Convert to unix fileformat

This commit is contained in:
William S Fulton 2013-01-12 16:54:45 +00:00
commit 079165abe2
22 changed files with 2479 additions and 2479 deletions

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/* -----------------------------------------------------------------------------
* li_std_map_runme.cs
*
* SWIG C# tester for std_map.i
* This class tests all the functionality of the std_map.i wrapper.
* Upon successful testing, the main function doesn't print out anything.
* If any error is found - it will be printed on the screen.
* ----------------------------------------------------------------------------- */
using System;
using System.Collections.Generic;
using li_std_mapNamespace;
public class li_std_map_runme {
private static readonly int collectionSize = 20;
private static readonly int midCollection = collectionSize / 2;
public static void Main()
{
// Set up an int int map
StringIntMap simap = new StringIntMap();
for (int i = 0; i < collectionSize; i++)
{
int val = i * 18;
simap.Add(i.ToString(), val);
}
// Count property test
if (simap.Count != collectionSize)
throw new Exception("Count test failed");
// IsReadOnly property test
if (simap.IsReadOnly)
throw new Exception("IsReadOnly test failed");
// Item indexing test
simap["0"] = 200;
if (simap["0"] != 200)
throw new Exception("Item property test failed");
simap["0"] = 0 * 18;
// ContainsKey() test
for (int i = 0; i < collectionSize; i++)
{
if (!simap.ContainsKey(i.ToString()))
throw new Exception("ContainsKey test " + i + " failed");
}
// ContainsKey() test
for (int i = 0; i < collectionSize; i++)
{
if (!simap.Contains(new KeyValuePair<string, int>(i.ToString(), i * 18)))
throw new Exception("Contains test " + i + " failed");
}
// TryGetValue() test
int value;
bool rc = simap.TryGetValue("3", out value);
if (rc != true || value != (3 * 18))
throw new Exception("TryGetValue test 1 failed");
rc = simap.TryGetValue("-1", out value);
if (rc != false)
throw new Exception("TryGetValue test 2 failed");
// Keys and Values test
{
IList<string> keys = new List<string>(simap.Keys);
IList<int> values = new List<int>(simap.Values);
Dictionary<string, int> check = new Dictionary<string, int>();
if (keys.Count != collectionSize)
throw new Exception("Keys count test failed");
if (values.Count != collectionSize)
throw new Exception("Values count test failed");
for (int i = 0; i < keys.Count; i++)
{
if (simap[keys[i]] != values[i])
throw new Exception("Keys and values test failed for index " + i);
check.Add(keys[i], values[i]);
}
for (int i = 0; i < collectionSize; i++)
{
if (!check.ContainsKey(i.ToString()))
throw new Exception("Keys and Values ContainsKey test " + i + " failed");
}
}
// Add and Remove test
for (int i = 100; i < 103; i++)
{
simap.Add(i.ToString(), i * 18);
if (!simap.ContainsKey(i.ToString()) || simap[i.ToString()] != (i * 18))
throw new Exception("Add test failed for index " + i);
simap.Remove(i.ToString());
if (simap.ContainsKey(i.ToString()))
throw new Exception("Remove test failed for index " + i);
}
for (int i = 200; i < 203; i++)
{
simap.Add(new KeyValuePair<string, int>(i.ToString(), i * 18));
if (!simap.ContainsKey(i.ToString()) || simap[i.ToString()] != (i * 18))
throw new Exception("Add explicit test failed for index " + i);
simap.Remove(new KeyValuePair<string, int>(i.ToString(), i * 18));
if (simap.ContainsKey(i.ToString()))
throw new Exception("Remove explicit test failed for index " + i);
}
// Duplicate key test
try
{
simap.Add("3", 0);
throw new Exception("Adding duplicate key test failed");
}
catch (ArgumentException)
{
}
// CopyTo() test
{
KeyValuePair<string, int>[] outputarray = new KeyValuePair<string, int>[collectionSize];
simap.CopyTo(outputarray);
foreach (KeyValuePair<string, int> val in outputarray)
{
if (simap[val.Key] != val.Value)
throw new Exception("CopyTo (1) test failed, index:" + val.Key);
}
}
{
KeyValuePair<string, int>[] outputarray = new KeyValuePair<string, int>[midCollection + collectionSize];
simap.CopyTo(outputarray, midCollection);
for (int i = midCollection; i < midCollection + collectionSize; i++)
{
KeyValuePair<string, int> val = outputarray[i];
if (simap[val.Key] != val.Value)
throw new Exception("CopyTo (2) test failed, index:" + val.Key);
}
}
{
KeyValuePair<string, int>[] outputarray = new KeyValuePair<string, int>[collectionSize - 1];
try
{
simap.CopyTo(outputarray);
throw new Exception("CopyTo (4) test failed");
}
catch (ArgumentException)
{
}
}
// Clear test
simap.Clear();
if (simap.Count != 0)
throw new Exception("Clear test failed");
// Test wrapped methods
for (int i = 1; i <= 5; i++)
{
simap[i.ToString()] = i;
}
double avg = li_std_map.valueAverage(simap);
if (avg != 3.0)
throw new Exception("Wrapped method valueAverage test failed. Got " + avg);
string keyStringified = li_std_map.stringifyKeys(simap);
if (keyStringified != " 1 2 3 4 5")
throw new Exception("Wrapped method stringifyKeys test failed. Got " + keyStringified);
// Test a map with a new complex type (Struct)
{
IntStructMap ismap = new IntStructMap();
for (int i = 0; i < 10; i++)
{
ismap.Add(i, new Struct(i * 10.1));
}
if (ismap.Count != 10)
throw new Exception("Count test on complex type map failed");
foreach (KeyValuePair<int, Struct> p in ismap)
{
if ((p.Key * 10.1) != p.Value.num)
throw new Exception("Iteration test on complex type map failed for index " + p.Key);
}
}
// Test a map of pointers
{
IntStructPtrMap ispmap = new IntStructPtrMap();
for (int i = 0; i < 10; i++)
{
ispmap.Add(i, new Struct(i * 10.1));
}
if (ispmap.Count != 10)
throw new Exception("Count test on complex type pointer map failed");
foreach (KeyValuePair<int, Struct> p in ispmap)
{
if ((p.Key * 10.1) != p.Value.num)
throw new Exception("Iteration test on complex type pointer map failed for index " + p.Key);
}
}
{
IntStructConstPtrMap iscpmap = new IntStructConstPtrMap();
for (int i = 0; i < 10; i++)
{
iscpmap.Add(i, new Struct(i * 10.1));
}
if (iscpmap.Count != 10)
throw new Exception("Count test on complex type const pointer map failed");
foreach (KeyValuePair<int, Struct> p in iscpmap)
{
if ((p.Key * 10.1) != p.Value.num)
throw new Exception("Iteration test on complex type const pointer map failed for index " + p.Key);
}
}
// Test complex type as key (Struct)
{
StructIntMap limap = new StructIntMap();
Struct s7 = new Struct(7);
Struct s8 = new Struct(8);
limap[s7] = 8;
if (limap[s7] != 8)
throw new Exception("Assignment test on complex key map failed");
if (!limap.ContainsKey(s7))
throw new Exception("Key test (1) on complex key map failed");
if (limap.ContainsKey(s8))
throw new Exception("Key test (2) on complex key map failed");
}
// All done
}
}
/* -----------------------------------------------------------------------------
* li_std_map_runme.cs
*
* SWIG C# tester for std_map.i
* This class tests all the functionality of the std_map.i wrapper.
* Upon successful testing, the main function doesn't print out anything.
* If any error is found - it will be printed on the screen.
* ----------------------------------------------------------------------------- */
using System;
using System.Collections.Generic;
using li_std_mapNamespace;
public class li_std_map_runme {
private static readonly int collectionSize = 20;
private static readonly int midCollection = collectionSize / 2;
public static void Main()
{
// Set up an int int map
StringIntMap simap = new StringIntMap();
for (int i = 0; i < collectionSize; i++)
{
int val = i * 18;
simap.Add(i.ToString(), val);
}
// Count property test
if (simap.Count != collectionSize)
throw new Exception("Count test failed");
// IsReadOnly property test
if (simap.IsReadOnly)
throw new Exception("IsReadOnly test failed");
// Item indexing test
simap["0"] = 200;
if (simap["0"] != 200)
throw new Exception("Item property test failed");
simap["0"] = 0 * 18;
// ContainsKey() test
for (int i = 0; i < collectionSize; i++)
{
if (!simap.ContainsKey(i.ToString()))
throw new Exception("ContainsKey test " + i + " failed");
}
// ContainsKey() test
for (int i = 0; i < collectionSize; i++)
{
if (!simap.Contains(new KeyValuePair<string, int>(i.ToString(), i * 18)))
throw new Exception("Contains test " + i + " failed");
}
// TryGetValue() test
int value;
bool rc = simap.TryGetValue("3", out value);
if (rc != true || value != (3 * 18))
throw new Exception("TryGetValue test 1 failed");
rc = simap.TryGetValue("-1", out value);
if (rc != false)
throw new Exception("TryGetValue test 2 failed");
// Keys and Values test
{
IList<string> keys = new List<string>(simap.Keys);
IList<int> values = new List<int>(simap.Values);
Dictionary<string, int> check = new Dictionary<string, int>();
if (keys.Count != collectionSize)
throw new Exception("Keys count test failed");
if (values.Count != collectionSize)
throw new Exception("Values count test failed");
for (int i = 0; i < keys.Count; i++)
{
if (simap[keys[i]] != values[i])
throw new Exception("Keys and values test failed for index " + i);
check.Add(keys[i], values[i]);
}
for (int i = 0; i < collectionSize; i++)
{
if (!check.ContainsKey(i.ToString()))
throw new Exception("Keys and Values ContainsKey test " + i + " failed");
}
}
// Add and Remove test
for (int i = 100; i < 103; i++)
{
simap.Add(i.ToString(), i * 18);
if (!simap.ContainsKey(i.ToString()) || simap[i.ToString()] != (i * 18))
throw new Exception("Add test failed for index " + i);
simap.Remove(i.ToString());
if (simap.ContainsKey(i.ToString()))
throw new Exception("Remove test failed for index " + i);
}
for (int i = 200; i < 203; i++)
{
simap.Add(new KeyValuePair<string, int>(i.ToString(), i * 18));
if (!simap.ContainsKey(i.ToString()) || simap[i.ToString()] != (i * 18))
throw new Exception("Add explicit test failed for index " + i);
simap.Remove(new KeyValuePair<string, int>(i.ToString(), i * 18));
if (simap.ContainsKey(i.ToString()))
throw new Exception("Remove explicit test failed for index " + i);
}
// Duplicate key test
try
{
simap.Add("3", 0);
throw new Exception("Adding duplicate key test failed");
}
catch (ArgumentException)
{
}
// CopyTo() test
{
KeyValuePair<string, int>[] outputarray = new KeyValuePair<string, int>[collectionSize];
simap.CopyTo(outputarray);
foreach (KeyValuePair<string, int> val in outputarray)
{
if (simap[val.Key] != val.Value)
throw new Exception("CopyTo (1) test failed, index:" + val.Key);
}
}
{
KeyValuePair<string, int>[] outputarray = new KeyValuePair<string, int>[midCollection + collectionSize];
simap.CopyTo(outputarray, midCollection);
for (int i = midCollection; i < midCollection + collectionSize; i++)
{
KeyValuePair<string, int> val = outputarray[i];
if (simap[val.Key] != val.Value)
throw new Exception("CopyTo (2) test failed, index:" + val.Key);
}
}
{
KeyValuePair<string, int>[] outputarray = new KeyValuePair<string, int>[collectionSize - 1];
try
{
simap.CopyTo(outputarray);
throw new Exception("CopyTo (4) test failed");
}
catch (ArgumentException)
{
}
}
// Clear test
simap.Clear();
if (simap.Count != 0)
throw new Exception("Clear test failed");
// Test wrapped methods
for (int i = 1; i <= 5; i++)
{
simap[i.ToString()] = i;
}
double avg = li_std_map.valueAverage(simap);
if (avg != 3.0)
throw new Exception("Wrapped method valueAverage test failed. Got " + avg);
string keyStringified = li_std_map.stringifyKeys(simap);
if (keyStringified != " 1 2 3 4 5")
throw new Exception("Wrapped method stringifyKeys test failed. Got " + keyStringified);
// Test a map with a new complex type (Struct)
{
IntStructMap ismap = new IntStructMap();
for (int i = 0; i < 10; i++)
{
ismap.Add(i, new Struct(i * 10.1));
}
if (ismap.Count != 10)
throw new Exception("Count test on complex type map failed");
foreach (KeyValuePair<int, Struct> p in ismap)
{
if ((p.Key * 10.1) != p.Value.num)
throw new Exception("Iteration test on complex type map failed for index " + p.Key);
}
}
// Test a map of pointers
{
IntStructPtrMap ispmap = new IntStructPtrMap();
for (int i = 0; i < 10; i++)
{
ispmap.Add(i, new Struct(i * 10.1));
}
if (ispmap.Count != 10)
throw new Exception("Count test on complex type pointer map failed");
foreach (KeyValuePair<int, Struct> p in ispmap)
{
if ((p.Key * 10.1) != p.Value.num)
throw new Exception("Iteration test on complex type pointer map failed for index " + p.Key);
}
}
{
IntStructConstPtrMap iscpmap = new IntStructConstPtrMap();
for (int i = 0; i < 10; i++)
{
iscpmap.Add(i, new Struct(i * 10.1));
}
if (iscpmap.Count != 10)
throw new Exception("Count test on complex type const pointer map failed");
foreach (KeyValuePair<int, Struct> p in iscpmap)
{
if ((p.Key * 10.1) != p.Value.num)
throw new Exception("Iteration test on complex type const pointer map failed for index " + p.Key);
}
}
// Test complex type as key (Struct)
{
StructIntMap limap = new StructIntMap();
Struct s7 = new Struct(7);
Struct s8 = new Struct(8);
limap[s7] = 8;
if (limap[s7] != 8)
throw new Exception("Assignment test on complex key map failed");
if (!limap.ContainsKey(s7))
throw new Exception("Key test (1) on complex key map failed");
if (limap.ContainsKey(s8))
throw new Exception("Key test (2) on complex key map failed");
}
// All done
}
}

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// This tests intrusive_ptr is working okay. It also checks that there are no memory leaks in the
// class that intrusive_ptr is pointing via a counting mechanism in the constructors and destructor of Klass.
// In order to test that there are no leaks of the intrusive_ptr class itself (as it is created on the heap)
// the runtime tests can be run for a long time to monitor memory leaks using memory monitor tools
// like 'top'. There is a wrapper for intrusive_ptr in intrusive_ptr_wrapper.h which enables one to
// count the instances of intrusive_ptr. Uncomment the INTRUSIVE_PTR_WRAPPER macro to turn this on.
//
// Also note the debug_shared flag which can be set from the target language.
%module li_boost_intrusive_ptr
%warnfilter(SWIGWARN_TYPEMAP_SWIGTYPELEAK);
%warnfilter(SWIGWARN_LANG_SMARTPTR_MISSING) KlassDerived;
%warnfilter(SWIGWARN_LANG_SMARTPTR_MISSING) KlassDerivedDerived;
%inline %{
#include "boost/shared_ptr.hpp"
#include "boost/intrusive_ptr.hpp"
#include <boost/detail/atomic_count.hpp>
// Uncomment macro below to turn on intrusive_ptr memory leak checking as described above
//#define INTRUSIVE_PTR_WRAPPER
#ifdef INTRUSIVE_PTR_WRAPPER
# include "intrusive_ptr_wrapper.h"
# include "shared_ptr_wrapper.h"
#endif
%}
%{
#ifndef INTRUSIVE_PTR_WRAPPER
# define SwigBoost boost
#endif
%}
%include "std_string.i"
#ifndef INTRUSIVE_PTR_WRAPPER
# define SWIG_INTRUSIVE_PTR_NAMESPACE SwigBoost
# define SWIG_SHARED_PTR_NAMESPACE SwigBoost
#endif
#if defined(SWIGJAVA) || defined(SWIGCSHARP)
#define INTRUSIVE_PTR_WRAPPERS_IMPLEMENTED
#endif
#if defined(INTRUSIVE_PTR_WRAPPERS_IMPLEMENTED)
%include <boost_intrusive_ptr.i>
%intrusive_ptr(Space::Klass)
%intrusive_ptr_no_wrap(Space::KlassWithoutRefCount)
%intrusive_ptr(Space::KlassDerived)
%intrusive_ptr(Space::KlassDerivedDerived)
//For the use_count shared_ptr functions
#if defined(SWIGJAVA)
%typemap(in) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & ($*1_ltype tempnull) %{
$1 = $input ? *($&1_ltype)&$input : &tempnull;
%}
%typemap (jni) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & "jlong"
%typemap (jtype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & "long"
%typemap (jstype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & "Klass"
%typemap(javain) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & "Klass.getCPtr($javainput)"
%typemap(in) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & ($*1_ltype tempnull) %{
$1 = $input ? *($&1_ltype)&$input : &tempnull;
%}
%typemap (jni) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & "jlong"
%typemap (jtype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & "long"
%typemap (jstype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & "KlassDerived"
%typemap(javain) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & "KlassDerived.getCPtr($javainput)"
%typemap(in) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & ($*1_ltype tempnull) %{
$1 = $input ? *($&1_ltype)&$input : &tempnull;
%}
%typemap (jni) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & "jlong"
%typemap (jtype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & "long"
%typemap (jstype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & "KlassDerivedDerived"
%typemap(javain) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & "KlassDerivedDerived.getCPtr($javainput)"
#elif defined(SWIGCSHARP)
// TODO!
#endif
#endif
// TODO:
// const intrusive_ptr
// std::vector
// Add in generic %extend for the Upcast function for derived classes
// Remove proxy upcast method - implement %feature("shadow") ??? which replaces the proxy method
%exception {
if (debug_shared) {
cout << "++++++" << endl << flush;
cout << "calling $name" << endl << flush;
}
$action
if (debug_shared) {
cout << "------" << endl << flush;
}
}
%ignore IgnoredRefCountingBase;
%ignore *::operator=;
%ignore intrusive_ptr_add_ref;
%ignore intrusive_ptr_release;
%newobject pointerownertest();
%newobject smartpointerpointerownertest();
%inline %{
#include <iostream>
using namespace std;
static bool debug_shared = false;
namespace Space {
struct Klass {
Klass() : value("EMPTY"), count(0) { if (debug_shared) cout << "Klass() [" << value << "]" << endl << flush; increment(); }
Klass(const std::string &val) : value(val), count(0) { if (debug_shared) cout << "Klass(string) [" << value << "]" << endl << flush; increment(); }
virtual ~Klass() { if (debug_shared) cout << "~Klass() [" << value << "]" << endl << flush; decrement(); }
virtual std::string getValue() const { return value; }
void append(const std::string &s) { value += s; }
Klass(const Klass &other) : value(other.value), count(0) { if (debug_shared) cout << "Klass(const Klass&) [" << value << "]" << endl << flush; increment(); }
Klass &operator=(const Klass &other) { value = other.value; return *this; }
void addref(void) const { ++count; }
void release(void) const { if (--count == 0) delete this; }
int use_count(void) const { return count; }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx Klass::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx Klass::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
std::string value;
int array[1024];
mutable boost::detail::atomic_count count;
};
struct KlassWithoutRefCount {
KlassWithoutRefCount() : value("EMPTY") { if (debug_shared) cout << "KlassWithoutRefCount() [" << value << "]" << endl << flush; increment(); }
KlassWithoutRefCount(const std::string &val) : value(val) { if (debug_shared) cout << "KlassWithoutRefCount(string) [" << value << "]" << endl << flush; increment(); }
virtual ~KlassWithoutRefCount() { if (debug_shared) cout << "~KlassWithoutRefCount() [" << value << "]" << endl << flush; decrement(); }
virtual std::string getValue() const { return value; }
void append(const std::string &s) { value += s; }
KlassWithoutRefCount(const KlassWithoutRefCount &other) : value(other.value) { if (debug_shared) cout << "KlassWithoutRefCount(const KlassWithoutRefCount&) [" << value << "]" << endl << flush; increment(); }
std::string getSpecialValueFromUnwrappableClass() { return "this class cannot be wrapped by intrusive_ptrs but we can still use it"; }
KlassWithoutRefCount &operator=(const KlassWithoutRefCount &other) { value = other.value; return *this; }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx KlassWithoutRefCount::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx KlassWithoutRefCount::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
std::string value;
int array[1024];
};
struct IgnoredRefCountingBase {
IgnoredRefCountingBase() : count(0) { if (debug_shared) cout << "IgnoredRefCountingBase()" << endl << flush; increment(); }
IgnoredRefCountingBase(const IgnoredRefCountingBase &other) : count(0) { if (debug_shared) cout << "IgnoredRefCountingBase(const IgnoredRefCountingBase&)" << endl << flush; increment(); }
IgnoredRefCountingBase &operator=(const IgnoredRefCountingBase& other) {
return *this;
}
virtual ~IgnoredRefCountingBase() { if (debug_shared) cout << "~IgnoredRefCountingBase()" << endl << flush; decrement(); }
void addref(void) const { ++count; }
void release(void) const { if (--count == 0) delete this; }
int use_count(void) const { return count; }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx IgnoredRefCountingBase::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx IgnoredRefCountingBase::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
double d;
double e;
mutable boost::detail::atomic_count count;
};
long getTotal_IgnoredRefCountingBase_count() {
return IgnoredRefCountingBase::getTotal_count();
}
// For most compilers, this use of multiple inheritance results in different derived and base class
// pointer values ... for some more challenging tests :)
struct KlassDerived : IgnoredRefCountingBase, KlassWithoutRefCount {
KlassDerived() : KlassWithoutRefCount() { if (debug_shared) cout << "KlassDerived()" << endl << flush; increment(); }
KlassDerived(const std::string &val) : KlassWithoutRefCount(val) { if (debug_shared) cout << "KlassDerived(string) [" << val << "]" << endl << flush; increment(); }
KlassDerived(const KlassDerived &other) : KlassWithoutRefCount(other) { if (debug_shared) cout << "KlassDerived(const KlassDerived&))" << endl << flush; increment(); }
virtual ~KlassDerived() { if (debug_shared) cout << "~KlassDerived()" << endl << flush; decrement(); }
virtual std::string getValue() const { return KlassWithoutRefCount::getValue() + "-Derived"; }
int use_count(void) const { return IgnoredRefCountingBase::use_count(); }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx KlassDerived::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx KlassDerived::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
};
struct KlassDerivedDerived : KlassDerived {
KlassDerivedDerived() : KlassDerived() { if (debug_shared) cout << "KlassDerivedDerived()" << endl << flush; increment(); }
KlassDerivedDerived(const std::string &val) : KlassDerived(val) { if (debug_shared) cout << "KlassDerivedDerived(string) [" << val << "]" << endl << flush; increment(); }
KlassDerivedDerived(const KlassDerived &other) : KlassDerived(other) { if (debug_shared) cout << "KlassDerivedDerived(const KlassDerivedDerived&))" << endl << flush; increment(); }
virtual ~KlassDerivedDerived() { if (debug_shared) cout << "~KlassDerivedDerived()" << endl << flush; decrement(); }
virtual std::string getValue() const { return KlassWithoutRefCount::getValue() + "-DerivedDerived"; }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx KlassDerivedDerived::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx KlassDerivedDerived::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
};
KlassDerived* derivedpointertest(KlassDerived* kd) {
if (kd)
kd->append(" derivedpointertest");
return kd;
}
KlassDerived derivedvaluetest(KlassDerived kd) {
kd.append(" derivedvaluetest");
return kd;
}
KlassDerived& derivedreftest(KlassDerived& kd) {
kd.append(" derivedreftest");
return kd;
}
SwigBoost::intrusive_ptr<KlassDerived> derivedsmartptrtest(SwigBoost::intrusive_ptr<KlassDerived> kd) {
if (kd)
kd->append(" derivedsmartptrtest");
return kd;
}
SwigBoost::intrusive_ptr<KlassDerived>* derivedsmartptrpointertest(SwigBoost::intrusive_ptr<KlassDerived>* kd) {
if (kd && *kd)
(*kd)->append(" derivedsmartptrpointertest");
return kd;
}
SwigBoost::intrusive_ptr<KlassDerived>* derivedsmartptrreftest(SwigBoost::intrusive_ptr<KlassDerived>* kd) {
if (kd && *kd)
(*kd)->append(" derivedsmartptrreftest");
return kd;
}
SwigBoost::intrusive_ptr<KlassDerived>*& derivedsmartptrpointerreftest(SwigBoost::intrusive_ptr<KlassDerived>*& kd) {
if (kd && *kd)
(*kd)->append(" derivedsmartptrpointerreftest");
return kd;
}
SwigBoost::intrusive_ptr<Klass> factorycreate() {
return SwigBoost::intrusive_ptr<Klass>(new Klass("factorycreate"));
}
// smart pointer
SwigBoost::intrusive_ptr<Klass> smartpointertest(SwigBoost::intrusive_ptr<Klass> k) {
if (k)
k->append(" smartpointertest");
return SwigBoost::intrusive_ptr<Klass>(k);
}
SwigBoost::intrusive_ptr<Klass>* smartpointerpointertest(SwigBoost::intrusive_ptr<Klass>* k) {
if (k && *k)
(*k)->append(" smartpointerpointertest");
return k;
}
SwigBoost::intrusive_ptr<Klass>& smartpointerreftest(SwigBoost::intrusive_ptr<Klass>& k) {
if (k)
k->append(" smartpointerreftest");
return k;
}
SwigBoost::intrusive_ptr<Klass>*& smartpointerpointerreftest(SwigBoost::intrusive_ptr<Klass>*& k) {
if (k && *k)
(*k)->append(" smartpointerpointerreftest");
return k;
}
// const
SwigBoost::intrusive_ptr<const Klass> constsmartpointertest(SwigBoost::intrusive_ptr<const Klass> k) {
return SwigBoost::intrusive_ptr<const Klass>(k);
}
SwigBoost::intrusive_ptr<const Klass>* constsmartpointerpointertest(SwigBoost::intrusive_ptr<const Klass>* k) {
return k;
}
SwigBoost::intrusive_ptr<const Klass>& constsmartpointerreftest(SwigBoost::intrusive_ptr<const Klass>& k) {
return k;
}
// plain pointer
Klass valuetest(Klass k) {
k.append(" valuetest");
return k;
}
Klass *pointertest(Klass *k) {
if (k)
k->append(" pointertest");
return k;
}
Klass& reftest(Klass& k) {
k.append(" reftest");
return k;
}
Klass *const& pointerreftest(Klass *const& k) {
k->append(" pointerreftest");
return k;
}
// null
std::string nullsmartpointerpointertest(SwigBoost::intrusive_ptr<Klass>* k) {
if (k && *k)
return "not null";
else if (!k)
return "null smartpointer pointer";
else if (!*k)
return "null pointer";
else
return "also not null";
}
// $owner
Klass *pointerownertest() {
return new Klass("pointerownertest");
}
SwigBoost::intrusive_ptr<Klass>* smartpointerpointerownertest() {
return new SwigBoost::intrusive_ptr<Klass>(new Klass("smartpointerpointerownertest"));
}
const SwigBoost::intrusive_ptr<Klass>& ref_1() {
static SwigBoost::intrusive_ptr<Klass> sptr;
return sptr;
}
// overloading tests
std::string overload_rawbyval(int i) { return "int"; }
std::string overload_rawbyval(Klass k) { return "rawbyval"; }
std::string overload_rawbyref(int i) { return "int"; }
std::string overload_rawbyref(Klass &k) { return "rawbyref"; }
std::string overload_rawbyptr(int i) { return "int"; }
std::string overload_rawbyptr(Klass *k) { return "rawbyptr"; }
std::string overload_rawbyptrref(int i) { return "int"; }
std::string overload_rawbyptrref(Klass *const&k) { return "rawbyptrref"; }
std::string overload_smartbyval(int i) { return "int"; }
std::string overload_smartbyval(SwigBoost::intrusive_ptr<Klass> k) { return "smartbyval"; }
std::string overload_smartbyref(int i) { return "int"; }
std::string overload_smartbyref(SwigBoost::intrusive_ptr<Klass> &k) { return "smartbyref"; }
std::string overload_smartbyptr(int i) { return "int"; }
std::string overload_smartbyptr(SwigBoost::intrusive_ptr<Klass> *k) { return "smartbyptr"; }
std::string overload_smartbyptrref(int i) { return "int"; }
std::string overload_smartbyptrref(SwigBoost::intrusive_ptr<Klass> *&k) { return "smartbyptrref"; }
} // namespace Space
%}
%{
boost::detail::atomic_count Space::Klass::total_count(0);
boost::detail::atomic_count Space::KlassWithoutRefCount::total_count(0);
boost::detail::atomic_count Space::IgnoredRefCountingBase::total_count(0);
boost::detail::atomic_count Space::KlassDerived::total_count(0);
boost::detail::atomic_count Space::KlassDerivedDerived::total_count(0);
%}
// Member variables
%inline %{
struct MemberVariables {
MemberVariables() : SmartMemberPointer(new SwigBoost::intrusive_ptr<Space::Klass>()), SmartMemberReference(*(new SwigBoost::intrusive_ptr<Space::Klass>())), MemberPointer(0), MemberReference(MemberValue) {}
virtual ~MemberVariables() {
delete SmartMemberPointer;
delete &SmartMemberReference;
}
SwigBoost::intrusive_ptr<Space::Klass> SmartMemberValue;
SwigBoost::intrusive_ptr<Space::Klass> * SmartMemberPointer;
SwigBoost::intrusive_ptr<Space::Klass> & SmartMemberReference;
Space::Klass MemberValue;
Space::Klass * MemberPointer;
Space::Klass & MemberReference;
};
// Global variables
SwigBoost::intrusive_ptr<Space::Klass> GlobalSmartValue;
Space::Klass GlobalValue;
Space::Klass * GlobalPointer = 0;
Space::Klass & GlobalReference = GlobalValue;
%}
#if defined(INTRUSIVE_PTR_WRAPPERS_IMPLEMENTED)
// Note: %template after the intrusive_ptr typemaps
%intrusive_ptr(Base<int, double>)
%intrusive_ptr(Pair<int, double>)
#endif
// Templates
%inline %{
template <class T1, class T2> struct Base {
Space::Klass klassBase;
T1 baseVal1;
T2 baseVal2;
Base(T1 t1, T2 t2) : baseVal1(t1*2), baseVal2(t2*2) {}
virtual std::string getValue() const { return "Base<>"; };
mutable int count;
void addref(void) const { count++; }
void release(void) const { if (--count == 0) delete this; }
int use_count(void) const { return count; }
};
%}
%template(BaseIntDouble) Base<int, double>;
%inline %{
template <class T1, class T2> struct Pair : Base<T1, T2> {
Space::Klass klassPair;
T1 val1;
T2 val2;
Pair(T1 t1, T2 t2) : Base<T1, T2>(t1, t2), val1(t1), val2(t2) {}
virtual std::string getValue() const { return "Pair<>"; };
};
Pair<int, double> pair_id2(Pair<int, double> p) { return p; }
SwigBoost::intrusive_ptr< Pair<int, double> > pair_id1(SwigBoost::intrusive_ptr< Pair<int, double> > p) { return p; }
template<typename T> void intrusive_ptr_add_ref(const T* r) { r->addref(); }
template<typename T> void intrusive_ptr_release(const T* r) { r->release(); }
long use_count(const SwigBoost::shared_ptr<Space::Klass>& sptr) {
return sptr.use_count();
}
long use_count(const SwigBoost::shared_ptr<Space::KlassDerived>& sptr) {
return sptr.use_count();
}
long use_count(const SwigBoost::shared_ptr<Space::KlassDerivedDerived>& sptr) {
return sptr.use_count();
}
%}
%template(PairIntDouble) Pair<int, double>;
// For counting the instances of intrusive_ptr (all of which are created on the heap)
// intrusive_ptr_wrapper_count() gives overall count
%inline %{
namespace SwigBoost {
const int NOT_COUNTING = -123456;
int intrusive_ptr_wrapper_count() {
#ifdef INTRUSIVE_PTR_WRAPPER
return SwigBoost::IntrusivePtrWrapper::getTotalCount();
#else
return NOT_COUNTING;
#endif
}
#ifdef INTRUSIVE_PTR_WRAPPER
template<> std::string show_message(boost::intrusive_ptr<Space::Klass >*t) {
if (!t)
return "null intrusive_ptr!!!";
if (*t)
return "Klass: " + (*t)->getValue();
else
return "Klass: NULL";
}
template<> std::string show_message(boost::intrusive_ptr<const Space::Klass >*t) {
if (!t)
return "null intrusive_ptr!!!";
if (*t)
return "Klass: " + (*t)->getValue();
else
return "Klass: NULL";
}
template<> std::string show_message(boost::intrusive_ptr<Space::KlassDerived >*t) {
if (!t)
return "null intrusive_ptr!!!";
if (*t)
return "KlassDerived: " + (*t)->getValue();
else
return "KlassDerived: NULL";
}
template<> std::string show_message(boost::intrusive_ptr<const Space::KlassDerived >*t) {
if (!t)
return "null intrusive_ptr!!!";
if (*t)
return "KlassDerived: " + (*t)->getValue();
else
return "KlassDerived: NULL";
}
#endif
}
%}
// This tests intrusive_ptr is working okay. It also checks that there are no memory leaks in the
// class that intrusive_ptr is pointing via a counting mechanism in the constructors and destructor of Klass.
// In order to test that there are no leaks of the intrusive_ptr class itself (as it is created on the heap)
// the runtime tests can be run for a long time to monitor memory leaks using memory monitor tools
// like 'top'. There is a wrapper for intrusive_ptr in intrusive_ptr_wrapper.h which enables one to
// count the instances of intrusive_ptr. Uncomment the INTRUSIVE_PTR_WRAPPER macro to turn this on.
//
// Also note the debug_shared flag which can be set from the target language.
%module li_boost_intrusive_ptr
%warnfilter(SWIGWARN_TYPEMAP_SWIGTYPELEAK);
%warnfilter(SWIGWARN_LANG_SMARTPTR_MISSING) KlassDerived;
%warnfilter(SWIGWARN_LANG_SMARTPTR_MISSING) KlassDerivedDerived;
%inline %{
#include "boost/shared_ptr.hpp"
#include "boost/intrusive_ptr.hpp"
#include <boost/detail/atomic_count.hpp>
// Uncomment macro below to turn on intrusive_ptr memory leak checking as described above
//#define INTRUSIVE_PTR_WRAPPER
#ifdef INTRUSIVE_PTR_WRAPPER
# include "intrusive_ptr_wrapper.h"
# include "shared_ptr_wrapper.h"
#endif
%}
%{
#ifndef INTRUSIVE_PTR_WRAPPER
# define SwigBoost boost
#endif
%}
%include "std_string.i"
#ifndef INTRUSIVE_PTR_WRAPPER
# define SWIG_INTRUSIVE_PTR_NAMESPACE SwigBoost
# define SWIG_SHARED_PTR_NAMESPACE SwigBoost
#endif
#if defined(SWIGJAVA) || defined(SWIGCSHARP)
#define INTRUSIVE_PTR_WRAPPERS_IMPLEMENTED
#endif
#if defined(INTRUSIVE_PTR_WRAPPERS_IMPLEMENTED)
%include <boost_intrusive_ptr.i>
%intrusive_ptr(Space::Klass)
%intrusive_ptr_no_wrap(Space::KlassWithoutRefCount)
%intrusive_ptr(Space::KlassDerived)
%intrusive_ptr(Space::KlassDerivedDerived)
//For the use_count shared_ptr functions
#if defined(SWIGJAVA)
%typemap(in) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & ($*1_ltype tempnull) %{
$1 = $input ? *($&1_ltype)&$input : &tempnull;
%}
%typemap (jni) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & "jlong"
%typemap (jtype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & "long"
%typemap (jstype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & "Klass"
%typemap(javain) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::Klass > & "Klass.getCPtr($javainput)"
%typemap(in) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & ($*1_ltype tempnull) %{
$1 = $input ? *($&1_ltype)&$input : &tempnull;
%}
%typemap (jni) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & "jlong"
%typemap (jtype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & "long"
%typemap (jstype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & "KlassDerived"
%typemap(javain) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerived > & "KlassDerived.getCPtr($javainput)"
%typemap(in) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & ($*1_ltype tempnull) %{
$1 = $input ? *($&1_ltype)&$input : &tempnull;
%}
%typemap (jni) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & "jlong"
%typemap (jtype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & "long"
%typemap (jstype) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & "KlassDerivedDerived"
%typemap(javain) SWIG_INTRUSIVE_PTR_QNAMESPACE::shared_ptr< Space::KlassDerivedDerived > & "KlassDerivedDerived.getCPtr($javainput)"
#elif defined(SWIGCSHARP)
// TODO!
#endif
#endif
// TODO:
// const intrusive_ptr
// std::vector
// Add in generic %extend for the Upcast function for derived classes
// Remove proxy upcast method - implement %feature("shadow") ??? which replaces the proxy method
%exception {
if (debug_shared) {
cout << "++++++" << endl << flush;
cout << "calling $name" << endl << flush;
}
$action
if (debug_shared) {
cout << "------" << endl << flush;
}
}
%ignore IgnoredRefCountingBase;
%ignore *::operator=;
%ignore intrusive_ptr_add_ref;
%ignore intrusive_ptr_release;
%newobject pointerownertest();
%newobject smartpointerpointerownertest();
%inline %{
#include <iostream>
using namespace std;
static bool debug_shared = false;
namespace Space {
struct Klass {
Klass() : value("EMPTY"), count(0) { if (debug_shared) cout << "Klass() [" << value << "]" << endl << flush; increment(); }
Klass(const std::string &val) : value(val), count(0) { if (debug_shared) cout << "Klass(string) [" << value << "]" << endl << flush; increment(); }
virtual ~Klass() { if (debug_shared) cout << "~Klass() [" << value << "]" << endl << flush; decrement(); }
virtual std::string getValue() const { return value; }
void append(const std::string &s) { value += s; }
Klass(const Klass &other) : value(other.value), count(0) { if (debug_shared) cout << "Klass(const Klass&) [" << value << "]" << endl << flush; increment(); }
Klass &operator=(const Klass &other) { value = other.value; return *this; }
void addref(void) const { ++count; }
void release(void) const { if (--count == 0) delete this; }
int use_count(void) const { return count; }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx Klass::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx Klass::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
std::string value;
int array[1024];
mutable boost::detail::atomic_count count;
};
struct KlassWithoutRefCount {
KlassWithoutRefCount() : value("EMPTY") { if (debug_shared) cout << "KlassWithoutRefCount() [" << value << "]" << endl << flush; increment(); }
KlassWithoutRefCount(const std::string &val) : value(val) { if (debug_shared) cout << "KlassWithoutRefCount(string) [" << value << "]" << endl << flush; increment(); }
virtual ~KlassWithoutRefCount() { if (debug_shared) cout << "~KlassWithoutRefCount() [" << value << "]" << endl << flush; decrement(); }
virtual std::string getValue() const { return value; }
void append(const std::string &s) { value += s; }
KlassWithoutRefCount(const KlassWithoutRefCount &other) : value(other.value) { if (debug_shared) cout << "KlassWithoutRefCount(const KlassWithoutRefCount&) [" << value << "]" << endl << flush; increment(); }
std::string getSpecialValueFromUnwrappableClass() { return "this class cannot be wrapped by intrusive_ptrs but we can still use it"; }
KlassWithoutRefCount &operator=(const KlassWithoutRefCount &other) { value = other.value; return *this; }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx KlassWithoutRefCount::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx KlassWithoutRefCount::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
std::string value;
int array[1024];
};
struct IgnoredRefCountingBase {
IgnoredRefCountingBase() : count(0) { if (debug_shared) cout << "IgnoredRefCountingBase()" << endl << flush; increment(); }
IgnoredRefCountingBase(const IgnoredRefCountingBase &other) : count(0) { if (debug_shared) cout << "IgnoredRefCountingBase(const IgnoredRefCountingBase&)" << endl << flush; increment(); }
IgnoredRefCountingBase &operator=(const IgnoredRefCountingBase& other) {
return *this;
}
virtual ~IgnoredRefCountingBase() { if (debug_shared) cout << "~IgnoredRefCountingBase()" << endl << flush; decrement(); }
void addref(void) const { ++count; }
void release(void) const { if (--count == 0) delete this; }
int use_count(void) const { return count; }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx IgnoredRefCountingBase::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx IgnoredRefCountingBase::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
double d;
double e;
mutable boost::detail::atomic_count count;
};
long getTotal_IgnoredRefCountingBase_count() {
return IgnoredRefCountingBase::getTotal_count();
}
// For most compilers, this use of multiple inheritance results in different derived and base class
// pointer values ... for some more challenging tests :)
struct KlassDerived : IgnoredRefCountingBase, KlassWithoutRefCount {
KlassDerived() : KlassWithoutRefCount() { if (debug_shared) cout << "KlassDerived()" << endl << flush; increment(); }
KlassDerived(const std::string &val) : KlassWithoutRefCount(val) { if (debug_shared) cout << "KlassDerived(string) [" << val << "]" << endl << flush; increment(); }
KlassDerived(const KlassDerived &other) : KlassWithoutRefCount(other) { if (debug_shared) cout << "KlassDerived(const KlassDerived&))" << endl << flush; increment(); }
virtual ~KlassDerived() { if (debug_shared) cout << "~KlassDerived()" << endl << flush; decrement(); }
virtual std::string getValue() const { return KlassWithoutRefCount::getValue() + "-Derived"; }
int use_count(void) const { return IgnoredRefCountingBase::use_count(); }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx KlassDerived::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx KlassDerived::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
};
struct KlassDerivedDerived : KlassDerived {
KlassDerivedDerived() : KlassDerived() { if (debug_shared) cout << "KlassDerivedDerived()" << endl << flush; increment(); }
KlassDerivedDerived(const std::string &val) : KlassDerived(val) { if (debug_shared) cout << "KlassDerivedDerived(string) [" << val << "]" << endl << flush; increment(); }
KlassDerivedDerived(const KlassDerived &other) : KlassDerived(other) { if (debug_shared) cout << "KlassDerivedDerived(const KlassDerivedDerived&))" << endl << flush; increment(); }
virtual ~KlassDerivedDerived() { if (debug_shared) cout << "~KlassDerivedDerived()" << endl << flush; decrement(); }
virtual std::string getValue() const { return KlassWithoutRefCount::getValue() + "-DerivedDerived"; }
static long getTotal_count() { return total_count; }
private:
static void increment() { ++total_count; if (debug_shared) cout << " ++xxxxx KlassDerivedDerived::increment tot: " << total_count << endl;}
static void decrement() { --total_count; if (debug_shared) cout << " --xxxxx KlassDerivedDerived::decrement tot: " << total_count << endl;}
static boost::detail::atomic_count total_count;
};
KlassDerived* derivedpointertest(KlassDerived* kd) {
if (kd)
kd->append(" derivedpointertest");
return kd;
}
KlassDerived derivedvaluetest(KlassDerived kd) {
kd.append(" derivedvaluetest");
return kd;
}
KlassDerived& derivedreftest(KlassDerived& kd) {
kd.append(" derivedreftest");
return kd;
}
SwigBoost::intrusive_ptr<KlassDerived> derivedsmartptrtest(SwigBoost::intrusive_ptr<KlassDerived> kd) {
if (kd)
kd->append(" derivedsmartptrtest");
return kd;
}
SwigBoost::intrusive_ptr<KlassDerived>* derivedsmartptrpointertest(SwigBoost::intrusive_ptr<KlassDerived>* kd) {
if (kd && *kd)
(*kd)->append(" derivedsmartptrpointertest");
return kd;
}
SwigBoost::intrusive_ptr<KlassDerived>* derivedsmartptrreftest(SwigBoost::intrusive_ptr<KlassDerived>* kd) {
if (kd && *kd)
(*kd)->append(" derivedsmartptrreftest");
return kd;
}
SwigBoost::intrusive_ptr<KlassDerived>*& derivedsmartptrpointerreftest(SwigBoost::intrusive_ptr<KlassDerived>*& kd) {
if (kd && *kd)
(*kd)->append(" derivedsmartptrpointerreftest");
return kd;
}
SwigBoost::intrusive_ptr<Klass> factorycreate() {
return SwigBoost::intrusive_ptr<Klass>(new Klass("factorycreate"));
}
// smart pointer
SwigBoost::intrusive_ptr<Klass> smartpointertest(SwigBoost::intrusive_ptr<Klass> k) {
if (k)
k->append(" smartpointertest");
return SwigBoost::intrusive_ptr<Klass>(k);
}
SwigBoost::intrusive_ptr<Klass>* smartpointerpointertest(SwigBoost::intrusive_ptr<Klass>* k) {
if (k && *k)
(*k)->append(" smartpointerpointertest");
return k;
}
SwigBoost::intrusive_ptr<Klass>& smartpointerreftest(SwigBoost::intrusive_ptr<Klass>& k) {
if (k)
k->append(" smartpointerreftest");
return k;
}
SwigBoost::intrusive_ptr<Klass>*& smartpointerpointerreftest(SwigBoost::intrusive_ptr<Klass>*& k) {
if (k && *k)
(*k)->append(" smartpointerpointerreftest");
return k;
}
// const
SwigBoost::intrusive_ptr<const Klass> constsmartpointertest(SwigBoost::intrusive_ptr<const Klass> k) {
return SwigBoost::intrusive_ptr<const Klass>(k);
}
SwigBoost::intrusive_ptr<const Klass>* constsmartpointerpointertest(SwigBoost::intrusive_ptr<const Klass>* k) {
return k;
}
SwigBoost::intrusive_ptr<const Klass>& constsmartpointerreftest(SwigBoost::intrusive_ptr<const Klass>& k) {
return k;
}
// plain pointer
Klass valuetest(Klass k) {
k.append(" valuetest");
return k;
}
Klass *pointertest(Klass *k) {
if (k)
k->append(" pointertest");
return k;
}
Klass& reftest(Klass& k) {
k.append(" reftest");
return k;
}
Klass *const& pointerreftest(Klass *const& k) {
k->append(" pointerreftest");
return k;
}
// null
std::string nullsmartpointerpointertest(SwigBoost::intrusive_ptr<Klass>* k) {
if (k && *k)
return "not null";
else if (!k)
return "null smartpointer pointer";
else if (!*k)
return "null pointer";
else
return "also not null";
}
// $owner
Klass *pointerownertest() {
return new Klass("pointerownertest");
}
SwigBoost::intrusive_ptr<Klass>* smartpointerpointerownertest() {
return new SwigBoost::intrusive_ptr<Klass>(new Klass("smartpointerpointerownertest"));
}
const SwigBoost::intrusive_ptr<Klass>& ref_1() {
static SwigBoost::intrusive_ptr<Klass> sptr;
return sptr;
}
// overloading tests
std::string overload_rawbyval(int i) { return "int"; }
std::string overload_rawbyval(Klass k) { return "rawbyval"; }
std::string overload_rawbyref(int i) { return "int"; }
std::string overload_rawbyref(Klass &k) { return "rawbyref"; }
std::string overload_rawbyptr(int i) { return "int"; }
std::string overload_rawbyptr(Klass *k) { return "rawbyptr"; }
std::string overload_rawbyptrref(int i) { return "int"; }
std::string overload_rawbyptrref(Klass *const&k) { return "rawbyptrref"; }
std::string overload_smartbyval(int i) { return "int"; }
std::string overload_smartbyval(SwigBoost::intrusive_ptr<Klass> k) { return "smartbyval"; }
std::string overload_smartbyref(int i) { return "int"; }
std::string overload_smartbyref(SwigBoost::intrusive_ptr<Klass> &k) { return "smartbyref"; }
std::string overload_smartbyptr(int i) { return "int"; }
std::string overload_smartbyptr(SwigBoost::intrusive_ptr<Klass> *k) { return "smartbyptr"; }
std::string overload_smartbyptrref(int i) { return "int"; }
std::string overload_smartbyptrref(SwigBoost::intrusive_ptr<Klass> *&k) { return "smartbyptrref"; }
} // namespace Space
%}
%{
boost::detail::atomic_count Space::Klass::total_count(0);
boost::detail::atomic_count Space::KlassWithoutRefCount::total_count(0);
boost::detail::atomic_count Space::IgnoredRefCountingBase::total_count(0);
boost::detail::atomic_count Space::KlassDerived::total_count(0);
boost::detail::atomic_count Space::KlassDerivedDerived::total_count(0);
%}
// Member variables
%inline %{
struct MemberVariables {
MemberVariables() : SmartMemberPointer(new SwigBoost::intrusive_ptr<Space::Klass>()), SmartMemberReference(*(new SwigBoost::intrusive_ptr<Space::Klass>())), MemberPointer(0), MemberReference(MemberValue) {}
virtual ~MemberVariables() {
delete SmartMemberPointer;
delete &SmartMemberReference;
}
SwigBoost::intrusive_ptr<Space::Klass> SmartMemberValue;
SwigBoost::intrusive_ptr<Space::Klass> * SmartMemberPointer;
SwigBoost::intrusive_ptr<Space::Klass> & SmartMemberReference;
Space::Klass MemberValue;
Space::Klass * MemberPointer;
Space::Klass & MemberReference;
};
// Global variables
SwigBoost::intrusive_ptr<Space::Klass> GlobalSmartValue;
Space::Klass GlobalValue;
Space::Klass * GlobalPointer = 0;
Space::Klass & GlobalReference = GlobalValue;
%}
#if defined(INTRUSIVE_PTR_WRAPPERS_IMPLEMENTED)
// Note: %template after the intrusive_ptr typemaps
%intrusive_ptr(Base<int, double>)
%intrusive_ptr(Pair<int, double>)
#endif
// Templates
%inline %{
template <class T1, class T2> struct Base {
Space::Klass klassBase;
T1 baseVal1;
T2 baseVal2;
Base(T1 t1, T2 t2) : baseVal1(t1*2), baseVal2(t2*2) {}
virtual std::string getValue() const { return "Base<>"; };
mutable int count;
void addref(void) const { count++; }
void release(void) const { if (--count == 0) delete this; }
int use_count(void) const { return count; }
};
%}
%template(BaseIntDouble) Base<int, double>;
%inline %{
template <class T1, class T2> struct Pair : Base<T1, T2> {
Space::Klass klassPair;
T1 val1;
T2 val2;
Pair(T1 t1, T2 t2) : Base<T1, T2>(t1, t2), val1(t1), val2(t2) {}
virtual std::string getValue() const { return "Pair<>"; };
};
Pair<int, double> pair_id2(Pair<int, double> p) { return p; }
SwigBoost::intrusive_ptr< Pair<int, double> > pair_id1(SwigBoost::intrusive_ptr< Pair<int, double> > p) { return p; }
template<typename T> void intrusive_ptr_add_ref(const T* r) { r->addref(); }
template<typename T> void intrusive_ptr_release(const T* r) { r->release(); }
long use_count(const SwigBoost::shared_ptr<Space::Klass>& sptr) {
return sptr.use_count();
}
long use_count(const SwigBoost::shared_ptr<Space::KlassDerived>& sptr) {
return sptr.use_count();
}
long use_count(const SwigBoost::shared_ptr<Space::KlassDerivedDerived>& sptr) {
return sptr.use_count();
}
%}
%template(PairIntDouble) Pair<int, double>;
// For counting the instances of intrusive_ptr (all of which are created on the heap)
// intrusive_ptr_wrapper_count() gives overall count
%inline %{
namespace SwigBoost {
const int NOT_COUNTING = -123456;
int intrusive_ptr_wrapper_count() {
#ifdef INTRUSIVE_PTR_WRAPPER
return SwigBoost::IntrusivePtrWrapper::getTotalCount();
#else
return NOT_COUNTING;
#endif
}
#ifdef INTRUSIVE_PTR_WRAPPER
template<> std::string show_message(boost::intrusive_ptr<Space::Klass >*t) {
if (!t)
return "null intrusive_ptr!!!";
if (*t)
return "Klass: " + (*t)->getValue();
else
return "Klass: NULL";
}
template<> std::string show_message(boost::intrusive_ptr<const Space::Klass >*t) {
if (!t)
return "null intrusive_ptr!!!";
if (*t)
return "Klass: " + (*t)->getValue();
else
return "Klass: NULL";
}
template<> std::string show_message(boost::intrusive_ptr<Space::KlassDerived >*t) {
if (!t)
return "null intrusive_ptr!!!";
if (*t)
return "KlassDerived: " + (*t)->getValue();
else
return "KlassDerived: NULL";
}
template<> std::string show_message(boost::intrusive_ptr<const Space::KlassDerived >*t) {
if (!t)
return "null intrusive_ptr!!!";
if (*t)
return "KlassDerived: " + (*t)->getValue();
else
return "KlassDerived: NULL";
}
#endif
}
%}

View file

@ -1,42 +1,42 @@
require("import") -- the import fn
import("li_typemaps") -- import code
-- catch "undefined" global variables
local env = _ENV -- Lua 5.2
if not env then env = getfenv () end -- Lua 5.1
setmetatable(env, {__index=function (t,i) error("undefined global variable `"..i.."'",2) end})
-- Check double INPUT typemaps
assert(li_typemaps.in_double(22.22) == 22.22)
assert(li_typemaps.inr_double(22.22) == 22.22)
-- Check double OUTPUT typemaps
assert(li_typemaps.out_double(22.22) == 22.22)
assert(li_typemaps.outr_double(22.22) == 22.22)
-- Check double INOUT typemaps
assert(li_typemaps.inout_double(22.22) == 22.22)
assert(li_typemaps.inoutr_double(22.22) == 22.22)
-- check long long
assert(li_typemaps.in_ulonglong(20)==20)
assert(li_typemaps.inr_ulonglong(20)==20)
assert(li_typemaps.out_ulonglong(20)==20)
assert(li_typemaps.outr_ulonglong(20)==20)
assert(li_typemaps.inout_ulonglong(20)==20)
assert(li_typemaps.inoutr_ulonglong(20)==20)
-- check bools
assert(li_typemaps.in_bool(true)==true)
assert(li_typemaps.inr_bool(false)==false)
assert(li_typemaps.out_bool(true)==true)
assert(li_typemaps.outr_bool(false)==false)
assert(li_typemaps.inout_bool(true)==true)
assert(li_typemaps.inoutr_bool(false)==false)
-- the others
a,b=li_typemaps.inoutr_int2(1,2)
assert(a==1 and b==2)
f,i=li_typemaps.out_foo(10)
assert(f.a==10 and i==20)
require("import") -- the import fn
import("li_typemaps") -- import code
-- catch "undefined" global variables
local env = _ENV -- Lua 5.2
if not env then env = getfenv () end -- Lua 5.1
setmetatable(env, {__index=function (t,i) error("undefined global variable `"..i.."'",2) end})
-- Check double INPUT typemaps
assert(li_typemaps.in_double(22.22) == 22.22)
assert(li_typemaps.inr_double(22.22) == 22.22)
-- Check double OUTPUT typemaps
assert(li_typemaps.out_double(22.22) == 22.22)
assert(li_typemaps.outr_double(22.22) == 22.22)
-- Check double INOUT typemaps
assert(li_typemaps.inout_double(22.22) == 22.22)
assert(li_typemaps.inoutr_double(22.22) == 22.22)
-- check long long
assert(li_typemaps.in_ulonglong(20)==20)
assert(li_typemaps.inr_ulonglong(20)==20)
assert(li_typemaps.out_ulonglong(20)==20)
assert(li_typemaps.outr_ulonglong(20)==20)
assert(li_typemaps.inout_ulonglong(20)==20)
assert(li_typemaps.inoutr_ulonglong(20)==20)
-- check bools
assert(li_typemaps.in_bool(true)==true)
assert(li_typemaps.inr_bool(false)==false)
assert(li_typemaps.out_bool(true)==true)
assert(li_typemaps.outr_bool(false)==false)
assert(li_typemaps.inout_bool(true)==true)
assert(li_typemaps.inoutr_bool(false)==false)
-- the others
a,b=li_typemaps.inoutr_int2(1,2)
assert(a==1 and b==2)
f,i=li_typemaps.out_foo(10)
assert(f.a==10 and i==20)