *c, Long_t l) {
TCint::UpdateClassInfo(c, l);
}
extern "C" void* TCint_FindSpecialObject(char *c, G__ClassInfo *ci, void **p1, void **p2) {
return TCint::FindSpecialObject(c, ci, p1, p2);
}
// It is a "fantom" method to synchronize user keyboard input
// and ROOT prompt line (for WIN32)
const char *fantomline = "TRint::EndOfLineAction();";
ClassImp(TCint)
//______________________________________________________________________________
TCint::TCint(const char *name, const char *title) : TInterpreter(name, title)
{
// Initialize the CINT interpreter interface.
fMore = 0;
fPrompt[0] = 0;
G__RegisterScriptCompiler(&ScriptCompiler);
G__set_ignoreinclude(&IgnoreInclude);
G__InitUpdateClassInfo(&TCint_UpdateClassInfo);
G__InitGetSpecialObject(&TCint_FindSpecialObject);
ResetAll();
#ifndef WIN32
optind = 1; // make sure getopt() works in the main program
#endif
// Make sure that ALL macros are seen as C++.
G__LockCpp();
}
//______________________________________________________________________________
TCint::~TCint()
{
// Destroy the CINT interpreter interface.
if (fMore != -1) {
// only close the opened files do not free memory:
// G__scratch_all();
G__close_inputfiles();
}
}
//______________________________________________________________________________
void TCint::ClearFileBusy()
{
// Reset CINT internal state in case a previous action was not correctly terminated
// by G__init_cint() and G__dlmod().
G__clearfilebusy(0);
}
//______________________________________________________________________________
void TCint::ClearStack()
{
// Delete existing temporary values
G__clearstack();
}
//______________________________________________________________________________
Int_t TCint::InitializeDictionaries()
{
// Initialize all registered dictionaries. Normally this is already done
// by G__init_cint() and G__dlmod().
return G__call_setup_funcs();
}
//______________________________________________________________________________
void TCint::EndOfLineAction()
{
// It calls a "fantom" method to synchronize user keyboard input
// and ROOT prompt line.
ProcessLineSynch(fantomline);
}
//______________________________________________________________________________
void TCint::ExecThreadCB(TWin32SendClass *command)
{
// This function must be called from the "Command thread only".
#ifdef WIN32
#ifndef GDK_WIN32
char *line = (char *)(command->GetData(0));
EErrorCode *error = (EErrorCode*)(command->GetData(1));
Int_t iret = ProcessLine((const char *)line,error);
delete [] line;
if (LOWORD(command->GetCOP()) == kSendWaitClass)
((TWin32SendWaitClass *)command)->Release();
else
delete command;
#else
if (command) { }
#endif
#else
if (command) { }
#endif
}
//______________________________________________________________________________
Bool_t TCint::IsLoaded(const char* filename) const
{
// Return true if the file has already been loaded by cint.
// We will try in this order:
// actual filename
// filename as a path relative to
// the include path
// the shared library path
G__SourceFileInfo file(filename);
if (file.IsValid()) { return kTRUE; };
char *next = gSystem->Which(TROOT::GetMacroPath(), filename, kReadPermission);
if (next) {
file.Init(next);
delete [] next;
if (file.IsValid()) { return kTRUE; };
}
TString incPath = gSystem->GetIncludePath(); // of the form -Idir1 -Idir2 -Idir3
incPath.Append(":").Prepend(" ");
incPath.ReplaceAll(" -I",":"); // of form :dir1 :dir2:dir3
while ( incPath.Index(" :") != -1 ) {
incPath.ReplaceAll(" :",":");
}
incPath.Prepend(".:");
incPath.Append(":$ROOTSYS/cint/include:$ROOTSYS/cint/stl");
next = gSystem->Which(incPath, filename, kReadPermission);
if (next) {
file.Init(next);
delete [] next;
if (file.IsValid()) { return kTRUE; };
}
next = gSystem->DynamicPathName(filename,kTRUE);
if (next) {
file.Init(next);
delete [] next;
if (file.IsValid()) { return kTRUE; };
}
return kFALSE;
}
//______________________________________________________________________________
Int_t TCint::Load(const char *filename, Bool_t system)
{
// Load a library file in CINT's memory.
// if 'system' is true, the library is never unloaded.
R__LOCKGUARD(gCINTMutex);
int i;
if (!system)
i = G__loadfile(filename);
else
i = G__loadsystemfile(filename);
return i;
}
//______________________________________________________________________________
void TCint::LoadMacro(const char *filename, EErrorCode *error)
{
// Load a macro file in CINT's memory.
ProcessLine(Form(".L %s", filename), error);
}
//______________________________________________________________________________
Int_t TCint::ProcessLine(const char *line, EErrorCode *error)
{
// Let CINT process a command line.
Int_t ret = 0;
if (gApplication) {
if (gApplication->IsCmdThread()) {
gROOT->SetLineIsProcessing();
// It checks whether the input line contains the "fantom" method
// to synchronize user keyboard input and ROOT prompt line
if (strstr(line,fantomline)) {
G__free_tempobject();
TCint::UpdateAllCanvases();
} else {
int local_error = 0;
ret = G__process_cmd((char *)line, fPrompt, &fMore, &local_error, 0);
if (local_error == 0 && G__get_return(&fExitCode) == G__RETURN_EXIT2) {
ResetGlobals();
gApplication->Terminate(fExitCode);
}
if (error)
*error = (EErrorCode)local_error;
}
gROOT->SetLineHasBeenProcessed();
} else
ret = ProcessLineAsynch(line, error);
}
return ret;
}
//______________________________________________________________________________
Int_t TCint::ProcessLineAsynch(const char *line, EErrorCode *error)
{
// Let CINT process a command line asynch.
#ifndef WIN32
return ProcessLine(line, error);
#else
#ifndef GDK_WIN32
if (error) *error = kProcessing;
char *cmd = new char[strlen(line)+1];
strcpy(cmd,line);
TWin32SendClass *code = new TWin32SendClass(this,(UInt_t)cmd,(UInt_t)error,0,0);
ExecCommandThread(code,kFALSE);
return 0;
#else
return ProcessLine(line, error);
#endif
#endif
}
//______________________________________________________________________________
Int_t TCint::ProcessLineSynch(const char *line, EErrorCode *error)
{
// Let CINT process a command line synchronously, i.e we are waiting
// it will be finished.
if (gApplication && gApplication->IsCmdThread())
return ProcessLine(line, error);
#ifdef WIN32
#ifndef GDK_WIN32
if (error) *error = kProcessing;
char *cmd = new char[strlen(line)+1];
strcpy(cmd,line);
TWin32SendWaitClass code(this,(UInt_t)cmd,(UInt_t)error,0,0);
ExecCommandThread(&code,kFALSE);
code.Wait();
#endif
#endif
return 0;
}
//______________________________________________________________________________
Long_t TCint::Calc(const char *line, EErrorCode *error)
{
// Directly execute an executable statement (e.g. "func()", "3+5", etc.
// however not declarations, like "Int_t x;").
Long_t result;
#ifdef WIN32
// Test on ApplicationImp not being 0 is needed because only at end of
// TApplication ctor the IsLineProcessing flag is set to 0, so before
// we can not use it.
if (gApplication && gApplication->GetApplicationImp()) {
while (gROOT->IsLineProcessing() && !gApplication) {
Warning("Calc", "waiting for CINT thread to free");
gSystem->Sleep(500);
}
gROOT->SetLineIsProcessing();
}
#endif
result = (Long_t) G__int(G__calc((char *)line));
if (error) *error = (EErrorCode)G__lasterror();
#ifdef WIN32
if (gApplication && gApplication->GetApplicationImp())
gROOT->SetLineHasBeenProcessed();
#endif
return result;
}
//______________________________________________________________________________
void TCint::PrintIntro()
{
// Print CINT introduction and help message.
Printf("nCINT/ROOT C/C++ Interpreter version %s", G__cint_version());
Printf("Type ? for help. Commands must be C++ statements.");
Printf("Enclose multiple statements between { }.");
}
//______________________________________________________________________________
void TCint::Reset()
{
// Reset the CINT state to the state saved by the last call to
// TCint::SaveContext().
G__scratch_upto(&fDictPos);
}
//______________________________________________________________________________
void TCint::ResetAll()
{
// Reset the CINT state to its initial state.
G__init_cint("cint +V");
G__init_process_cmd();
}
//______________________________________________________________________________
void TCint::ResetGlobals()
{
// Reset the CINT global object state to the state saved by the last
// call to TCint::SaveGlobalsContext().
G__scratch_globals_upto(&fDictPosGlobals);
}
//______________________________________________________________________________
void TCint::RewindDictionary()
{
// Rewind CINT dictionary to the point where it was before executing
// the current macro. This function is typically called after SEGV or
// ctlr-C after doing a longjmp back to the prompt.
G__rewinddictionary();
}
//______________________________________________________________________________
Int_t TCint::DeleteGlobal(void *obj)
{
// Delete obj from CINT symbol table so it cannot be accessed anymore.
// Returns 1 in case of success and 0 in case object was not in table.
return G__deleteglobal(obj);
}
//______________________________________________________________________________
void TCint::SaveContext()
{
// Save the current CINT state.
G__store_dictposition(&fDictPos);
}
//______________________________________________________________________________
void TCint::SaveGlobalsContext()
{
// Save the current CINT state of global objects.
G__store_dictposition(&fDictPosGlobals);
}
//______________________________________________________________________________
void TCint::UpdateListOfGlobals()
{
// Update the list of pointers to global variables. This function
// is called by TROOT::GetListOfGlobals().
R__LOCKGUARD(gCINTMutex);
G__DataMemberInfo t, *a;
while (t.Next()) {
// if name cannot be obtained no use to put in list
if (t.IsValid() && t.Name()) {
// first remove if already in list
TGlobal *g = (TGlobal *)gROOT->fGlobals->FindObject(t.Name());
if (g) {
gROOT->fGlobals->Remove(g);
delete g;
}
a = new G__DataMemberInfo(t);
gROOT->fGlobals->Add(new TGlobal(a));
}
}
}
//______________________________________________________________________________
void TCint::UpdateListOfGlobalFunctions()
{
// Update the list of pointers to global functions. This function
// is called by TROOT::GetListOfGlobalFunctions().
R__LOCKGUARD(gCINTMutex);
G__MethodInfo t, *a;
while (t.Next()) {
// if name cannot be obtained no use to put in list
if (t.IsValid() && t.Name()) {
// first remove if already in list
TFunction *f = (TFunction *)gROOT->fGlobalFunctions->FindObject(t.Name());
if (f) {
gROOT->fGlobalFunctions->Remove(f);
delete f;
}
a = new G__MethodInfo(t);
gROOT->fGlobalFunctions->Add(new TFunction(a));
}
}
}
//______________________________________________________________________________
void TCint::UpdateListOfTypes()
{
// Update the list of pointers to Datatype (typedef) definitions. This
// function is called by TROOT::GetListOfTypes().
R__LOCKGUARD(gCINTMutex);
G__TypedefInfo t;
while (t.Next()) {
if (t.IsValid() && t.Name()) {
TDataType *d = (TDataType *)gROOT->fTypes->FindObject(t.Name());
// only add new types, don't delete old ones with the same name
// (as is done in UpdateListOfGlobals())
// This 'feature' is being used in TROOT::GetType.
if (!d) {
gROOT->fTypes->Add(new TDataType( new G__TypedefInfo(t) ));
}
}
}
}
//______________________________________________________________________________
void TCint::SetClassInfo(TClass *cl, Bool_t reload)
{
// Set pointer to CINT's G__ClassInfo in TClass.
R__LOCKGUARD(gCINTMutex);
if (!cl->fClassInfo || reload) {
// In the case where the class is not loaded and belongs to a namespace
// or is nested, looking for the full class name is outputing a lots of
// (expected) error messages. Currently the only way to avoid this is to
// specifically check that each level of nesting is already loaded.
// In case of templates the idea is that everything between the outer
// '<' and '>' has to be skipped, e.g.: aap<pipo<noot>::klaas>::a_class
char *classname = StrDup(cl->GetName());
char *current = classname;
while (*current) {
while (*current && *current != ':' && *current != '<')
current++;
if (!*current) break;
if (*current == '<') {
int level = 1;
current++;
while (*current && level > 0) {
if (*current == '<') level++;
if (*current == '>') level--;
current++;
}
continue;
}
// *current == ':', must be a "::"
if (*(current+1) != ':') {
Error("SetClassInfo", "unexpected token : in %s", classname);
delete [] classname;
return;
}
*current = '0';
G__ClassInfo info(classname);
if (!info.IsLoaded()) {
delete [] classname;
return;
}
*current = ':';
current += 2;
}
delete [] classname;
cl->fClassInfo = new G__ClassInfo(cl->GetName());
// In case a class contains an external enum, the enum will be seen as a
// class. We must detect this special case and make the class a Zombie.
// Here we assume that a class has at least one method.
// We can NOT call TClass::Property from here, because this method
// assumes that the TClass is well formed to do a lot of information
// caching. The method SetClassInfo (i.e. here) is usually called during
// the building phase of the TClass, hence it is NOT well formed yet.
if (cl->fClassInfo->IsValid() &&
!(cl->fClassInfo->Property() & (kIsClass|kIsStruct))) {
cl->MakeZombie();
}
if (!cl->fClassInfo->IsLoaded()) {
// this happens when no CINT dictionary is available
delete cl->fClassInfo;
cl->fClassInfo = 0;
}
}
}
//______________________________________________________________________________
Bool_t TCint::CheckClassInfo(const char *name)
{
// Checks if a class with the specified name is defined in CINT.
// Returns kFALSE is class is not defined.
Int_t tagnum = G__defined_tagname(name, 2);
if (tagnum >= 0) return kTRUE;
return kFALSE;
}
//______________________________________________________________________________
void TCint::CreateListOfBaseClasses(TClass *cl)
{
// Create list of pointers to base class(es) for TClass cl.
R__LOCKGUARD(gCINTMutex);
if (!cl->fBase) {
cl->fBase = new TList;
G__BaseClassInfo t(*cl->GetClassInfo()), *a;
while (t.Next()) {
// if name cannot be obtained no use to put in list
if (t.IsValid() && t.Name()) {
a = new G__BaseClassInfo(t);
cl->fBase->Add(new TBaseClass(a, cl));
}
}
}
}
//______________________________________________________________________________
void TCint::CreateListOfDataMembers(TClass *cl)
{
// Create list of pointers to data members for TClass cl.
R__LOCKGUARD(gCINTMutex);
if (!cl->fData) {
cl->fData = new TList;
G__DataMemberInfo t(*cl->GetClassInfo()), *a;
while (t.Next()) {
// if name cannot be obtained no use to put in list
if (t.IsValid() && t.Name() && strcmp(t.Name(), "G__virtualinfo")) {
a = new G__DataMemberInfo(t);
cl->fData->Add(new TDataMember(a, cl));
}
}
}
}
//______________________________________________________________________________
void TCint::CreateListOfMethods(TClass *cl)
{
// Create list of pointers to methods for TClass cl.
R__LOCKGUARD(gCINTMutex);
if (!cl->fMethod) {
cl->fMethod = new TList;
G__MethodInfo t(*cl->GetClassInfo()), *a;
while (t.Next()) {
// if name cannot be obtained no use to put in list
if (t.IsValid() && t.Name()) {
a = new G__MethodInfo(t);
cl->fMethod->Add(new TMethod(a, cl));
}
}
}
}
//______________________________________________________________________________
void TCint::CreateListOfMethodArgs(TFunction *m)
{
// Create list of pointers to method arguments for TMethod m.
R__LOCKGUARD(gCINTMutex);
if (!m->fMethodArgs) {
m->fMethodArgs = new TList;
G__MethodArgInfo t(*m->fInfo), *a;
while (t.Next()) {
// if type cannot be obtained no use to put in list
if (t.IsValid() && t.Type()) {
a = new G__MethodArgInfo(t);
m->fMethodArgs->Add(new TMethodArg(a, m));
}
}
}
}
//______________________________________________________________________________
void *TCint::GetInterfaceMethod(TClass *cl, const char *method,
const char *params)
{
// Return pointer to CINT interface function for a method of a class with
// parameters params (params is a string of actual arguments, not formal
// ones). If the class is 0 the global function list will be searched.
R__LOCKGUARD(gCINTMutex);
G__CallFunc func;
Long_t offset;
if (cl)
func.SetFunc(cl->GetClassInfo(), method, params, &offset);
else {
G__ClassInfo gcl; // default G__ClassInfo is global environment
func.SetFunc(&gcl, method, params, &offset);
}
return (void *)func.InterfaceMethod();
}
//______________________________________________________________________________
void *TCint::GetInterfaceMethodWithPrototype(TClass *cl, const char *method,
const char *proto)
{
// Return pointer to CINT interface function for a method of a class with
// a certain prototype, i.e. "char*,int,float". If the class is 0 the global
// function list will be searched.
R__LOCKGUARD(gCINTMutex);
G__InterfaceMethod f;
Long_t offset;
if (cl)
f = cl->GetClassInfo()->GetMethod(method, proto, &offset).InterfaceMethod();
else {
G__ClassInfo gcl; // default G__ClassInfo is global environment
f = gcl.GetMethod(method, proto, &offset).InterfaceMethod();
}
return (void *)f;
}
//______________________________________________________________________________
void TCint::Execute(const char *function, const char *params, int *error)
{
// Execute a global function with arguments params.
R__LOCKGUARD(gCINTMutex);
G__CallFunc func;
G__ClassInfo cl;
Long_t offset;
// set pointer to interface method and arguments
func.SetFunc(&cl, function, params, &offset);
// call function
func.Exec(0);
if (error) *error = G__lasterror();
}
//______________________________________________________________________________
void TCint::Execute(TObject *obj, TClass *cl, const char *method,
const char *params, int *error)
{
// Execute a method from class cl with arguments params.
R__LOCKGUARD(gCINTMutex);
void *address;
long offset;
G__CallFunc func;
// set pointer to interface method and arguments
func.SetFunc(cl->GetClassInfo(), method, params, &offset);
// call function
address = (void*)((Long_t)obj + offset);
func.Exec(address);
if (error) *error = G__lasterror();
}
//______________________________________________________________________________
void TCint::Execute(TObject *obj, TClass *cl, TMethod *method, TObjArray *params,
int *error)
{
// Execute a method from class cl with the arguments in array params
// (params[0] ... params[n] = array of TObjString parameters).
// Convert the TObjArray array of TObjString parameters to a character
// string of comma separated parameters.
// The parameters of type 'char' are enclosed in double quotes and all
// internal quotes are escaped.
if (!method) {
Error("Execute","No method was defined");
return;
}
TList *argList = method->GetListOfMethodArgs();
// Check number of actual parameters against of expected formal ones
Int_t nparms = argList->LastIndex()+1;
Int_t argc = params ? params->LastIndex()+1:0;
if (nparms != argc) {
Error("Execute","Wrong number of the parameters");
return;
}
const char *listpar = "";
TString complete(10);
if (params)
{
// Create a character string of parameters from TObjArray
TIter next(params);
for (Int_t i = 0; i < argc; i ++)
{
TMethodArg *arg = (TMethodArg *) argList->At( i );
G__TypeInfo type( arg->GetFullTypeName() );
TObjString *nxtpar = (TObjString *)next();
if (i) complete += ',';
if (strstr( type.TrueName(), "char" ))
{
TString chpar('"');
chpar += (nxtpar->String()).ReplaceAll(""","\"");
// At this point we have to check if string contains \"
// and apply some more sophisticated parser. Not implemented yet!
complete += chpar;
complete += '"';
}
else
complete += nxtpar->String();
}
listpar = complete.Data();
}
Execute(obj, cl, (char *)method->GetName(), (char *)listpar, error);
}
//______________________________________________________________________________
Int_t TCint::ExecuteMacro(const char *filename, EErrorCode *error)
{
// Execute a CINT macro.
if (gApplication)
gApplication->ProcessFile(filename, (int*)error);
else
/*G__value result =*/ G__exec_tempfile((char*)filename);
return 0; // could get return value from result, but what about return type?
}
//______________________________________________________________________________
const char *TCint::TypeName(const char *typeDesc)
{
// Return the absolute type of typeDesc.
// E.g.: typeDesc = "class TNamed**", returns "TNamed".
// You need to use the result immediately before it is being overwritten.
static char t[1024];
char *s, *template_start;
if (!strstr(typeDesc, "(*)(")) {
s = (char*)strchr(typeDesc, ' ');
template_start = (char*)strchr(typeDesc, '<');
if (!strcmp(typeDesc, "long long"))
strcpy(t, typeDesc);
// s is the position of the second 'word' (if any)
// except in the case of templates where there will be a space
// just before any closing '>': eg.
// TObj<std::vector<UShort_t,__malloc_alloc_template<0> > >*
else if (s && (template_start==0 || (s < template_start)) )
strcpy(t, s+1);
else
strcpy(t, typeDesc);
}
int l = strlen(t);
while (l > 0 && (t[l-1] == '*' || t[l-1] == '&') ) t[--l] = 0;
return t;
}
//______________________________________________________________________________
void *TCint::FindSpecialObject(char *item, G__ClassInfo *type, void **prevObj,
void **assocPtr)
{
// Static function called by CINT when it finds an un-indentified object.
// This function tries to find the UO in the ROOT files, directories, etc.
// This functions has been registered by the TCint ctor.
if (!*prevObj || *assocPtr != gDirectory) {
*prevObj = gROOT->FindSpecialObject(item,*assocPtr);
}
if (*prevObj) type->Init(((TObject *)*prevObj)->ClassName());
return *prevObj;
}
//______________________________________________________________________________
void TCint::UpdateClassInfo(char *item, Long_t tagnum)
{
// Static function called by CINT when it changes the tagnum for
// a class (e.g. after re-executing the setup function). In such
// cases we have to update the tagnum in the G__ClassInfo used by
// the TClass for class "item".
if (gROOT && gROOT->GetListOfClasses()) {
TClass *cl = gROOT->GetClass(item, kFALSE);
if (cl) {
G__ClassInfo *info = cl->GetClassInfo();
if (info && info->Tagnum() != tagnum) {
info->Init((int)tagnum);
if (cl->fBase)
cl->fBase->Delete();
delete cl->fBase;
cl->fBase = 0;
}
}
}
}
//______________________________________________________________________________
void TCint::UpdateAllCanvases()
{
// Update all canvases at end the terminal input command.
TIter next(gROOT->GetListOfCanvases());
TVirtualPad *canvas;
while ((canvas = (TVirtualPad *)next()))
canvas->Update();
}
//______________________________________________________________________________
const char* TCint::GetSharedLibs()
{
// Refresh the list of shared libraries and return it.
fSharedLibs = "";
G__SourceFileInfo cursor(0);
while (cursor.IsValid()) {
const char *filename = cursor.Name();
if (filename &&
(strstr(filename,".sl") != 0 ||
strstr(filename,".dl") != 0 ||
strstr(filename,".so") != 0 ||
strstr(filename,".dll") != 0 ||
strstr(filename,".DLL") != 0 ||
strstr(filename,".a") != 0)) {
if (!fSharedLibs.IsNull())
fSharedLibs.Append(" ");
fSharedLibs.Append(filename);
}
cursor.Next();
}
return fSharedLibs;
}
//______________________________________________________________________________
Bool_t TCint::IsErrorMessagesEnabled()
{
// If error messages are disabled, the interpreter should suppress its
// failures and warning messages from stdout.
return !G__const_whatnoerror();
}
//______________________________________________________________________________
Bool_t TCint::SetErrorMessages(Bool_t enable)
{
// If error messages are disabled, the interpreter should suppress its
// failures and warning messages from stdout.
if (enable) G__const_resetnoerror();
else G__const_setnoerror();
return !G__const_whatnoerror();
}
//______________________________________________________________________________
void TCint::AddIncludePath(const char *path)
{
// Add the given path to the list of directory in which the interpreter
// look for include files.
G__add_ipath((char*)path);
}
//______________________________________________________________________________
const char* TCint::GetIncludePath()
{
// Refresh the list of include path known to the interpreter and return it,
// with -I prepended.
fIncludePath = "";
G__IncludePathInfo path;
while ( path.Next() ) {
const char *pathname = path.Name();
fIncludePath.Append(" -I").Append(pathname);
} ;
return fIncludePath;
}
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