2025-04-27 07:49:33 -04:00

9020 lines
204 KiB
C++

// Copyright (c) 1999-2001 Microsoft Corporation, All Rights Reserved
#include <windows.h>
#include <snmptempl.h>
#include <snmpmt.h>
#include <typeinfo.h>
#include <process.h>
#include <stdio.h>
#include <snmpcont.h>
#include <snmpevt.h>
#include <snmpthrd.h>
#include <snmplog.h>
#include <genlex.h>
#include <sql_1.h>
#include <tree.h>
#include "dnf.h"
SnmpOrNode :: ~SnmpOrNode ()
{
delete m_Left ;
delete m_Right ;
}
SnmpAndNode :: ~SnmpAndNode ()
{
delete m_Left ;
delete m_Right ;
}
SnmpNotNode :: ~SnmpNotNode ()
{
delete m_Left ;
}
SnmpOperatorEqualNode :: ~SnmpOperatorEqualNode ()
{
delete m_Left ;
}
SnmpOperatorNotEqualNode :: ~SnmpOperatorNotEqualNode ()
{
delete m_Left ;
}
SnmpOperatorEqualOrGreaterNode :: ~SnmpOperatorEqualOrGreaterNode ()
{
delete m_Left ;
}
SnmpOperatorEqualOrLessNode :: ~SnmpOperatorEqualOrLessNode ()
{
delete m_Left ;
}
SnmpOperatorGreaterNode :: ~SnmpOperatorGreaterNode ()
{
delete m_Left ;
}
SnmpOperatorLessNode :: ~SnmpOperatorLessNode ()
{
delete m_Left ;
}
SnmpOperatorLikeNode :: ~SnmpOperatorLikeNode ()
{
delete m_Left ;
}
SnmpOperatorNotLikeNode :: ~SnmpOperatorNotLikeNode ()
{
delete m_Left ;
}
SnmpTreeNode *SnmpOrNode :: Copy ()
{
void *t_DataCopy = m_Data ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_RightCopy = m_Right ? m_Right->Copy () : NULL ;
SnmpTreeNode *t_Node = new SnmpOrNode ( t_LeftCopy , t_RightCopy , t_Parent ) ;
return t_Node ;
} ;
SnmpTreeNode *SnmpAndNode :: Copy ()
{
void *t_DataCopy = m_Data ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_RightCopy = m_Right ? m_Right->Copy () : NULL ;
SnmpTreeNode *t_Node = new SnmpAndNode ( t_LeftCopy , t_RightCopy , t_Parent ) ;
return t_Node ;
} ;
SnmpTreeNode *SnmpNotNode :: Copy ()
{
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpNotNode ( t_LeftCopy , t_Parent ) ;
return t_Node ;
} ;
SnmpTreeNode *SnmpOperatorEqualNode :: Copy ()
{
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpOperatorEqualNode ( t_LeftCopy , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpOperatorNotEqualNode :: Copy ()
{
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpOperatorNotEqualNode ( t_LeftCopy , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpOperatorEqualOrGreaterNode :: Copy ()
{
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpOperatorEqualOrGreaterNode ( t_LeftCopy , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpOperatorEqualOrLessNode :: Copy ()
{
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpOperatorEqualOrLessNode ( t_LeftCopy , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpOperatorGreaterNode :: Copy ()
{
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpOperatorGreaterNode ( t_LeftCopy , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpOperatorLessNode :: Copy ()
{
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpOperatorLessNode ( t_LeftCopy , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpOperatorLikeNode :: Copy ()
{
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpOperatorLikeNode ( t_LeftCopy , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpOperatorNotLikeNode :: Copy ()
{
SnmpTreeNode *t_LeftCopy = m_Left ? m_Left->Copy () : NULL ;
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpOperatorNotLikeNode ( t_LeftCopy , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpSignedIntegerNode :: Copy ()
{
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpSignedIntegerNode ( m_PropertyName , m_Integer , m_Index , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpUnsignedIntegerNode :: Copy ()
{
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpUnsignedIntegerNode ( m_PropertyName , m_Integer , m_Index , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpStringNode :: Copy ()
{
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpStringNode ( m_PropertyName , m_String , m_PropertyFunction , m_ConstantFunction , m_Index , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpNullNode :: Copy ()
{
SnmpTreeNode *t_Parent = m_Parent ;
SnmpTreeNode *t_Node = new SnmpNullNode ( m_PropertyName , m_Index , t_Parent ) ;
return t_Node ;
}
SnmpTreeNode *SnmpSignedIntegerRangeNode :: Copy ()
{
SnmpTreeNode *t_Node = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
m_InfiniteLowerBound ,
m_InfiniteUpperBound ,
m_LowerBoundClosed ,
m_UpperBoundClosed ,
m_LowerBound ,
m_UpperBound ,
NULL ,
NULL
) ;
return t_Node ;
}
SnmpTreeNode *SnmpUnsignedIntegerRangeNode :: Copy ()
{
SnmpTreeNode *t_Node = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
m_InfiniteLowerBound ,
m_InfiniteUpperBound ,
m_LowerBoundClosed ,
m_UpperBoundClosed ,
m_LowerBound ,
m_UpperBound ,
NULL ,
NULL
) ;
return t_Node ;
}
SnmpTreeNode *SnmpStringRangeNode :: Copy ()
{
SnmpTreeNode *t_Node = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
m_InfiniteLowerBound ,
m_InfiniteUpperBound ,
m_LowerBoundClosed ,
m_UpperBoundClosed ,
m_LowerBound ,
m_UpperBound ,
NULL ,
NULL
) ;
return t_Node ;
}
SnmpTreeNode *SnmpNullRangeNode :: Copy ()
{
SnmpTreeNode *t_Node = new SnmpNullRangeNode ( m_PropertyName , m_Index , NULL , NULL ) ;
return t_Node ;
}
void SnmpOrNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ) "
) ;
)
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" Or "
) ;
)
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( "
) ;
)
if ( GetRight () )
GetRight ()->Print () ;
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ) "
) ;
)
}
void SnmpAndNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ) "
) ;
)
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" And "
) ;
)
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( "
) ;
)
if ( GetRight () )
GetRight ()->Print () ;
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ) "
) ;
)
}
void SnmpNotNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L"Not"
) ;
)
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ) "
) ;
)
}
void SnmpOperatorEqualNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" = "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
}
void SnmpOperatorNotEqualNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" != "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
}
void SnmpOperatorEqualOrGreaterNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" >= "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
}
void SnmpOperatorEqualOrLessNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" <= "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
}
void SnmpOperatorLessNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" < "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
}
void SnmpOperatorGreaterNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" > "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
}
void SnmpOperatorLikeNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" Like "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
}
void SnmpOperatorNotLikeNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" NotLike "
) ;
)
if ( GetLeft () )
GetLeft ()->Print () ;
}
void SnmpStringNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( %s , %s ) " ,
GetPropertyName () ,
GetValue ()
) ;
)
}
void SnmpUnsignedIntegerNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( %s , %ld ) " ,
GetPropertyName () ,
GetValue ()
) ;
)
}
void SnmpSignedIntegerNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( %s , %d ) " ,
GetPropertyName () ,
GetValue ()
) ;
)
}
void SnmpNullNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( %s , NULL ) " ,
GetPropertyName ()
) ;
)
}
void SnmpStringRangeNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( %s , %s , %s , %s , %s , %s , %s ) " ,
GetPropertyName () ,
m_InfiniteLowerBound ? L"Infinite" : L"Finite",
m_InfiniteUpperBound ? L"Infinite" : L"Finite",
m_LowerBoundClosed ? L"Closed" : L"Open" ,
m_UpperBoundClosed ? L"Closed" : L"Open",
m_InfiniteLowerBound ? L"" : m_LowerBound ,
m_InfiniteUpperBound ? L"" : m_UpperBound
) ;
)
}
void SnmpUnsignedIntegerRangeNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( %s , %s , %s , %s , %s , %lu , %lu ) " ,
GetPropertyName () ,
m_InfiniteLowerBound ? L"Infinite" : L"Finite",
m_InfiniteUpperBound ? L"Infinite" : L"Finite",
m_LowerBoundClosed ? L"Closed" : L"Open" ,
m_UpperBoundClosed ? L"Closed" : L"Open",
m_InfiniteLowerBound ? 0 : m_LowerBound ,
m_InfiniteUpperBound ? 0 : m_UpperBound
) ;
)
}
void SnmpSignedIntegerRangeNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( %s , %s , %s , %s , %s , %ld , %ld ) " ,
GetPropertyName () ,
m_InfiniteLowerBound ? L"Infinite" : L"Finite",
m_InfiniteUpperBound ? L"Infinite" : L"Finite",
m_LowerBoundClosed ? L"Closed" : L"Open" ,
m_UpperBoundClosed ? L"Closed" : L"Open",
m_InfiniteLowerBound ? 0 : m_LowerBound ,
m_InfiniteUpperBound ? 0 : m_UpperBound
) ;
)
}
void SnmpNullRangeNode :: Print ()
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
L" ( %s , NULL ) " ,
GetPropertyName ()
) ;
)
}
BOOL CompareUnsignedIntegerLess (
ULONG X ,
LONG X_INFINITE ,
ULONG Y ,
LONG Y_INFINITE
)
{
if ( X_INFINITE < 0 )
{
if ( Y_INFINITE < 0 )
{
return FALSE ;
}
else if ( Y_INFINITE == 0 )
{
return TRUE ;
}
else
{
return TRUE ;
}
}
else if ( X_INFINITE == 0 )
{
if ( Y_INFINITE < 0 )
{
return FALSE ;
}
else if ( Y_INFINITE == 0 )
{
return X < Y ;
}
else
{
return TRUE ;
}
}
else
{
return FALSE ;
}
}
BOOL CompareUnsignedIntegerGreater (
ULONG X ,
LONG X_INFINITE ,
ULONG Y ,
LONG Y_INFINITE
)
{
if ( X_INFINITE < 0 )
{
return FALSE ;
}
else if ( X_INFINITE == 0 )
{
if ( Y_INFINITE < 0 )
{
return TRUE ;
}
else if ( Y_INFINITE == 0 )
{
return X > Y ;
}
else
{
return FALSE ;
}
}
else
{
if ( Y_INFINITE < 0 )
{
return TRUE ;
}
else if ( Y_INFINITE == 0 )
{
return TRUE ;
}
else
{
return FALSE ;
}
}
}
BOOL CompareUnsignedIntegerEqual (
ULONG X ,
LONG X_INFINITE ,
ULONG Y ,
LONG Y_INFINITE
)
{
if ( X_INFINITE < 0 && Y_INFINITE < 0 )
{
return TRUE ;
}
else if ( X_INFINITE == 0 && Y_INFINITE == 0 )
{
return X == Y ;
}
else if ( X_INFINITE > 0 && Y_INFINITE > 0 )
{
return TRUE ;
}
else
{
return FALSE ;
}
}
BOOL CompareSignedIntegerLess (
LONG X ,
LONG X_INFINITE ,
LONG Y ,
LONG Y_INFINITE
)
{
if ( X_INFINITE < 0 )
{
if ( Y_INFINITE < 0 )
{
return FALSE ;
}
else if ( Y_INFINITE == 0 )
{
return TRUE ;
}
else
{
return TRUE ;
}
}
else if ( X_INFINITE == 0 )
{
if ( Y_INFINITE < 0 )
{
return FALSE ;
}
else if ( Y_INFINITE == 0 )
{
return X < Y ;
}
else
{
return TRUE ;
}
}
else
{
return FALSE ;
}
}
BOOL CompareSignedIntegerGreater (
LONG X ,
LONG X_INFINITE ,
LONG Y ,
LONG Y_INFINITE
)
{
if ( X_INFINITE < 0 )
{
return FALSE ;
}
else if ( X_INFINITE == 0 )
{
if ( Y_INFINITE < 0 )
{
return TRUE ;
}
else if ( Y_INFINITE == 0 )
{
return X > Y ;
}
else
{
return FALSE ;
}
}
else
{
if ( Y_INFINITE < 0 )
{
return TRUE ;
}
else if ( Y_INFINITE == 0 )
{
return TRUE ;
}
else
{
return FALSE ;
}
}
}
BOOL CompareSignedIntegerEqual (
LONG X ,
LONG X_INFINITE ,
LONG Y ,
LONG Y_INFINITE
)
{
if ( X_INFINITE < 0 && Y_INFINITE < 0 )
{
return TRUE ;
}
else if ( X_INFINITE == 0 && Y_INFINITE == 0 )
{
return X == Y ;
}
else if ( X_INFINITE > 0 && Y_INFINITE > 0 )
{
return TRUE ;
}
else
{
return FALSE ;
}
}
BOOL CompareStringLess (
BSTR X ,
LONG X_INFINITE ,
BSTR Y ,
LONG Y_INFINITE
)
{
if ( X_INFINITE < 0 )
{
if ( Y_INFINITE < 0 )
{
return FALSE ;
}
else if ( Y_INFINITE == 0 )
{
return TRUE ;
}
else
{
return TRUE ;
}
}
else if ( X_INFINITE == 0 )
{
if ( Y_INFINITE < 0 )
{
return FALSE ;
}
else if ( Y_INFINITE == 0 )
{
return wcscmp ( X , Y ) < 0 ;
}
else
{
return TRUE ;
}
}
else
{
return FALSE ;
}
}
BOOL CompareStringGreater (
BSTR X ,
LONG X_INFINITE ,
BSTR Y ,
LONG Y_INFINITE
)
{
if ( X_INFINITE < 0 )
{
return FALSE ;
}
else if ( X_INFINITE == 0 )
{
if ( Y_INFINITE < 0 )
{
return TRUE ;
}
else if ( Y_INFINITE == 0 )
{
return wcscmp ( X , Y ) > 0 ;
}
else
{
return FALSE ;
}
}
else
{
if ( Y_INFINITE < 0 )
{
return TRUE ;
}
else if ( Y_INFINITE == 0 )
{
return TRUE ;
}
else
{
return FALSE ;
}
}
}
BOOL CompareStringEqual (
BSTR X ,
LONG X_INFINITE ,
BSTR Y ,
LONG Y_INFINITE
)
{
if ( X_INFINITE < 0 && Y_INFINITE < 0 )
{
return TRUE ;
}
else if ( X_INFINITE == 0 && Y_INFINITE == 0 )
{
return wcscmp ( X , Y ) == 0 ;
}
else if ( X_INFINITE > 0 && Y_INFINITE > 0 )
{
return TRUE ;
}
else
{
return FALSE ;
}
}
BOOL CompareLessRangeNode (
SnmpRangeNode *a_LeftRange ,
SnmpRangeNode *a_RightRange
)
{
LONG t_State = 0 ;
if ( typeid ( *a_LeftRange ) == typeid ( SnmpStringRangeNode ) && typeid ( *a_RightRange ) == typeid ( SnmpStringRangeNode ) )
{
SnmpStringRangeNode *t_LeftString = ( SnmpStringRangeNode * ) a_LeftRange ;
SnmpStringRangeNode *t_RightString = ( SnmpStringRangeNode * ) a_RightRange ;
t_State = CompareStringLess (
t_LeftString->LowerBound () ,
t_LeftString->InfiniteLowerBound () ,
t_RightString->LowerBound () ,
t_RightString->InfiniteLowerBound ()
) ;
}
else if ( typeid ( *a_LeftRange ) == typeid ( SnmpSignedIntegerRangeNode ) && typeid ( *a_RightRange ) == typeid ( SnmpSignedIntegerRangeNode ) )
{
SnmpSignedIntegerRangeNode *t_LeftInteger = ( SnmpSignedIntegerRangeNode * ) a_LeftRange ;
SnmpSignedIntegerRangeNode *t_RightInteger = ( SnmpSignedIntegerRangeNode * ) a_RightRange ;
t_State = CompareSignedIntegerLess (
t_LeftInteger->LowerBound () ,
t_LeftInteger->InfiniteLowerBound () ,
t_RightInteger->LowerBound () ,
t_RightInteger->InfiniteLowerBound ()
) ;
}
else if ( typeid ( *a_LeftRange ) == typeid ( SnmpUnsignedIntegerRangeNode ) && typeid ( *a_RightRange ) == typeid ( SnmpUnsignedIntegerRangeNode ) )
{
SnmpUnsignedIntegerRangeNode *t_LeftInteger = ( SnmpUnsignedIntegerRangeNode * ) a_LeftRange ;
SnmpUnsignedIntegerRangeNode *t_RightInteger = ( SnmpUnsignedIntegerRangeNode * ) a_RightRange ;
t_State = CompareUnsignedIntegerLess (
t_LeftInteger->LowerBound () ,
t_LeftInteger->InfiniteLowerBound () ,
t_RightInteger->LowerBound () ,
t_RightInteger->InfiniteLowerBound ()
) ;
}
else if ( typeid ( *a_LeftRange ) == typeid ( SnmpNullRangeNode ) && typeid ( *a_RightRange ) == typeid ( SnmpNullRangeNode ) )
{
t_State = TRUE ;
}
else
{
}
return t_State ;
}
BOOL SnmpUnsignedIntegerRangeNode :: GetIntersectingRange (
SnmpUnsignedIntegerRangeNode &a_UnsignedInteger ,
SnmpUnsignedIntegerRangeNode *&a_Intersection
)
{
// A weak ( open ) relationship is ( < , > )
// A strong ( closed ) relationship is ( == , <= , >= )
a_Intersection = NULL ;
ULONG X_S = m_LowerBound ;
ULONG X_E = m_UpperBound ;
ULONG Y_S = a_UnsignedInteger.m_LowerBound ;
ULONG Y_E = a_UnsignedInteger.m_UpperBound ;
BOOL X_S_CLOSED = m_LowerBoundClosed ;
BOOL X_E_CLOSED = m_UpperBoundClosed ;
BOOL Y_S_CLOSED = a_UnsignedInteger.m_LowerBoundClosed ;
BOOL Y_E_CLOSED = a_UnsignedInteger.m_UpperBoundClosed ;
BOOL X_S_INFINITE = m_InfiniteLowerBound ;
BOOL X_E_INFINITE = m_InfiniteUpperBound ;
BOOL Y_S_INFINITE = a_UnsignedInteger.m_InfiniteLowerBound ;
BOOL Y_E_INFINITE = a_UnsignedInteger.m_InfiniteUpperBound ;
if ( CompareUnsignedIntegerLess ( X_S , X_S_INFINITE ? - 1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S < Y_S )
{
if ( CompareUnsignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S < X_E == Y_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED && Y_E_CLOSED , // Check for weak relationship ( < , > )
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_S < Y_E < X_E )
// Range ( Y_S , Y_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( Y_S_CLOSED && X_E_CLOSED )
{
// Order ( X_S < Y_S == X_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else
{
// Empty set
}
}
else if ( CompareUnsignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Order ( X_S < Y_S , X_E < Y_S )
// Non overlapping regions therefore empty set
}
}
else if ( CompareUnsignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S == Y_S )
{
if ( CompareUnsignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S < X_E == Y_E )
// Range ( X_S , X_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S == Y_S < Y_E < X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( Y_S_CLOSED && X_E_CLOSED )
{
// Order ( X_S == Y_S == X_E )
// Range ( Y_S , Y_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else
{
// Empty set
}
}
else if ( CompareUnsignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Can never happen
}
}
else if ( CompareUnsignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S > Y_S )
{
if ( CompareUnsignedIntegerLess ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S < Y_E )
{
if ( CompareUnsignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Order ( Y_S < X_S < Y_E < X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S < Y_E == X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S < X_E < Y_E )
// Range ( X_S , X_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S == Y_E ), Start of X and End Of Y overlap
{
if ( X_S_CLOSED && Y_E_CLOSED )
{
// Order ( Y_S < X_S == X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
else
{
// Empty set
}
}
else if ( CompareUnsignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S > Y_E )
{
// Empty
}
}
BOOL t_Status = a_Intersection ? TRUE : FALSE ;
return t_Status ;
}
BOOL SnmpSignedIntegerRangeNode :: GetIntersectingRange (
SnmpSignedIntegerRangeNode &a_SignedInteger ,
SnmpSignedIntegerRangeNode *&a_Intersection
)
{
// A weak ( open ) relationship is ( < , > )
// A strong ( closed ) relationship is ( == , <= , >= )
a_Intersection = NULL ;
LONG X_S = m_LowerBound ;
LONG X_E = m_UpperBound ;
LONG Y_S = a_SignedInteger.m_LowerBound ;
LONG Y_E = a_SignedInteger.m_UpperBound ;
BOOL X_S_CLOSED = m_LowerBoundClosed ;
BOOL X_E_CLOSED = m_UpperBoundClosed ;
BOOL Y_S_CLOSED = a_SignedInteger.m_LowerBoundClosed ;
BOOL Y_E_CLOSED = a_SignedInteger.m_UpperBoundClosed ;
BOOL X_S_INFINITE = m_InfiniteLowerBound ;
BOOL X_E_INFINITE = m_InfiniteUpperBound ;
BOOL Y_S_INFINITE = a_SignedInteger.m_InfiniteLowerBound ;
BOOL Y_E_INFINITE = a_SignedInteger.m_InfiniteUpperBound ;
if ( CompareSignedIntegerLess ( X_S , X_S_INFINITE ? - 1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S < Y_S )
{
if ( CompareSignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S < X_E == Y_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED && Y_E_CLOSED , // Check for weak relationship ( < , > )
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_S < Y_E < X_E )
// Range ( Y_S , Y_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( Y_S_CLOSED && X_E_CLOSED )
{
// Order ( X_S < Y_S == X_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else
{
// Empty set
}
}
else if ( CompareSignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Order ( X_S < Y_S , X_E < Y_S )
// Non overlapping regions therefore empty set
}
}
else if ( CompareSignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S == Y_S )
{
if ( CompareSignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S < X_E == Y_E )
// Range ( X_S , X_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S == Y_S < Y_E < X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( Y_S_CLOSED && X_E_CLOSED )
{
// Order ( X_S == Y_S == X_E )
// Range ( Y_S , Y_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else
{
// Empty set
}
}
else if ( CompareSignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > Y_E )
{
// Can never happen
}
}
else if ( CompareSignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S > Y_S )
{
if ( CompareSignedIntegerLess ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S < Y_E )
{
if ( CompareSignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Order ( Y_S < X_S < Y_E < X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S < Y_E == X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S < X_E < Y_E )
// Range ( X_S , X_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S == Y_E ), Start of X and End Of Y overlap
{
if ( X_S_CLOSED && Y_E_CLOSED )
{
// Order ( Y_S < X_S == X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
else
{
// Empty set
}
}
else if ( CompareSignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S > Y_E )
{
// Empty
}
}
BOOL t_Status = a_Intersection ? TRUE : FALSE ;
return t_Status ;
}
BOOL SnmpStringRangeNode :: GetIntersectingRange (
SnmpStringRangeNode &a_String ,
SnmpStringRangeNode *&a_Intersection
)
{
// A weak ( open ) relationship is ( < , > )
// A strong ( closed ) relationship is ( == , <= , >= )
a_Intersection = NULL ;
BSTR X_S = m_LowerBound ;
BSTR X_E = m_UpperBound ;
BSTR Y_S = a_String.m_LowerBound ;
BSTR Y_E = a_String.m_UpperBound ;
BOOL X_S_CLOSED = m_LowerBoundClosed ;
BOOL X_E_CLOSED = m_UpperBoundClosed ;
BOOL Y_S_CLOSED = a_String.m_LowerBoundClosed ;
BOOL Y_E_CLOSED = a_String.m_UpperBoundClosed ;
BOOL X_S_INFINITE = m_InfiniteLowerBound ;
BOOL X_E_INFINITE = m_InfiniteUpperBound ;
BOOL Y_S_INFINITE = a_String.m_InfiniteLowerBound ;
BOOL Y_E_INFINITE = a_String.m_InfiniteUpperBound ;
if ( CompareStringLess ( X_S , X_S_INFINITE ? - 1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S < Y_S )
{
if ( CompareStringLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S < X_E == Y_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED && Y_E_CLOSED , // Check for weak relationship ( < , > )
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_S < Y_E < X_E )
// Range ( Y_S , Y_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( Y_S_CLOSED && X_E_CLOSED )
{
// Order ( X_S < Y_S == X_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else
{
// Empty set
}
}
else if ( CompareStringGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Order ( X_S < Y_S , X_E < Y_S )
// Non overlapping regions therefore empty set
}
}
else if ( CompareStringEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S == Y_S )
{
if ( CompareStringLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S < X_E == Y_E )
// Range ( X_S , X_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S == Y_S < Y_E < X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( Y_S_CLOSED && X_E_CLOSED )
{
// Order ( X_S == Y_S == X_E )
// Range ( Y_S , Y_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else
{
// Empty set
}
}
else if ( CompareStringGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > Y_E )
{
// Can never happen
}
}
else if ( CompareStringGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S > Y_S )
{
if ( CompareStringLess ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S < Y_E )
{
if ( CompareStringLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Order ( Y_S < X_S < Y_E < X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S < Y_E == X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S < X_E < Y_E )
// Range ( X_S , X_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S == Y_E ), Start of X and End Of Y overlap
{
if ( X_S_CLOSED && Y_E_CLOSED )
{
// Order ( Y_S < X_S == X_E )
// Range ( X_S , Y_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
else
{
// Empty set
}
}
else if ( CompareStringGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S > Y_E )
{
// empty
}
}
BOOL t_Status = a_Intersection ? TRUE : FALSE ;
return t_Status ;
}
BOOL SnmpSignedIntegerRangeNode :: GetNonIntersectingRange (
SnmpSignedIntegerRangeNode &a_SignedInteger ,
SnmpSignedIntegerRangeNode *&a_Before ,
SnmpSignedIntegerRangeNode *&a_Intersection ,
SnmpSignedIntegerRangeNode *&a_After
)
{
// A weak ( open ) relationship is ( < , > )
// A strong ( closed ) relationship is ( == , <= , >= )
a_Before = NULL ;
a_Intersection = NULL ;
a_After = NULL ;
LONG X_S = m_LowerBound ;
LONG X_E = m_UpperBound ;
LONG Y_S = a_SignedInteger.m_LowerBound ;
LONG Y_E = a_SignedInteger.m_UpperBound ;
BOOL X_S_CLOSED = m_LowerBoundClosed ;
BOOL X_E_CLOSED = m_UpperBoundClosed ;
BOOL Y_S_CLOSED = a_SignedInteger.m_LowerBoundClosed ;
BOOL Y_E_CLOSED = a_SignedInteger.m_UpperBoundClosed ;
BOOL X_S_INFINITE = m_InfiniteLowerBound ;
BOOL X_E_INFINITE = m_InfiniteUpperBound ;
BOOL Y_S_INFINITE = a_SignedInteger.m_InfiniteLowerBound ;
BOOL Y_E_INFINITE = a_SignedInteger.m_InfiniteUpperBound ;
if ( CompareSignedIntegerLess ( X_S , X_S_INFINITE ? - 1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S < Y_S )
{
if ( CompareSignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_S_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
! Y_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
Y_E_INFINITE ,
! X_E_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_E ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S < X_E == Y_E )
// Range ( Y_S , X_E )
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_S_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
! Y_S_CLOSED ,
X_S ,
Y_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED && Y_E_CLOSED , // Check for weak relationship ( < , > )
Y_S ,
X_E ,
NULL ,
NULL
) ;
if ( ( X_E_CLOSED && ! Y_E_CLOSED ) || ( ! X_E_CLOSED && Y_E_CLOSED ) )
{
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
X_E_INFINITE ,
TRUE ,
TRUE ,
X_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_S < Y_E < X_E )
// Range ( Y_S , Y_E )
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_S_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
! Y_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_E_INFINITE ,
X_E_INFINITE ,
! Y_E_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S == X_E < Y_E )
if ( X_E_CLOSED && Y_S_CLOSED )
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
FALSE ,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE ,
FALSE ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
X_E_CLOSED,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE ,
Y_S_CLOSED ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S == X_E == Y_E )
if ( X_E_CLOSED )
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
FALSE ,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
X_E_CLOSED,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_S_INFINITE ,
TRUE ,
TRUE,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_E < Y_S == X_E ) Can never happen
}
}
else if ( CompareSignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Order ( X_S < Y_S , X_E < Y_S )
a_Before = ( SnmpSignedIntegerRangeNode * ) ( this->Copy () ) ;
a_After = ( SnmpSignedIntegerRangeNode * ) ( a_SignedInteger.Copy () ) ;
}
}
else if ( CompareSignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S == Y_S )
{
if ( CompareSignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
if ( ( X_S_CLOSED && ! Y_S_CLOSED ) || ( ! X_S_CLOSED && Y_S_CLOSED ) )
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
Y_E_INFINITE ,
! X_E_CLOSED ,
Y_E_CLOSED ,
X_E ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S < X_E == Y_E )
// Range ( X_S , X_E )
if ( ( X_S_CLOSED && ! Y_S_CLOSED ) || ( ! X_S_CLOSED && Y_S_CLOSED ) )
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
X_E ,
NULL ,
NULL
) ;
if ( ( X_E_CLOSED && ! Y_E_CLOSED ) || ( ! X_E_CLOSED && Y_E_CLOSED ) )
{
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
X_E_INFINITE ,
TRUE ,
TRUE ,
X_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S == Y_S < Y_E < X_E )
// Range ( X_S , Y_E )
if ( ( X_S_CLOSED && ! Y_S_CLOSED ) || ( ! X_S_CLOSED && Y_S_CLOSED ) )
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_E_INFINITE ,
X_E_INFINITE ,
! Y_E_CLOSED ,
X_E_CLOSED ,
Y_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S == X_E < Y_E )
if ( Y_S_CLOSED )
{
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE,
FALSE ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE,
FALSE ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S == X_E == Y_E )
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Can never happen
}
}
else if ( CompareSignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Can never happen
}
}
else if ( CompareSignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S > Y_S )
{
if ( CompareSignedIntegerLess ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S < Y_E )
{
if ( CompareSignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Order ( Y_S < X_S < Y_E < X_E )
// Range ( X_S , Y_E )
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_S_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
! X_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_E_INFINITE ,
X_E_INFINITE ,
! Y_E_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S < Y_E == X_E )
// Range ( X_S , Y_E )
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_S_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
! X_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
Y_E ,
NULL ,
NULL
) ;
if ( ( X_E_CLOSED && ! Y_E_CLOSED ) || ( ! X_E_CLOSED && Y_E_CLOSED ) )
{
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
X_E_INFINITE ,
TRUE ,
TRUE ,
X_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S < X_E < Y_E )
// Range ( X_S , X_E )
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_S_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
! X_S_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
Y_E_INFINITE ,
! X_E_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_E ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S == Y_E ), Start of X and End Of Y overlap
{
if ( CompareSignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Can never happen
}
else if ( CompareSignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S == Y_E == X_E )
if ( Y_E_CLOSED )
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
FALSE,
Y_S_CLOSED ,
FALSE,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_E ,
Y_E ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
FALSE ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S == X_E < Y_E )
a_Before = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
FALSE ,
Y_S_CLOSED ,
FALSE ,
Y_S ,
X_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
a_After = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE ,
FALSE ,
Y_E_CLOSED ,
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S > Y_E )
{
a_Before = ( SnmpSignedIntegerRangeNode * ) ( a_SignedInteger.Copy () ) ;
a_After = ( SnmpSignedIntegerRangeNode * ) ( this->Copy () ) ;
}
}
return TRUE ;
}
BOOL SnmpUnsignedIntegerRangeNode :: GetNonIntersectingRange (
SnmpUnsignedIntegerRangeNode &a_UnsignedInteger ,
SnmpUnsignedIntegerRangeNode *&a_Before ,
SnmpUnsignedIntegerRangeNode *&a_Intersection ,
SnmpUnsignedIntegerRangeNode *&a_After
)
{
// A weak ( open ) relationship is ( < , > )
// A strong ( closed ) relationship is ( == , <= , >= )
a_Before = NULL ;
a_Intersection = NULL ;
a_After = NULL ;
ULONG X_S = m_LowerBound ;
ULONG X_E = m_UpperBound ;
ULONG Y_S = a_UnsignedInteger.m_LowerBound ;
ULONG Y_E = a_UnsignedInteger.m_UpperBound ;
BOOL X_S_CLOSED = m_LowerBoundClosed ;
BOOL X_E_CLOSED = m_UpperBoundClosed ;
BOOL Y_S_CLOSED = a_UnsignedInteger.m_LowerBoundClosed ;
BOOL Y_E_CLOSED = a_UnsignedInteger.m_UpperBoundClosed ;
BOOL X_S_INFINITE = m_InfiniteLowerBound ;
BOOL X_E_INFINITE = m_InfiniteUpperBound ;
BOOL Y_S_INFINITE = a_UnsignedInteger.m_InfiniteLowerBound ;
BOOL Y_E_INFINITE = a_UnsignedInteger.m_InfiniteUpperBound ;
if ( CompareUnsignedIntegerLess ( X_S , X_S_INFINITE ? - 1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S < Y_S )
{
if ( CompareUnsignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_S_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
! Y_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
Y_E_INFINITE ,
! X_E_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_E ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S < X_E == Y_E )
// Range ( Y_S , X_E )
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_S_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
! Y_S_CLOSED ,
X_S ,
Y_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED && Y_E_CLOSED , // Check for weak relationship ( < , > )
Y_S ,
X_E ,
NULL ,
NULL
) ;
if ( ( X_E_CLOSED && ! Y_E_CLOSED ) || ( ! X_E_CLOSED && Y_E_CLOSED ) )
{
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
X_E_INFINITE ,
TRUE ,
TRUE ,
X_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_S < Y_E < X_E )
// Range ( Y_S , Y_E )
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_S_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
! Y_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_E_INFINITE ,
X_E_INFINITE ,
! Y_E_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S == X_E < Y_E )
if ( X_E_CLOSED && Y_S_CLOSED )
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
FALSE ,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE ,
FALSE ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
X_E_CLOSED,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE ,
Y_S_CLOSED ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S == X_E == Y_E )
if ( X_E_CLOSED )
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
FALSE ,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
X_E_CLOSED,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_S_INFINITE ,
TRUE ,
TRUE,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_E < Y_S == X_E ) Can never happen
}
}
else if ( CompareUnsignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Order ( X_S < Y_S , X_E < Y_S )
a_Before = ( SnmpUnsignedIntegerRangeNode * ) ( this->Copy () ) ;
a_After = ( SnmpUnsignedIntegerRangeNode * ) ( a_UnsignedInteger.Copy () ) ;
}
}
else if ( CompareUnsignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S == Y_S )
{
if ( CompareUnsignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
if ( ( X_S_CLOSED && ! Y_S_CLOSED ) || ( ! X_S_CLOSED && Y_S_CLOSED ) )
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
Y_E_INFINITE ,
! X_E_CLOSED ,
Y_E_CLOSED ,
X_E ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S < X_E == Y_E )
// Range ( X_S , X_E )
if ( ( X_S_CLOSED && ! Y_S_CLOSED ) || ( ! X_S_CLOSED && Y_S_CLOSED ) )
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
X_E ,
NULL ,
NULL
) ;
if ( ( X_E_CLOSED && ! Y_E_CLOSED ) || ( ! X_E_CLOSED && Y_E_CLOSED ) )
{
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
X_E_INFINITE ,
TRUE ,
TRUE ,
X_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S == Y_S < Y_E < X_E )
// Range ( X_S , Y_E )
if ( ( X_S_CLOSED && ! Y_S_CLOSED ) || ( ! X_S_CLOSED && Y_S_CLOSED ) )
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_E_INFINITE ,
X_E_INFINITE ,
! Y_E_CLOSED ,
X_E_CLOSED ,
Y_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S == X_E < Y_E )
if ( Y_S_CLOSED )
{
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE,
FALSE ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE,
FALSE ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S == X_E == Y_E )
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Can never happen
}
}
else if ( CompareUnsignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Can never happen
}
}
else if ( CompareUnsignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S > Y_S )
{
if ( CompareUnsignedIntegerLess ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S < Y_E )
{
if ( CompareUnsignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Order ( Y_S < X_S < Y_E < X_E )
// Range ( X_S , Y_E )
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_S_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
! X_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_E_INFINITE ,
X_E_INFINITE ,
! Y_E_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S < Y_E == X_E )
// Range ( X_S , Y_E )
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_S_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
! X_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
Y_E ,
NULL ,
NULL
) ;
if ( ( X_E_CLOSED && ! Y_E_CLOSED ) || ( ! X_E_CLOSED && Y_E_CLOSED ) )
{
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
X_E_INFINITE ,
TRUE ,
TRUE ,
X_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S < X_E < Y_E )
// Range ( X_S , X_E )
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_S_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
! X_S_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
Y_E_INFINITE ,
! X_E_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_E ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S == Y_E ), Start of X and End Of Y overlap
{
if ( CompareUnsignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Can never happen
}
else if ( CompareUnsignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S == Y_E == X_E )
if ( Y_E_CLOSED )
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
FALSE,
Y_S_CLOSED ,
FALSE,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_E ,
Y_E ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
FALSE ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S == X_E < Y_E )
a_Before = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
FALSE ,
Y_S_CLOSED ,
FALSE ,
Y_S ,
X_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
a_After = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE ,
FALSE ,
Y_E_CLOSED ,
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S > Y_E )
{
a_Before = ( SnmpUnsignedIntegerRangeNode * ) ( a_UnsignedInteger.Copy () ) ;
a_After = ( SnmpUnsignedIntegerRangeNode * ) ( this->Copy () ) ;
}
}
return TRUE ;
}
BOOL SnmpStringRangeNode :: GetNonIntersectingRange (
SnmpStringRangeNode &a_String ,
SnmpStringRangeNode *&a_Before ,
SnmpStringRangeNode *&a_Intersection ,
SnmpStringRangeNode *&a_After
)
{
// A weak ( open ) relationship is ( < , > )
// A strong ( closed ) relationship is ( == , <= , >= )
a_Before = NULL ;
a_Intersection = NULL ;
a_After = NULL ;
BSTR X_S = m_LowerBound ;
BSTR X_E = m_UpperBound ;
BSTR Y_S = a_String.m_LowerBound ;
BSTR Y_E = a_String.m_UpperBound ;
BOOL X_S_CLOSED = m_LowerBoundClosed ;
BOOL X_E_CLOSED = m_UpperBoundClosed ;
BOOL Y_S_CLOSED = a_String.m_LowerBoundClosed ;
BOOL Y_E_CLOSED = a_String.m_UpperBoundClosed ;
BOOL X_S_INFINITE = m_InfiniteLowerBound ;
BOOL X_E_INFINITE = m_InfiniteUpperBound ;
BOOL Y_S_INFINITE = a_String.m_InfiniteLowerBound ;
BOOL Y_E_INFINITE = a_String.m_InfiniteUpperBound ;
if ( CompareStringLess ( X_S , X_S_INFINITE ? - 1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S < Y_S )
{
if ( CompareStringLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_S_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
! Y_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
Y_E_INFINITE ,
! X_E_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_E ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S < X_E == Y_E )
// Range ( Y_S , X_E )
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_S_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
! Y_S_CLOSED ,
X_S ,
Y_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED && Y_E_CLOSED , // Check for weak relationship ( < , > )
Y_S ,
X_E ,
NULL ,
NULL
) ;
if ( ( X_E_CLOSED && ! Y_E_CLOSED ) || ( ! X_E_CLOSED && Y_E_CLOSED ) )
{
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
X_E_INFINITE ,
TRUE ,
TRUE ,
X_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_S < Y_E < X_E )
// Range ( Y_S , Y_E )
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_S_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
! Y_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_E_INFINITE ,
X_E_INFINITE ,
! Y_E_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S == X_E < Y_E )
if ( X_E_CLOSED && Y_S_CLOSED )
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
FALSE ,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE ,
FALSE ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
X_E_CLOSED,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE ,
Y_S_CLOSED ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S == X_E == Y_E )
if ( X_E_CLOSED )
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
FALSE ,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
FALSE ,
X_S_CLOSED ,
X_E_CLOSED,
X_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_S_INFINITE ,
TRUE ,
TRUE,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_E < Y_S == X_E ) Can never happen
}
}
else if ( CompareStringGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Order ( X_S < Y_S , X_E < Y_S )
a_Before = ( SnmpStringRangeNode * ) ( this->Copy () ) ;
a_After = ( SnmpStringRangeNode * ) ( a_String.Copy () ) ;
}
}
else if ( CompareStringEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S == Y_S )
{
if ( CompareStringLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S < X_E < Y_E )
// Range ( Y_S , X_E )
if ( ( X_S_CLOSED && ! Y_S_CLOSED ) || ( ! X_S_CLOSED && Y_S_CLOSED ) )
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
Y_E_INFINITE ,
! X_E_CLOSED ,
Y_E_CLOSED ,
X_E ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S < X_E == Y_E )
// Range ( X_S , X_E )
if ( ( X_S_CLOSED && ! Y_S_CLOSED ) || ( ! X_S_CLOSED && Y_S_CLOSED ) )
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
X_E ,
NULL ,
NULL
) ;
if ( ( X_E_CLOSED && ! Y_E_CLOSED ) || ( ! X_E_CLOSED && Y_E_CLOSED ) )
{
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
X_E_INFINITE ,
TRUE ,
TRUE ,
X_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S == Y_S < Y_E < X_E )
// Range ( X_S , Y_E )
if ( ( X_S_CLOSED && ! Y_S_CLOSED ) || ( ! X_S_CLOSED && Y_S_CLOSED ) )
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED && Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_E_INFINITE ,
X_E_INFINITE ,
! Y_E_CLOSED ,
X_E_CLOSED ,
Y_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S == X_E < Y_E )
if ( Y_S_CLOSED )
{
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE,
FALSE ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE,
FALSE ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S == X_E == Y_E )
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_S ,
Y_S ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Can never happen
}
}
else if ( CompareStringGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Can never happen
}
}
else if ( CompareStringGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S > Y_S )
{
if ( CompareStringLess ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S < Y_E )
{
if ( CompareStringLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Order ( Y_S < X_S < Y_E < X_E )
// Range ( X_S , Y_E )
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_S_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
! X_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_E_INFINITE ,
X_E_INFINITE ,
! Y_E_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S < Y_E == X_E )
// Range ( X_S , Y_E )
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_S_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
! X_S_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED && X_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
Y_E ,
NULL ,
NULL
) ;
if ( ( X_E_CLOSED && ! Y_E_CLOSED ) || ( ! X_E_CLOSED && Y_E_CLOSED ) )
{
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
X_E_INFINITE ,
TRUE ,
TRUE ,
X_E ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S < X_E < Y_E )
// Range ( X_S , X_E )
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_S_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
! X_S_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_E_INFINITE ,
Y_E_INFINITE ,
! X_E_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_E ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S == Y_E ), Start of X and End Of Y overlap
{
if ( CompareStringLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Can never happen
}
else if ( CompareStringEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S == Y_E == X_E )
if ( Y_E_CLOSED )
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
FALSE,
Y_S_CLOSED ,
FALSE,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
Y_E ,
Y_E ,
NULL ,
NULL
) ;
}
else
{
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
FALSE ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S == X_E < Y_E )
a_Before = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
FALSE ,
Y_S_CLOSED ,
FALSE ,
Y_S ,
X_S ,
NULL ,
NULL
) ;
a_Intersection = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
a_After = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
FALSE ,
Y_E_INFINITE ,
FALSE ,
Y_E_CLOSED ,
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S > Y_E )
{
a_Before = ( SnmpStringRangeNode * ) ( a_String.Copy () ) ;
a_After = ( SnmpStringRangeNode * ) ( this->Copy () ) ;
}
}
return TRUE ;
}
BOOL SnmpSignedIntegerRangeNode :: GetOverlappingRange (
SnmpSignedIntegerRangeNode &a_SignedInteger ,
SnmpSignedIntegerRangeNode *&a_Overlap
)
{
// A weak ( open ) relationship is ( < , > )
// A strong ( closed ) relationship is ( == , <= , >= )
a_Overlap = NULL ;
LONG X_S = m_LowerBound ;
LONG X_E = m_UpperBound ;
LONG Y_S = a_SignedInteger.m_LowerBound ;
LONG Y_E = a_SignedInteger.m_UpperBound ;
BOOL X_S_CLOSED = m_LowerBoundClosed ;
BOOL X_E_CLOSED = m_UpperBoundClosed ;
BOOL Y_S_CLOSED = a_SignedInteger.m_LowerBoundClosed ;
BOOL Y_E_CLOSED = a_SignedInteger.m_UpperBoundClosed ;
BOOL X_S_INFINITE = m_InfiniteLowerBound ;
BOOL X_E_INFINITE = m_InfiniteUpperBound ;
BOOL Y_S_INFINITE = a_SignedInteger.m_InfiniteLowerBound ;
BOOL Y_E_INFINITE = a_SignedInteger.m_InfiniteUpperBound ;
if ( CompareSignedIntegerLess ( X_S , X_S_INFINITE ? - 1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S < Y_S )
{
if ( CompareSignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S < X_E < Y_E )
// Range ( X_S , Y_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S < X_E == Y_E )
// Range ( X_S , X_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED || Y_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_S < Y_E < X_E )
// Range ( X_S , X_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S == X_E < Y_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE,
Y_E_INFINITE ,
X_S_CLOSED ,
Y_E_CLOSED ,
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S == X_E == Y_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE,
X_S_CLOSED ,
X_E_CLOSED || Y_E_CLOSED || Y_S_CLOSED ,
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_E < Y_S == X_E ) Can never happen
}
}
else if ( CompareSignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Order ( X_S < Y_S , X_E < Y_S ) Non overlapping
}
}
else if ( CompareSignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S == Y_S )
{
if ( CompareSignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S < X_E < Y_E )
// Range ( X_S , Y_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S < X_E == Y_E )
// Range ( X_S , Y_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED || Y_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S == Y_S < Y_E < X_E )
// Range ( X_S , X_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareSignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S == X_E < Y_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED || X_E_CLOSED ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S == X_E == Y_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_S_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Can never happen
}
}
else if ( CompareSignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Can never happen
}
}
else if ( CompareSignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S > Y_S )
{
if ( CompareSignedIntegerLess ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S < Y_E )
{
if ( CompareSignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Order ( Y_S < X_S < Y_E < X_E )
// Range ( Y_S , X_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S < Y_E == X_E )
// Range ( Y_S , X_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED || X_E_CLOSED , // Check for weak relationship ( < , > )
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S < X_E < Y_E )
// Range ( Y_S , Y_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S == Y_E ), Start of X and End Of Y overlap
{
if ( CompareSignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Can never happen
}
else if ( CompareSignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S == Y_E == X_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED ,
TRUE ,
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareSignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S == X_E < Y_E )
a_Overlap = new SnmpSignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareSignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S > Y_E )
{
// Order ( Y_S < Y_E < X_S ) Non Overlapping
}
}
BOOL t_Status = a_Overlap ? TRUE : FALSE ;
return t_Status ;
}
BOOL SnmpUnsignedIntegerRangeNode :: GetOverlappingRange (
SnmpUnsignedIntegerRangeNode &a_UnsignedInteger ,
SnmpUnsignedIntegerRangeNode *&a_Overlap
)
{
// A weak ( open ) relationship is ( < , > )
// A strong ( closed ) relationship is ( == , <= , >= )
a_Overlap = NULL ;
ULONG X_S = m_LowerBound ;
ULONG X_E = m_UpperBound ;
ULONG Y_S = a_UnsignedInteger.m_LowerBound ;
ULONG Y_E = a_UnsignedInteger.m_UpperBound ;
BOOL X_S_CLOSED = m_LowerBoundClosed ;
BOOL X_E_CLOSED = m_UpperBoundClosed ;
BOOL Y_S_CLOSED = a_UnsignedInteger.m_LowerBoundClosed ;
BOOL Y_E_CLOSED = a_UnsignedInteger.m_UpperBoundClosed ;
BOOL X_S_INFINITE = m_InfiniteLowerBound ;
BOOL X_E_INFINITE = m_InfiniteUpperBound ;
BOOL Y_S_INFINITE = a_UnsignedInteger.m_InfiniteLowerBound ;
BOOL Y_E_INFINITE = a_UnsignedInteger.m_InfiniteUpperBound ;
if ( CompareUnsignedIntegerLess ( X_S , X_S_INFINITE ? - 1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S < Y_S )
{
if ( CompareUnsignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S < X_E < Y_E )
// Range ( X_S , Y_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S < X_E == Y_E )
// Range ( X_S , X_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED || Y_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_S < Y_E < X_E )
// Range ( X_S , X_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S == X_E < Y_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE,
Y_E_INFINITE ,
X_S_CLOSED ,
Y_E_CLOSED ,
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S == X_E == Y_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE,
X_S_CLOSED ,
X_E_CLOSED || Y_E_CLOSED || Y_S_CLOSED ,
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_E < Y_S == X_E ) Can never happen
}
}
else if ( CompareUnsignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Order ( X_S < Y_S , X_E < Y_S ) Non overlapping
}
}
else if ( CompareUnsignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S == Y_S )
{
if ( CompareUnsignedIntegerLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S < X_E < Y_E )
// Range ( X_S , Y_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S < X_E == Y_E )
// Range ( X_S , Y_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED || Y_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S == Y_S < Y_E < X_E )
// Range ( X_S , X_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareUnsignedIntegerLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S == X_E < Y_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED || X_E_CLOSED ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S == X_E == Y_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_S_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Can never happen
}
}
else if ( CompareUnsignedIntegerGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Can never happen
}
}
else if ( CompareUnsignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S > Y_S )
{
if ( CompareUnsignedIntegerLess ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S < Y_E )
{
if ( CompareUnsignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Order ( Y_S < X_S < Y_E < X_E )
// Range ( Y_S , X_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S < Y_E == X_E )
// Range ( Y_S , X_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED || X_E_CLOSED , // Check for weak relationship ( < , > )
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S < X_E < Y_E )
// Range ( Y_S , Y_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S == Y_E ), Start of X and End Of Y overlap
{
if ( CompareUnsignedIntegerLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Can never happen
}
else if ( CompareUnsignedIntegerEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S == Y_E == X_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED ,
TRUE ,
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareUnsignedIntegerGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S == X_E < Y_E )
a_Overlap = new SnmpUnsignedIntegerRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareUnsignedIntegerGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S > Y_E )
{
// Order ( Y_S < Y_E < X_S ) Non Overlapping
}
}
BOOL t_Status = a_Overlap ? TRUE : FALSE ;
return t_Status ;
}
BOOL SnmpStringRangeNode :: GetOverlappingRange (
SnmpStringRangeNode &a_String ,
SnmpStringRangeNode *&a_Overlap
)
{
// A weak ( open ) relationship is ( < , > )
// A strong ( closed ) relationship is ( == , <= , >= )
a_Overlap = NULL ;
BSTR X_S = m_LowerBound ;
BSTR X_E = m_UpperBound ;
BSTR Y_S = a_String.m_LowerBound ;
BSTR Y_E = a_String.m_UpperBound ;
BOOL X_S_CLOSED = m_LowerBoundClosed ;
BOOL X_E_CLOSED = m_UpperBoundClosed ;
BOOL Y_S_CLOSED = a_String.m_LowerBoundClosed ;
BOOL Y_E_CLOSED = a_String.m_UpperBoundClosed ;
BOOL X_S_INFINITE = m_InfiniteLowerBound ;
BOOL X_E_INFINITE = m_InfiniteUpperBound ;
BOOL Y_S_INFINITE = a_String.m_InfiniteLowerBound ;
BOOL Y_E_INFINITE = a_String.m_InfiniteUpperBound ;
if ( CompareStringLess ( X_S , X_S_INFINITE ? - 1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S < Y_S )
{
if ( CompareStringLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S < X_E < Y_E )
// Range ( X_S , Y_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S < X_E == Y_E )
// Range ( X_S , X_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED || Y_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_S < Y_E < X_E )
// Range ( X_S , X_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S < Y_S == X_E < Y_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE,
Y_E_INFINITE ,
X_S_CLOSED ,
Y_E_CLOSED ,
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S < Y_S == X_E == Y_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE,
X_S_CLOSED ,
X_E_CLOSED || Y_E_CLOSED || Y_S_CLOSED ,
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S < Y_E < Y_S == X_E ) Can never happen
}
}
else if ( CompareStringGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Order ( X_S < Y_S , X_E < Y_S ) Non overlapping
}
}
else if ( CompareStringEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S == Y_S )
{
if ( CompareStringLess ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S < X_E )
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S < X_E < Y_E )
// Range ( X_S , Y_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED , // Check for weak relationship ( < , > )
Y_E_CLOSED , // Relationship is as strong as ordering
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S < X_E == Y_E )
// Range ( X_S , Y_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED || Y_E_CLOSED , // Check for weak relationship ( < , > )
X_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Order ( X_S == Y_S < Y_E < X_E )
// Range ( X_S , X_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED , // Check for weak relationship ( < , > )
X_E_CLOSED , // Relationship is as strong as ordering
X_S ,
X_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S == X_E ), Start of Y and End Of X overlap
{
if ( CompareStringLess ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E < Y_E )
{
// Order ( X_S == Y_S == X_E < Y_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
Y_E_INFINITE ,
X_S_CLOSED || Y_S_CLOSED || X_E_CLOSED ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E == Y_E )
{
// Order ( X_S == Y_S == X_E == Y_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
X_S_INFINITE ,
X_S_INFINITE ,
TRUE ,
TRUE ,
X_S ,
X_S ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( X_E , X_E_INFINITE ? 1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_E > Y_E )
{
// Can never happen
}
}
else if ( CompareStringGreater ( Y_S , Y_S_INFINITE ? -1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_S > X_E )
{
// Can never happen
}
}
else if ( CompareStringGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_S , Y_S_INFINITE ? -1 : 0 ) ) // ( X_S > Y_S )
{
if ( CompareStringLess ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S < Y_E )
{
if ( CompareStringLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Order ( Y_S < X_S < Y_E < X_E )
// Range ( Y_S , X_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
X_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S < Y_E == X_E )
// Range ( Y_S , X_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED || X_E_CLOSED , // Check for weak relationship ( < , > )
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S < X_E < Y_E )
// Range ( Y_S , Y_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED , // Relationship is as strong as ordering
Y_E_CLOSED , // Relationship is as strong as ordering
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringEqual ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S == Y_E ), Start of X and End Of Y overlap
{
if ( CompareStringLess ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E < X_E )
{
// Can never happen
}
else if ( CompareStringEqual ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E == X_E )
{
// Order ( Y_S < X_S == Y_E == X_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
X_E_INFINITE ,
Y_S_CLOSED ,
TRUE ,
Y_S ,
X_E ,
NULL ,
NULL
) ;
}
else if ( CompareStringGreater ( Y_E , Y_E_INFINITE ? 1 : 0 , X_E , X_E_INFINITE ? 1 : 0 ) ) // ( Y_E > X_E )
{
// Order ( Y_S < X_S == X_E < Y_E )
a_Overlap = new SnmpStringRangeNode (
m_PropertyName ,
m_Index ,
Y_S_INFINITE ,
Y_E_INFINITE ,
Y_S_CLOSED ,
Y_E_CLOSED ,
Y_S ,
Y_E ,
NULL ,
NULL
) ;
}
}
else if ( CompareStringGreater ( X_S , X_S_INFINITE ? -1 : 0 , Y_E , Y_E_INFINITE ? 1 : 0 ) ) // ( X_S > Y_E )
{
// Order ( Y_S < Y_E < X_S ) Non Overlapping
}
}
BOOL t_Status = a_Overlap ? TRUE : FALSE ;
return t_Status ;
}
SnmpRangeNode *SnmpOperatorEqualNode :: GetRange ()
{
SnmpRangeNode *t_Range = NULL ;
SnmpTreeNode *t_Value = GetLeft () ;
if ( t_Value )
{
if ( typeid ( *t_Value ) == typeid ( SnmpNullNode ) )
{
SnmpNullNode *t_Null = ( SnmpNullNode * ) t_Value ;
t_Range = new SnmpNullRangeNode (
t_Null->GetPropertyName () ,
t_Null->GetIndex () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpUnsignedIntegerNode ) )
{
SnmpUnsignedIntegerNode *t_Integer = ( SnmpUnsignedIntegerNode * ) t_Value ;
t_Range = new SnmpUnsignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
FALSE ,
FALSE ,
FALSE ,
TRUE ,
t_Integer->GetValue () ,
t_Integer->GetValue () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpSignedIntegerNode ) )
{
SnmpSignedIntegerNode *t_Integer = ( SnmpSignedIntegerNode * ) t_Value ;
t_Range = new SnmpSignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
t_Integer->GetValue () ,
t_Integer->GetValue () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpStringNode ) )
{
SnmpStringNode *t_String = ( SnmpStringNode * ) t_Value ;
if ( t_String->GetPropertyFunction () == SnmpValueNode :: SnmpValueFunction :: Function_None )
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
FALSE ,
FALSE ,
TRUE ,
TRUE ,
t_String->GetValue () ,
t_String->GetValue () ,
NULL ,
NULL
) ;
}
else
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
TRUE ,
FALSE ,
FALSE ,
NULL,
NULL,
NULL ,
NULL
) ;
}
}
else
{
// Can never happen
}
}
return t_Range ;
}
SnmpRangeNode *SnmpOperatorEqualOrGreaterNode :: GetRange ()
{
SnmpRangeNode *t_Range = NULL ;
SnmpTreeNode *t_Value = GetLeft () ;
if ( t_Value )
{
if ( typeid ( *t_Value ) == typeid ( SnmpNullNode ) )
{
SnmpNullNode *t_Null = ( SnmpNullNode * ) t_Value ;
t_Range = new SnmpNullRangeNode (
t_Null->GetPropertyName () ,
t_Null->GetIndex () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpUnsignedIntegerNode ) )
{
SnmpUnsignedIntegerNode *t_Integer = ( SnmpUnsignedIntegerNode * ) t_Value ;
t_Range = new SnmpUnsignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
FALSE ,
TRUE ,
TRUE ,
FALSE ,
t_Integer->GetValue () ,
0 ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpSignedIntegerNode ) )
{
SnmpSignedIntegerNode *t_Integer = ( SnmpSignedIntegerNode * ) t_Value ;
t_Range = new SnmpSignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
FALSE ,
TRUE ,
TRUE ,
FALSE ,
t_Integer->GetValue () ,
0 ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpStringNode ) )
{
SnmpStringNode *t_String = ( SnmpStringNode * ) t_Value ;
if ( t_String->GetPropertyFunction () == SnmpValueNode :: SnmpValueFunction :: Function_None )
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
FALSE ,
TRUE ,
TRUE ,
FALSE ,
t_String->GetValue () ,
NULL ,
NULL ,
NULL
) ;
}
else
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
TRUE ,
FALSE ,
FALSE ,
NULL,
NULL,
NULL ,
NULL
) ;
}
}
else
{
// Can never happen
}
}
return t_Range ;
}
SnmpRangeNode *SnmpOperatorEqualOrLessNode :: GetRange ()
{
SnmpRangeNode *t_Range = NULL ;
SnmpTreeNode *t_Value = GetLeft () ;
if ( t_Value )
{
if ( typeid ( *t_Value ) == typeid ( SnmpNullNode ) )
{
SnmpNullNode *t_Null = ( SnmpNullNode * ) t_Value ;
t_Range = new SnmpNullRangeNode (
t_Null->GetPropertyName () ,
t_Null->GetIndex () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpUnsignedIntegerNode ) )
{
SnmpUnsignedIntegerNode *t_Integer = ( SnmpUnsignedIntegerNode * ) t_Value ;
t_Range = new SnmpUnsignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
TRUE ,
FALSE ,
FALSE ,
TRUE ,
0 ,
t_Integer->GetValue () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpSignedIntegerNode ) )
{
SnmpSignedIntegerNode *t_Integer = ( SnmpSignedIntegerNode * ) t_Value ;
t_Range = new SnmpSignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
TRUE ,
FALSE ,
FALSE ,
TRUE ,
0 ,
t_Integer->GetValue () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpStringNode ) )
{
SnmpStringNode *t_String = ( SnmpStringNode * ) t_Value ;
if ( t_String->GetPropertyFunction () == SnmpValueNode :: SnmpValueFunction :: Function_None )
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
FALSE ,
FALSE ,
TRUE ,
NULL ,
t_String->GetValue () ,
NULL ,
NULL
) ;
}
else
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
TRUE ,
FALSE ,
FALSE ,
NULL,
NULL,
NULL ,
NULL
) ;
}
}
else
{
// Can never happen
}
}
return t_Range ;
}
SnmpRangeNode *SnmpOperatorLessNode :: GetRange ()
{
SnmpRangeNode *t_Range = NULL ;
SnmpTreeNode *t_Value = GetLeft () ;
if ( t_Value )
{
if ( typeid ( *t_Value ) == typeid ( SnmpNullNode ) )
{
SnmpNullNode *t_Null = ( SnmpNullNode * ) t_Value ;
t_Range = new SnmpNullRangeNode (
t_Null->GetPropertyName () ,
t_Null->GetIndex () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpUnsignedIntegerNode ) )
{
SnmpUnsignedIntegerNode *t_Integer = ( SnmpUnsignedIntegerNode * ) t_Value ;
t_Range = new SnmpUnsignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
TRUE ,
FALSE ,
FALSE ,
FALSE ,
0 ,
t_Integer->GetValue () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpSignedIntegerNode ) )
{
SnmpSignedIntegerNode *t_Integer = ( SnmpSignedIntegerNode * ) t_Value ;
t_Range = new SnmpSignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
TRUE ,
FALSE ,
FALSE ,
FALSE ,
0 ,
t_Integer->GetValue () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpStringNode ) )
{
SnmpStringNode *t_String = ( SnmpStringNode * ) t_Value ;
if ( t_String->GetPropertyFunction () == SnmpValueNode :: SnmpValueFunction :: Function_None )
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
FALSE ,
FALSE ,
FALSE ,
NULL ,
t_String->GetValue () ,
NULL ,
NULL
) ;
}
else
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
TRUE ,
FALSE ,
FALSE ,
NULL,
NULL,
NULL ,
NULL
) ;
}
}
else
{
// Can never happen
}
}
return t_Range ;
}
SnmpRangeNode *SnmpOperatorGreaterNode :: GetRange ()
{
SnmpRangeNode *t_Range = NULL ;
SnmpTreeNode *t_Value = GetLeft () ;
if ( t_Value )
{
if ( typeid ( *t_Value ) == typeid ( SnmpNullNode ) )
{
SnmpNullNode *t_Null = ( SnmpNullNode * ) t_Value ;
t_Range = new SnmpNullRangeNode (
t_Null->GetPropertyName () ,
t_Null->GetIndex () ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpUnsignedIntegerNode ) )
{
SnmpUnsignedIntegerNode *t_Integer = ( SnmpUnsignedIntegerNode * ) t_Value ;
t_Range = new SnmpUnsignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
FALSE ,
TRUE ,
FALSE ,
FALSE ,
t_Integer->GetValue () ,
0 ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpSignedIntegerNode ) )
{
SnmpSignedIntegerNode *t_Integer = ( SnmpSignedIntegerNode * ) t_Value ;
t_Range = new SnmpSignedIntegerRangeNode (
t_Integer->GetPropertyName () ,
t_Integer->GetIndex () ,
FALSE ,
TRUE ,
FALSE ,
FALSE ,
t_Integer->GetValue (),
0 ,
NULL ,
NULL
) ;
}
else if ( typeid ( *t_Value ) == typeid ( SnmpStringNode ) )
{
SnmpStringNode *t_String = ( SnmpStringNode * ) t_Value ;
if ( t_String->GetPropertyFunction () == SnmpValueNode :: SnmpValueFunction :: Function_None )
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
FALSE ,
TRUE ,
FALSE ,
FALSE ,
t_String->GetValue () ,
NULL ,
NULL ,
NULL
) ;
}
else
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
TRUE ,
FALSE ,
FALSE ,
NULL,
NULL,
NULL ,
NULL
) ;
}
}
else
{
// Can never happen
}
}
return t_Range ;
}
SnmpRangeNode *SnmpOperatorLikeNode :: GetRange ()
{
SnmpRangeNode *t_Range = NULL ;
SnmpTreeNode *t_Value = GetLeft () ;
if ( t_Value )
{
if ( typeid ( *t_Value ) == typeid ( SnmpNullNode ) )
{
}
else if ( typeid ( *t_Value ) == typeid ( SnmpUnsignedIntegerNode ) )
{
}
else if ( typeid ( *t_Value ) == typeid ( SnmpSignedIntegerNode ) )
{
}
else if ( typeid ( *t_Value ) == typeid ( SnmpStringNode ) )
{
SnmpStringNode *t_String = ( SnmpStringNode * ) t_Value ;
if ( t_String->GetPropertyFunction () == SnmpValueNode :: SnmpValueFunction :: Function_None )
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
TRUE ,
FALSE ,
FALSE ,
NULL ,
NULL ,
NULL ,
NULL
) ;
}
else
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
TRUE ,
FALSE ,
FALSE ,
NULL ,
NULL ,
NULL ,
NULL
) ;
}
}
else
{
// Can never happen
}
}
return t_Range ;
}
SnmpRangeNode *SnmpOperatorNotLikeNode :: GetRange ()
{
SnmpRangeNode *t_Range = NULL ;
SnmpTreeNode *t_Value = GetLeft () ;
if ( t_Value )
{
if ( typeid ( *t_Value ) == typeid ( SnmpNullNode ) )
{
}
else if ( typeid ( *t_Value ) == typeid ( SnmpUnsignedIntegerNode ) )
{
}
else if ( typeid ( *t_Value ) == typeid ( SnmpSignedIntegerNode ) )
{
}
else if ( typeid ( *t_Value ) == typeid ( SnmpStringNode ) )
{
SnmpStringNode *t_String = ( SnmpStringNode * ) t_Value ;
if ( t_String->GetPropertyFunction () == SnmpValueNode :: SnmpValueFunction :: Function_None )
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
TRUE ,
FALSE ,
FALSE ,
NULL ,
NULL ,
NULL ,
NULL
) ;
}
else
{
t_Range = new SnmpStringRangeNode (
t_String->GetPropertyName () ,
t_String->GetIndex () ,
TRUE ,
TRUE ,
FALSE ,
FALSE ,
NULL,
NULL,
NULL ,
NULL
) ;
}
}
else
{
// Can never happen
}
}
return t_Range ;
}
BOOL QueryPreprocessor :: RecursiveEvaluate (
SQL_LEVEL_1_RPN_EXPRESSION &a_Expression ,
SnmpTreeNode *a_Parent ,
SnmpTreeNode **a_Node ,
int &a_Index
)
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"RecursiveEvaluate ( int &a_Index )"
) ;
)
BOOL t_Status = FALSE ;
SQL_LEVEL_1_TOKEN *propertyValue = & ( a_Expression.pArrayOfTokens [ a_Index ] ) ;
a_Index -- ;
switch ( propertyValue->nTokenType )
{
case SQL_LEVEL_1_TOKEN :: OP_EXPRESSION:
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"Operation = OP_EXPESSION"
) ;
)
SnmpTreeNode *t_ParentNode = a_Parent ;
SnmpTreeNode **t_Node = a_Node ;
SnmpTreeNode *t_OperatorNode = NULL ;
switch ( propertyValue->nOperator )
{
case SQL_LEVEL_1_TOKEN :: OP_EQUAL:
{
t_OperatorNode = new SnmpOperatorEqualNode ( NULL , t_ParentNode ) ;
}
break ;
case SQL_LEVEL_1_TOKEN :: OP_NOT_EQUAL:
{
t_OperatorNode = new SnmpOperatorNotEqualNode ( NULL , t_ParentNode ) ;
}
break ;
case SQL_LEVEL_1_TOKEN :: OP_EQUALorGREATERTHAN:
{
t_OperatorNode = new SnmpOperatorEqualOrGreaterNode ( NULL , t_ParentNode ) ;
}
break ;
case SQL_LEVEL_1_TOKEN :: OP_EQUALorLESSTHAN:
{
t_OperatorNode = new SnmpOperatorEqualOrLessNode ( NULL , t_ParentNode ) ;
}
break ;
case SQL_LEVEL_1_TOKEN :: OP_LESSTHAN:
{
t_OperatorNode = new SnmpOperatorLessNode ( NULL , t_ParentNode ) ;
}
break ;
case SQL_LEVEL_1_TOKEN :: OP_GREATERTHAN:
{
t_OperatorNode = new SnmpOperatorGreaterNode ( NULL , t_ParentNode ) ;
}
break ;
case SQL_LEVEL_1_TOKEN :: OP_LIKE:
{
t_OperatorNode = new SnmpOperatorLikeNode ( NULL , t_ParentNode ) ;
}
break ;
default:
{
}
break ;
}
if ( t_OperatorNode )
{
*t_Node = t_OperatorNode ;
t_ParentNode = t_OperatorNode ;
(*t_Node)->GetLeft ( t_Node ) ;
t_Status = TRUE ;
}
SnmpValueNode :: SnmpValueFunction t_PropertyFunction = SnmpValueNode :: SnmpValueFunction :: Function_None ;
switch ( propertyValue->dwPropertyFunction )
{
case SQL_LEVEL_1_TOKEN :: IFUNC_UPPER:
{
t_PropertyFunction = SnmpValueNode :: SnmpValueFunction :: Function_Upper ;
}
break ;
case SQL_LEVEL_1_TOKEN :: IFUNC_LOWER:
{
t_PropertyFunction = SnmpValueNode :: SnmpValueFunction :: Function_Lower ;
}
break ;
case SQL_LEVEL_1_TOKEN :: IFUNC_NONE:
default:
{
}
break ;
}
SnmpValueNode :: SnmpValueFunction t_ConstantFunction = SnmpValueNode :: SnmpValueFunction :: Function_None ;
switch ( propertyValue->dwConstFunction )
{
case SQL_LEVEL_1_TOKEN :: IFUNC_UPPER:
{
t_ConstantFunction = SnmpValueNode :: SnmpValueFunction :: Function_Upper ;
}
break ;
case SQL_LEVEL_1_TOKEN :: IFUNC_LOWER:
{
t_ConstantFunction = SnmpValueNode :: SnmpValueFunction :: Function_Lower ;
}
break ;
case SQL_LEVEL_1_TOKEN :: IFUNC_NONE:
default:
{
}
break ;
}
SnmpTreeNode *t_ValueNode = AllocTypeNode (
propertyValue->pPropertyName ,
propertyValue->vConstValue ,
t_PropertyFunction ,
t_ConstantFunction ,
t_ParentNode
) ;
if ( t_ValueNode )
{
*t_Node = t_ValueNode ;
t_Status = TRUE ;
}
else
{
t_Status = FALSE ;
}
}
break ;
case SQL_LEVEL_1_TOKEN :: TOKEN_AND:
{
*a_Node = new SnmpAndNode ( NULL , NULL , a_Parent ) ;
SnmpTreeNode **t_Left = NULL ;
SnmpTreeNode **t_Right = NULL ;
(*a_Node)->GetLeft ( t_Left ) ;
(*a_Node)->GetRight ( t_Right ) ;
t_Status = RecursiveEvaluate ( a_Expression , *a_Node , t_Left , a_Index ) &&
RecursiveEvaluate ( a_Expression , *a_Node , t_Right , a_Index ) ;
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"Operation = TOKEN_AND"
) ;
)
}
break ;
case SQL_LEVEL_1_TOKEN :: TOKEN_OR:
{
*a_Node = new SnmpOrNode ( NULL , NULL , a_Parent ) ;
SnmpTreeNode **t_Left = NULL ;
SnmpTreeNode **t_Right = NULL ;
(*a_Node)->GetLeft ( t_Left ) ;
(*a_Node)->GetRight ( t_Right ) ;
t_Status = RecursiveEvaluate ( a_Expression , *a_Node , t_Left , a_Index ) &&
RecursiveEvaluate ( a_Expression , *a_Node , t_Right , a_Index ) ;
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"Operation = TOKEN_OR"
) ;
)
}
break ;
case SQL_LEVEL_1_TOKEN :: TOKEN_NOT:
{
*a_Node = new SnmpNotNode ( NULL , a_Parent ) ;
SnmpTreeNode **t_Left = NULL ;
(*a_Node)->GetLeft ( t_Left ) ;
t_Status = RecursiveEvaluate ( a_Expression , *a_Node , t_Left , a_Index ) ;
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"Operation = TOKEN_NOT"
) ;
)
}
break ;
}
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"RecursiveEvaluation t_Status = (%lu)" ,
( ULONG ) t_Status
) ;
return t_Status ;
}
BOOL QueryPreprocessor :: Evaluate (
SQL_LEVEL_1_RPN_EXPRESSION &a_Expression ,
SnmpTreeNode **a_Root
)
{
BOOL t_Status = TRUE ;
if ( a_Expression.nNumTokens )
{
int t_Count = a_Expression.nNumTokens - 1 ;
t_Status = RecursiveEvaluate ( a_Expression , NULL , a_Root , t_Count ) ;
}
else
{
}
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"PostEvaluation Status = (%lu)" ,
( ULONG ) t_Status
) ;
)
return t_Status ;
}
void QueryPreprocessor :: PrintTree ( SnmpTreeNode *a_Root )
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"Expression = "
) ;
)
if ( a_Root )
a_Root->Print () ;
}
void QueryPreprocessor :: TransformAndOrExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_AndChild ,
SnmpTreeNode *a_OrChild
)
{
SnmpTreeNode *t_OrLeftChild = a_OrChild->GetLeft () ;
SnmpTreeNode *t_OrRightChild = a_OrChild->GetRight () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_AndChildCopy = a_AndChild->Copy () ;
SnmpTreeNode *t_NewOrNode = new SnmpOrNode ( NULL , NULL , t_Parent ) ;
SnmpTreeNode *t_NewOrNodeLeft = new SnmpAndNode ( a_AndChild , t_OrLeftChild , t_NewOrNode ) ;
SnmpTreeNode *t_NewOrNodeRight = new SnmpAndNode ( t_AndChildCopy , t_OrRightChild , t_NewOrNode ) ;
t_NewOrNode->SetLeft ( t_NewOrNodeLeft ) ;
t_NewOrNode->SetRight ( t_NewOrNodeRight) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewOrNode ) ;
}
else
{
t_Parent->SetRight ( t_NewOrNode ) ;
}
}
a_Node->SetLeft ( NULL ) ;
a_Node->SetRight ( NULL ) ;
a_Node->SetData ( NULL ) ;
a_OrChild->SetLeft ( NULL ) ;
a_OrChild->SetRight ( NULL ) ;
a_OrChild->SetData ( NULL ) ;
delete a_Node ;
delete a_OrChild ;
a_Node = t_NewOrNode ;
}
void QueryPreprocessor :: TransformNotNotExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Leaf = a_Child->GetLeft () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_Leaf ) ;
}
else
{
t_Parent->SetRight ( t_Leaf ) ;
}
}
delete a_Node ;
delete a_Child ;
t_Leaf->SetParent ( t_Parent ) ;
a_Node = t_Leaf ;
}
void QueryPreprocessor :: TransformNotAndExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_AndLeftChild = a_Child->GetLeft () ;
SnmpTreeNode *t_AndRightChild = a_Child->GetRight () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_NewOrNode = new SnmpOrNode ( NULL , NULL , t_Parent ) ;
SnmpTreeNode *t_LeftNot = new SnmpNotNode ( t_AndLeftChild , t_NewOrNode ) ;
SnmpTreeNode *t_RightNot= new SnmpNotNode ( t_AndRightChild , t_NewOrNode ) ;
t_NewOrNode->SetLeft ( t_LeftNot ) ;
t_NewOrNode->SetRight ( t_RightNot ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewOrNode ) ;
}
else
{
t_Parent->SetRight ( t_NewOrNode ) ;
}
}
a_Node->SetLeft ( NULL ) ;
a_Node->SetRight ( NULL ) ;
a_Node->SetData ( NULL ) ;
a_Child->SetLeft ( NULL ) ;
a_Child->SetRight ( NULL ) ;
a_Child->SetData ( NULL ) ;
delete a_Node ;
delete a_Child ;
a_Node = t_NewOrNode ;
}
void QueryPreprocessor :: TransformNotOrExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_OrLeftChild = a_Child->GetLeft () ;
SnmpTreeNode *t_OrRightChild = a_Child->GetRight () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_NewAndNode = new SnmpAndNode ( NULL , NULL , t_Parent ) ;
SnmpTreeNode *t_LeftNot = new SnmpNotNode ( t_OrLeftChild , t_NewAndNode ) ;
SnmpTreeNode *t_RightNot= new SnmpNotNode ( t_OrRightChild , t_NewAndNode ) ;
t_NewAndNode->SetLeft ( t_LeftNot ) ;
t_NewAndNode->SetRight ( t_RightNot ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewAndNode ) ;
}
else
{
t_Parent->SetRight ( t_NewAndNode ) ;
}
}
a_Node->SetLeft ( NULL ) ;
a_Node->SetRight ( NULL ) ;
a_Node->SetData ( NULL ) ;
a_Child->SetLeft ( NULL ) ;
a_Child->SetRight ( NULL ) ;
a_Child->SetData ( NULL ) ;
delete a_Node ;
delete a_Child ;
a_Node = t_NewAndNode ;
}
void QueryPreprocessor :: TransformNotEqualExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *a_CopyLessChild = a_Child->Copy () ;
SnmpTreeNode *a_CopyGreaterChild = a_Child->Copy () ;
SnmpTreeNode *t_NewOrNode = new SnmpOrNode ( NULL , NULL , t_Parent ) ;
SnmpTreeNode *t_LessNode = new SnmpOperatorLessNode ( a_CopyLessChild , t_NewOrNode ) ;
SnmpTreeNode *t_GreatorNode = new SnmpOperatorGreaterNode ( a_CopyGreaterChild , t_NewOrNode ) ;
t_NewOrNode->SetLeft ( t_LessNode ) ;
t_NewOrNode->SetRight ( t_GreatorNode ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewOrNode ) ;
}
else
{
t_Parent->SetRight ( t_NewOrNode ) ;
}
}
delete a_Node ;
a_Node = t_NewOrNode ;
}
void QueryPreprocessor :: TransformNotOperatorEqualExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Leaf = a_Child->GetLeft () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_LeafCopy = t_Leaf->Copy () ;
SnmpTreeNode *t_NewNode = new SnmpOperatorNotEqualNode ( t_LeafCopy , t_Parent ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewNode ) ;
}
else
{
t_Parent->SetRight ( t_NewNode ) ;
}
}
delete a_Node ;
a_Node = t_NewNode ;
}
void QueryPreprocessor :: TransformNotOperatorNotEqualExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Leaf = a_Child->GetLeft () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_LeafCopy = t_Leaf->Copy () ;
SnmpTreeNode *t_NewNode = new SnmpOperatorEqualNode ( t_LeafCopy , t_Parent ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewNode ) ;
}
else
{
t_Parent->SetRight ( t_NewNode ) ;
}
}
delete a_Node ;
a_Node = t_NewNode ;
}
void QueryPreprocessor :: TransformNotOperatorEqualOrGreaterExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Leaf = a_Child->GetLeft () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_LeafCopy = t_Leaf->Copy () ;
SnmpTreeNode *t_NewNode = new SnmpOperatorEqualOrLessNode ( t_LeafCopy , t_Parent ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewNode ) ;
}
else
{
t_Parent->SetRight ( t_NewNode ) ;
}
}
delete a_Node ;
a_Node = t_NewNode ;
}
void QueryPreprocessor :: TransformNotOperatorEqualOrLessExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Leaf = a_Child->GetLeft () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_LeafCopy = t_Leaf->Copy () ;
SnmpTreeNode *t_NewNode = new SnmpOperatorEqualOrGreaterNode ( t_LeafCopy , t_Parent ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewNode ) ;
}
else
{
t_Parent->SetRight ( t_NewNode ) ;
}
}
delete a_Node ;
a_Node = t_NewNode ;
}
void QueryPreprocessor :: TransformNotOperatorGreaterExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Leaf = a_Child->GetLeft () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_LeafCopy = t_Leaf->Copy () ;
SnmpTreeNode *t_NewNode = new SnmpOperatorEqualOrLessNode ( t_LeafCopy , t_Parent ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewNode ) ;
}
else
{
t_Parent->SetRight ( t_NewNode ) ;
}
}
delete a_Node ;
a_Node = t_NewNode ;
}
void QueryPreprocessor :: TransformNotOperatorLessExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Leaf = a_Child->GetLeft () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_LeafCopy = t_Leaf->Copy () ;
SnmpTreeNode *t_NewNode = new SnmpOperatorEqualOrGreaterNode ( t_LeafCopy , t_Parent ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewNode ) ;
}
else
{
t_Parent->SetRight ( t_NewNode ) ;
}
}
delete a_Node ;
a_Node = t_NewNode ;
}
void QueryPreprocessor :: TransformNotOperatorLikeExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Leaf = a_Child->GetLeft () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_LeafCopy = t_Leaf->Copy () ;
SnmpTreeNode *t_NewNode = new SnmpOperatorNotLikeNode ( t_LeafCopy , t_Parent ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewNode ) ;
}
else
{
t_Parent->SetRight ( t_NewNode ) ;
}
}
delete a_Node ;
a_Node = t_NewNode ;
}
void QueryPreprocessor :: TransformNotOperatorNotLikeExpression (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
SnmpTreeNode *t_Leaf = a_Child->GetLeft () ;
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_LeafCopy = t_Leaf->Copy () ;
SnmpTreeNode *t_NewNode = new SnmpOperatorLikeNode ( t_LeafCopy , t_Parent ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewNode ) ;
}
else
{
t_Parent->SetRight ( t_NewNode ) ;
}
}
delete a_Node ;
a_Node = t_NewNode ;
}
BOOL QueryPreprocessor :: EvaluateNotExpression ( SnmpTreeNode *&a_Node )
{
if ( a_Node->GetLeft () )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( typeid ( *t_Left ) == typeid ( SnmpAndNode ) )
{
TransformNotAndExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOrNode ) )
{
TransformNotOrExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpNotNode ) )
{
TransformNotNotExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOperatorEqualNode ) )
{
TransformNotOperatorEqualExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOperatorNotEqualNode ) )
{
TransformNotOperatorNotEqualExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOperatorEqualOrGreaterNode ) )
{
TransformNotOperatorEqualOrGreaterExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOperatorEqualOrLessNode ) )
{
TransformNotOperatorEqualOrLessExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOperatorLessNode ) )
{
TransformNotOperatorLessExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOperatorGreaterNode ) )
{
TransformNotOperatorGreaterExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOperatorLikeNode ) )
{
TransformNotOperatorLikeExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOperatorNotLikeNode ) )
{
TransformNotOperatorNotLikeExpression ( a_Node , t_Left ) ;
return TRUE ;
}
else
{
}
}
return FALSE ;
}
BOOL QueryPreprocessor :: EvaluateNotEqualExpression ( SnmpTreeNode *&a_Node )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
TransformNotEqualExpression ( a_Node , t_Left ) ;
return TRUE ;
}
BOOL QueryPreprocessor :: EvaluateAndExpression ( SnmpTreeNode *&a_Node )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Left )
{
if ( typeid ( *t_Left ) == typeid ( SnmpAndNode ) )
{
}
else if ( typeid ( *t_Left ) == typeid ( SnmpOrNode ) )
{
TransformAndOrExpression ( a_Node , t_Right , t_Left ) ;
return TRUE ;
}
else if ( typeid ( *t_Left ) == typeid ( SnmpNotNode ) )
{
}
else
{
}
}
if ( t_Right )
{
if ( typeid ( *t_Right ) == typeid ( SnmpAndNode ) )
{
}
else if ( typeid ( *t_Right ) == typeid ( SnmpOrNode ) )
{
TransformAndOrExpression ( a_Node , t_Left , t_Right ) ;
return TRUE ;
}
else if ( typeid ( *t_Right ) == typeid ( SnmpNotNode ) )
{
}
else
{
}
}
return FALSE ;
}
BOOL QueryPreprocessor :: EvaluateOrExpression ( SnmpTreeNode *&a_Node )
{
return FALSE ;
}
BOOL QueryPreprocessor :: RecursiveDisjunctiveNormalForm ( SnmpTreeNode *&a_Node )
{
BOOL t_Status = FALSE ;
if ( a_Node )
{
if ( typeid ( *a_Node ) == typeid ( SnmpAndNode ) )
{
if ( EvaluateAndExpression ( a_Node ) )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
t_Status = TRUE ;
}
else
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = RecursiveDisjunctiveNormalForm ( t_Left ) ;
while ( t_Status )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
}
}
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Right )
{
t_Status = RecursiveDisjunctiveNormalForm ( t_Right ) ;
while ( t_Status )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
}
}
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOrNode ) )
{
if ( EvaluateOrExpression ( a_Node ) )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
t_Status = TRUE ;
}
else
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = RecursiveDisjunctiveNormalForm ( t_Left ) ;
while ( t_Status )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
}
}
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Right )
{
t_Status = RecursiveDisjunctiveNormalForm ( t_Right ) ;
while ( t_Status )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
}
}
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpNotNode ) )
{
if ( EvaluateNotExpression ( a_Node ) )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
t_Status = TRUE ;
}
else
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = RecursiveDisjunctiveNormalForm ( t_Left ) ;
while ( t_Status )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
}
}
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorNotEqualNode ) )
{
if ( EvaluateNotEqualExpression ( a_Node ) )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
t_Status = TRUE ;
}
else
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = RecursiveDisjunctiveNormalForm ( t_Left ) ;
while ( t_Status )
{
t_Status = RecursiveDisjunctiveNormalForm ( a_Node ) ;
}
}
}
}
else
{
}
}
return t_Status ;
}
void QueryPreprocessor :: DisjunctiveNormalForm ( SnmpTreeNode *&a_Root )
{
RecursiveDisjunctiveNormalForm ( a_Root ) ;
}
void QueryPreprocessor :: TransformAndTrueEvaluation (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
if ( a_Node->GetLeft () == a_Child )
{
a_Node->SetLeft ( NULL ) ;
}
else
{
a_Node->SetRight ( NULL ) ;
}
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( a_Child ) ;
}
else
{
t_Parent->SetRight ( a_Child ) ;
}
}
a_Child->SetParent ( t_Parent ) ;
delete a_Node ;
a_Node = a_Child ;
}
void QueryPreprocessor :: TransformOrFalseEvaluation (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Child
)
{
if ( a_Node->GetLeft () == a_Child )
{
a_Node->SetLeft ( NULL ) ;
}
else
{
a_Node->SetRight ( NULL ) ;
}
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( a_Child ) ;
}
else
{
t_Parent->SetRight ( a_Child ) ;
}
}
a_Child->SetParent ( t_Parent ) ;
delete a_Node ;
a_Node = a_Child ;
}
void QueryPreprocessor :: TransformOperatorToRange (
SnmpTreeNode *&a_Node
)
{
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpOperatorNode *t_OperatorNode = ( SnmpOperatorNode * ) a_Node ;
SnmpTreeNode *t_Range = t_OperatorNode->GetRange () ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_Range ) ;
}
else
{
t_Parent->SetRight ( t_Range) ;
}
}
t_Range->SetParent ( t_Parent ) ;
delete a_Node ;
a_Node = t_Range ;
}
QueryPreprocessor :: QuadState QueryPreprocessor :: RecursiveRemoveInvariants ( SnmpTreeNode *&a_Node )
{
QueryPreprocessor :: QuadState t_Status = State_Undefined ;
if ( a_Node )
{
if ( typeid ( *a_Node ) == typeid ( SnmpOrNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Left )
{
t_Status = RecursiveRemoveInvariants ( t_Left ) ;
if ( t_Status == State_False )
{
TransformOrFalseEvaluation (
a_Node ,
t_Right
) ;
t_Status = QueryPreprocessor :: QuadState :: State_ReEvaluate ;
return t_Status ;
}
else if ( t_Status == State_True )
{
return t_Status ;
}
else if ( t_Status == State_ReEvaluate )
{
t_Status = RecursiveRemoveInvariants ( a_Node ) ;
return t_Status ;
}
}
if ( t_Right )
{
t_Status = RecursiveRemoveInvariants ( t_Right ) ;
if ( t_Status == State_False )
{
TransformOrFalseEvaluation (
a_Node ,
t_Left
) ;
t_Status = QueryPreprocessor :: QuadState :: State_ReEvaluate ;
return t_Status ;
}
else if ( t_Status == State_True )
{
return t_Status ;
}
else if ( t_Status == State_ReEvaluate )
{
t_Status = RecursiveRemoveInvariants ( a_Node ) ;
return t_Status ;
}
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpAndNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Left )
{
t_Status = RecursiveRemoveInvariants ( t_Left ) ;
if ( t_Status == State_False )
{
return t_Status ;
}
else if ( t_Status == State_True )
{
TransformAndTrueEvaluation (
a_Node ,
t_Right
) ;
t_Status = QueryPreprocessor :: QuadState :: State_ReEvaluate ;
return t_Status ;
}
else if ( t_Status == State_ReEvaluate )
{
t_Status = RecursiveRemoveInvariants ( a_Node ) ;
return t_Status ;
}
}
if ( t_Right )
{
t_Status = RecursiveRemoveInvariants ( t_Right ) ;
if ( t_Status == State_False )
{
return t_Status ;
}
else if ( t_Status == State_True )
{
TransformAndTrueEvaluation (
a_Node ,
t_Left
) ;
t_Status = QueryPreprocessor :: QuadState :: State_ReEvaluate ;
return t_Status ;
}
else if ( t_Status == State_ReEvaluate )
{
t_Status = RecursiveRemoveInvariants ( a_Node ) ;
return t_Status ;
}
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpNotNode ) )
{
// Should never happen, failure in DFN evaluation otherwise
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorEqualNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = InvariantEvaluate (
a_Node ,
t_Left
) ;
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorNotEqualNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = InvariantEvaluate (
a_Node ,
t_Left
) ;
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorEqualOrGreaterNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = InvariantEvaluate (
a_Node ,
t_Left
) ;
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorEqualOrLessNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = InvariantEvaluate (
a_Node ,
t_Left
) ;
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorLessNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = InvariantEvaluate (
a_Node ,
t_Left
) ;
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorGreaterNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = InvariantEvaluate (
a_Node ,
t_Left
) ;
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorLikeNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = InvariantEvaluate (
a_Node ,
t_Left
) ;
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorNotLikeNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = InvariantEvaluate (
a_Node ,
t_Left
) ;
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
return t_Status ;
}
QueryPreprocessor :: QuadState QueryPreprocessor :: RemoveInvariants ( SnmpTreeNode *&a_Root )
{
QuadState t_Status = RecursiveRemoveInvariants ( a_Root ) ;
if ( t_Status == State_ReEvaluate )
{
t_Status = RemoveInvariants ( a_Root ) ;
if ( t_Status == State_False || t_Status == State_True )
{
delete a_Root ;
a_Root = NULL ;
}
}
return t_Status ;
}
BOOL QueryPreprocessor :: RecursiveInsertNode ( SnmpTreeNode *&a_Node , SnmpTreeNode *&a_Insertion )
{
BOOL t_Status = FALSE ;
if ( a_Node )
{
if ( typeid ( *a_Node ) == typeid ( SnmpAndNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = RecursiveInsertNode ( t_Left , a_Insertion ) ;
if ( t_Status == TRUE )
{
return t_Status ;
}
}
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Right )
{
t_Status = RecursiveInsertNode ( t_Right , a_Insertion ) ;
if ( t_Status == TRUE )
{
return t_Status ;
}
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOrNode ) )
{
// Should never happen, failure in DFN evaluation otherwise
}
else if ( typeid ( *a_Node ) == typeid ( SnmpNotNode ) )
{
// Should never happen, failure in DFN evaluation otherwise
}
else
{
// Operator
SnmpValueNode *t_CompareValue = ( SnmpValueNode * ) a_Node->GetLeft () ;
SnmpValueNode *t_InsertionValue = ( SnmpValueNode * ) a_Insertion->GetLeft () ;
LONG t_Compare = t_InsertionValue ->ComparePropertyName ( *t_CompareValue ) ;
if ( t_Compare < 0 )
{
// Insert to left
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
SnmpTreeNode *t_NewAndNode = new SnmpAndNode ( a_Insertion , a_Node , t_Parent ) ;
a_Node->SetParent ( t_NewAndNode ) ;
a_Insertion->SetParent ( t_NewAndNode ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( t_NewAndNode ) ;
}
else
{
t_Parent->SetRight ( t_NewAndNode ) ;
}
}
else
{
// Must have parent !!!!
}
a_Node = t_NewAndNode ;
t_Status = TRUE ;
}
else
{
t_Status = FALSE ;
}
}
}
else
{
a_Node = a_Insertion ;
t_Status = TRUE ;
}
return t_Status ;
}
// Note, linear search to retain 'And', change later for logn search
BOOL QueryPreprocessor :: InsertNode ( SnmpTreeNode *&a_NewRoot , SnmpTreeNode *&a_Insertion )
{
BOOL t_Status = RecursiveInsertNode ( a_NewRoot , a_Insertion ) ;
if ( t_Status == FALSE )
{
// Insert to right
SnmpTreeNode *t_Parent = a_NewRoot->GetParent () ;
SnmpTreeNode *t_NewAndNode = new SnmpAndNode ( a_NewRoot , a_Insertion , t_Parent ) ;
a_NewRoot->SetParent ( t_NewAndNode ) ;
a_Insertion->SetParent ( t_NewAndNode ) ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_NewRoot )
{
t_Parent->SetLeft ( t_NewAndNode ) ;
}
else
{
t_Parent->SetRight ( t_NewAndNode ) ;
}
}
else
{
// Must have parent !!!!
}
a_NewRoot = t_NewAndNode ;
}
return TRUE ;
}
BOOL QueryPreprocessor :: RecursiveSortConditionals ( SnmpTreeNode *&a_NewRoot , SnmpTreeNode *&a_Node )
{
BOOL t_Status = FALSE ;
if ( a_Node )
{
if ( typeid ( *a_Node ) == typeid ( SnmpAndNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Left )
{
t_Status = RecursiveSortConditionals ( a_NewRoot , t_Left ) ;
a_Node->SetLeft ( NULL ) ;
delete t_Left ;
}
if ( t_Right )
{
t_Status = RecursiveSortConditionals ( a_NewRoot , t_Right ) ;
a_Node->SetRight ( NULL ) ;
delete t_Right ;
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOrNode ) )
{
// Should never happen, failure in DFN evaluation otherwise
}
else if ( typeid ( *a_Node ) == typeid ( SnmpNotNode ) )
{
// Should never happen, failure in DFN evaluation otherwise
}
else
{
// Operator
SnmpTreeNode *t_Parent = a_Node->GetParent () ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Node )
{
t_Parent->SetLeft ( NULL ) ;
}
else
{
t_Parent->SetRight ( NULL ) ;
}
}
a_Node->SetParent ( NULL ) ;
t_Status = InsertNode ( a_NewRoot , a_Node ) ;
a_Node = NULL ;
}
}
return t_Status ;
}
BOOL QueryPreprocessor :: SortConditionals ( SnmpTreeNode *&a_Root )
{
SnmpTreeNode *t_NewRoot = NULL ;
BOOL t_Status = RecursiveSortConditionals ( t_NewRoot , a_Root ) ;
SnmpTreeNode *t_Parent = a_Root->GetParent () ;
if ( t_Parent )
{
if ( t_Parent->GetLeft () == a_Root )
{
t_Parent->SetLeft ( t_NewRoot ) ;
}
else
{
t_Parent->SetRight ( t_NewRoot ) ;
}
}
t_NewRoot->SetParent ( t_Parent ) ;
delete a_Root ;
a_Root = t_NewRoot ;
return t_Status ;
}
BOOL QueryPreprocessor :: RecursiveSort ( SnmpTreeNode *&a_Node )
{
BOOL t_Status = FALSE ;
if ( a_Node )
{
if ( typeid ( *a_Node ) == typeid ( SnmpOrNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Left )
{
t_Status = RecursiveSort ( t_Left ) ;
}
if ( t_Right )
{
t_Status = RecursiveSort ( t_Right ) ;
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpAndNode ) )
{
t_Status = SortConditionals ( a_Node ) ;
}
else if ( typeid ( *a_Node ) == typeid ( SnmpNotNode ) )
{
// Should never happen, failure in DFN evaluation otherwise
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
return t_Status ;
}
BOOL QueryPreprocessor :: Sort ( SnmpTreeNode *&a_Root )
{
BOOL t_Status = RecursiveSort ( a_Root ) ;
return t_Status ;
}
BOOL QueryPreprocessor :: RecursiveConvertToRanges ( SnmpTreeNode *&a_Node )
{
BOOL t_Status = TRUE ;
if ( a_Node )
{
if ( typeid ( *a_Node ) == typeid ( SnmpOrNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Left )
{
t_Status = RecursiveConvertToRanges ( t_Left ) ;
}
if ( t_Right )
{
t_Status = RecursiveConvertToRanges ( t_Right ) ;
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpAndNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Left )
{
t_Status = RecursiveConvertToRanges ( t_Left ) ;
}
if ( t_Right )
{
t_Status = RecursiveConvertToRanges ( t_Right ) ;
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpNotNode ) )
{
// Should never happen, failure in DFN evaluation otherwise
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorEqualNode ) )
{
TransformOperatorToRange ( a_Node ) ;
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorEqualOrGreaterNode ) )
{
TransformOperatorToRange ( a_Node ) ;
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorEqualOrLessNode ) )
{
TransformOperatorToRange ( a_Node ) ;
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorLessNode ) )
{
TransformOperatorToRange ( a_Node ) ;
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorGreaterNode ) )
{
TransformOperatorToRange ( a_Node ) ;
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorLikeNode ) )
{
TransformOperatorToRange ( a_Node ) ;
}
else if ( typeid ( *a_Node ) == typeid ( SnmpOperatorNotLikeNode ) )
{
TransformOperatorToRange ( a_Node ) ;
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
return t_Status ;
}
BOOL QueryPreprocessor :: ConvertToRanges ( SnmpTreeNode *&a_Root )
{
BOOL t_Status = RecursiveConvertToRanges ( a_Root ) ;
return t_Status ;
}
void QueryPreprocessor :: TransformIntersectingRange (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Compare ,
SnmpTreeNode *a_Intersection
)
{
SnmpTreeNode *t_CompareParent = a_Compare->GetParent () ;
if ( t_CompareParent )
{
if ( t_CompareParent->GetLeft () == a_Compare )
{
t_CompareParent->SetLeft ( a_Intersection ) ;
}
else
{
t_CompareParent->SetRight ( a_Intersection ) ;
}
}
delete a_Compare ;
}
void QueryPreprocessor :: TransformNonIntersectingRange (
SnmpTreeNode *&a_Node ,
SnmpTreeNode *a_Compare
)
{
}
QueryPreprocessor :: QuadState QueryPreprocessor :: RecursiveRemoveNonOverlappingRanges ( SnmpTreeNode *&a_Node , SnmpTreeNode *&a_Compare )
{
QueryPreprocessor :: QuadState t_Status = QueryPreprocessor :: QuadState :: State_Undefined ;
if ( a_Node )
{
if ( typeid ( *a_Node ) == typeid ( SnmpOrNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
a_Compare = NULL ;
t_Status = RecursiveRemoveNonOverlappingRanges ( t_Left , a_Compare ) ;
if ( t_Status == State_False )
{
SnmpTreeNode *t_Right = a_Node->GetRight () ;
TransformOrFalseEvaluation (
a_Node ,
t_Right
) ;
return QueryPreprocessor :: QuadState :: State_ReEvaluate ;
}
else if ( t_Status == State_True )
{
return t_Status ;
}
else if ( t_Status == State_ReEvaluate )
{
t_Status = RecursiveRemoveNonOverlappingRanges ( a_Node , a_Compare ) ;
return t_Status ;
}
}
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Right )
{
a_Compare = NULL ;
t_Status = RecursiveRemoveNonOverlappingRanges ( t_Right , a_Compare ) ;
if ( t_Status == State_False )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
TransformOrFalseEvaluation (
a_Node ,
t_Left
) ;
return QueryPreprocessor :: QuadState :: State_ReEvaluate ;
}
else if ( t_Status == State_True )
{
return t_Status ;
}
else if ( t_Status == State_ReEvaluate )
{
t_Status = RecursiveRemoveNonOverlappingRanges ( a_Node , a_Compare ) ;
return t_Status ;
}
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpAndNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
t_Status = RecursiveRemoveNonOverlappingRanges ( t_Left , a_Compare ) ;
if ( t_Status == State_True )
{
SnmpTreeNode *t_Right = a_Node->GetRight () ;
TransformAndTrueEvaluation (
a_Node ,
t_Right
) ;
return QueryPreprocessor :: QuadState :: State_ReEvaluate ;
}
else if ( t_Status == State_False )
{
return t_Status ;
}
else if ( t_Status == State_ReEvaluate )
{
t_Status = RecursiveRemoveNonOverlappingRanges ( a_Node , a_Compare ) ;
return t_Status ;
}
}
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Right )
{
t_Status = RecursiveRemoveNonOverlappingRanges ( t_Right , a_Compare ) ;
if ( t_Status == State_True )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
TransformAndTrueEvaluation (
a_Node ,
t_Left
) ;
return QueryPreprocessor :: QuadState :: State_ReEvaluate ;
}
else if ( t_Status == State_False )
{
return t_Status ;
}
else if ( t_Status == State_ReEvaluate )
{
t_Status = RecursiveRemoveNonOverlappingRanges ( a_Node , a_Compare ) ;
return t_Status ;
}
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpNullRangeNode ) )
{
SnmpRangeNode *t_Node = ( SnmpRangeNode * ) a_Node ;
if ( a_Compare )
{
SnmpRangeNode *t_Range = ( SnmpRangeNode * ) a_Compare ;
LONG t_Result = t_Node->ComparePropertyName ( *t_Range ) ;
if ( t_Result == 0 )
{
if ( typeid ( *t_Range ) == typeid ( SnmpNullRangeNode ) )
{
SnmpTreeNode *t_Intersection = a_Node->Copy () ;
TransformIntersectingRange (
a_Node ,
a_Compare ,
t_Intersection
) ;
a_Compare = t_Intersection ;
t_Status = QueryPreprocessor :: QuadState :: State_True ;
}
else
{
// Failure, incompatible types
}
}
else
{
a_Compare = a_Node ;
}
}
else
{
a_Compare = a_Node ;
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpStringRangeNode ) )
{
SnmpStringRangeNode *t_Node = ( SnmpStringRangeNode * ) a_Node ;
if ( a_Compare )
{
SnmpRangeNode *t_Range = ( SnmpRangeNode * ) a_Compare ;
LONG t_Result = t_Node->ComparePropertyName ( *t_Range ) ;
if ( t_Result == 0 )
{
if ( typeid ( *t_Range ) == typeid ( SnmpStringRangeNode ) )
{
SnmpStringRangeNode *t_StringRange = ( SnmpStringRangeNode * ) t_Range ;
SnmpStringRangeNode *t_Intersection = NULL ;
BOOL t_Intersected = t_StringRange->GetIntersectingRange (
*t_Node ,
t_Intersection
) ;
if ( t_Intersected )
{
TransformIntersectingRange (
a_Node ,
a_Compare ,
t_Intersection
) ;
a_Compare = t_Intersection ;
t_Status = QueryPreprocessor :: QuadState :: State_True ;
}
else
{
TransformNonIntersectingRange (
a_Node ,
a_Compare
) ;
a_Compare = NULL ;
t_Status = QueryPreprocessor :: QuadState :: State_False ;
}
}
else
{
// Failure, incompatible types
}
}
else
{
a_Compare = a_Node ;
}
}
else
{
a_Compare = a_Node ;
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpUnsignedIntegerRangeNode ) )
{
SnmpUnsignedIntegerRangeNode *t_Node = ( SnmpUnsignedIntegerRangeNode * ) a_Node ;
if ( a_Compare )
{
SnmpRangeNode *t_Range = ( SnmpRangeNode * ) a_Compare ;
LONG t_Result = t_Node->ComparePropertyName ( *t_Range ) ;
if ( t_Result == 0 )
{
if ( typeid ( *t_Range ) == typeid ( SnmpUnsignedIntegerRangeNode ) )
{
SnmpUnsignedIntegerRangeNode *t_IntegerRange = ( SnmpUnsignedIntegerRangeNode * ) t_Range ;
SnmpUnsignedIntegerRangeNode *t_Intersection = NULL ;
BOOL t_Intersected = t_IntegerRange->GetIntersectingRange (
*t_Node ,
t_Intersection
) ;
if ( t_Intersected )
{
TransformIntersectingRange (
a_Node ,
a_Compare ,
t_Intersection
) ;
a_Compare = t_Intersection ;
t_Status = QueryPreprocessor :: QuadState :: State_True ;
}
else
{
TransformNonIntersectingRange (
a_Node ,
a_Compare
) ;
a_Compare = NULL ;
t_Status = QueryPreprocessor :: QuadState :: State_False ;
}
}
else
{
// Failure, incompatible types
}
}
else
{
a_Compare = a_Node ;
}
}
else
{
a_Compare = a_Node ;
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpSignedIntegerRangeNode ) )
{
SnmpSignedIntegerRangeNode *t_Node = ( SnmpSignedIntegerRangeNode * ) a_Node ;
if ( a_Compare )
{
SnmpRangeNode *t_Range = ( SnmpRangeNode * ) a_Compare ;
LONG t_Result = t_Node->ComparePropertyName ( *t_Range ) ;
if ( t_Result == 0 )
{
if ( typeid ( *t_Range ) == typeid ( SnmpSignedIntegerRangeNode ) )
{
SnmpSignedIntegerRangeNode *t_IntegerRange = ( SnmpSignedIntegerRangeNode * ) t_Range ;
SnmpSignedIntegerRangeNode *t_Intersection = NULL ;
BOOL t_Intersected = t_IntegerRange->GetIntersectingRange (
*t_Node ,
t_Intersection
) ;
if ( t_Intersected )
{
TransformIntersectingRange (
a_Node ,
a_Compare ,
t_Intersection
) ;
a_Compare = t_Intersection ;
t_Status = QueryPreprocessor :: QuadState :: State_True ;
}
else
{
TransformNonIntersectingRange (
a_Node ,
a_Compare
) ;
a_Compare = NULL ;
t_Status = QueryPreprocessor :: QuadState :: State_False ;
}
}
else
{
// Failure, incompatible types
}
}
else
{
a_Compare = a_Node ;
}
}
else
{
a_Compare = a_Node ;
}
}
else
{
// Should never happen, failure in DFN evaluation otherwise
}
}
return t_Status ;
}
QueryPreprocessor :: QuadState QueryPreprocessor :: RemoveNonOverlappingRanges ( SnmpTreeNode *&a_Root )
{
SnmpTreeNode *t_Compare = NULL ;
QueryPreprocessor :: QuadState t_Status = RecursiveRemoveNonOverlappingRanges ( a_Root , t_Compare ) ;
if ( t_Status == State_ReEvaluate )
{
t_Status = RemoveNonOverlappingRanges ( a_Root ) ;
if ( t_Status == State_False || t_Status == State_True )
{
delete a_Root ;
a_Root = NULL ;
}
}
return t_Status ;
}
void QueryPreprocessor :: CountDisjunctions ( SnmpTreeNode *a_Node , ULONG &a_Count )
{
if ( a_Node )
{
if ( typeid ( *a_Node ) == typeid ( SnmpOrNode ) )
{
a_Count ++ ;
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
CountDisjunctions ( t_Left , a_Count ) ;
}
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Right )
{
CountDisjunctions ( t_Right , a_Count ) ;
}
}
}
}
void QueryPreprocessor :: CreateDisjunctions (
SnmpTreeNode *a_Node ,
Disjunctions *a_Disjunctions ,
ULONG a_PropertiesToPartitionCount ,
BSTR *a_PropertiesToPartition ,
ULONG &a_DisjunctionIndex
)
{
if ( a_Node )
{
if ( typeid ( *a_Node ) == typeid ( SnmpOrNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
CreateDisjunctions (
t_Left ,
a_Disjunctions ,
a_PropertiesToPartitionCount ,
a_PropertiesToPartition ,
a_DisjunctionIndex
) ;
}
Conjunctions *t_Disjunction = a_Disjunctions->GetDisjunction ( a_DisjunctionIndex ) ;
for ( ULONG t_Index = 0 ; t_Index < a_PropertiesToPartitionCount ; t_Index ++ )
{
if ( t_Disjunction->GetRange ( t_Index ) == NULL )
{
SnmpRangeNode *t_RangeNode = AllocInfiniteRangeNode (
a_PropertiesToPartition [ t_Index ]
) ;
t_Disjunction->SetRange ( t_Index , t_RangeNode ) ;
}
}
a_DisjunctionIndex ++ ;
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Right )
{
CreateDisjunctions (
t_Right ,
a_Disjunctions ,
a_PropertiesToPartitionCount ,
a_PropertiesToPartition ,
a_DisjunctionIndex
) ;
}
t_Disjunction = a_Disjunctions->GetDisjunction ( a_DisjunctionIndex ) ;
for ( t_Index = 0 ; t_Index < a_PropertiesToPartitionCount ; t_Index ++ )
{
if ( t_Disjunction->GetRange ( t_Index ) == NULL )
{
SnmpRangeNode *t_RangeNode = AllocInfiniteRangeNode (
a_PropertiesToPartition [ t_Index ]
) ;
t_Disjunction->SetRange ( t_Index , t_RangeNode ) ;
}
}
}
else if ( typeid ( *a_Node ) == typeid ( SnmpAndNode ) )
{
SnmpTreeNode *t_Left = a_Node->GetLeft () ;
if ( t_Left )
{
CreateDisjunctions (
t_Left ,
a_Disjunctions ,
a_PropertiesToPartitionCount ,
a_PropertiesToPartition ,
a_DisjunctionIndex
) ;
}
SnmpTreeNode *t_Right = a_Node->GetRight () ;
if ( t_Right )
{
CreateDisjunctions (
t_Right ,
a_Disjunctions ,
a_PropertiesToPartitionCount ,
a_PropertiesToPartition ,
a_DisjunctionIndex
) ;
}
}
else
{
Conjunctions *t_Disjunction = a_Disjunctions->GetDisjunction ( a_DisjunctionIndex ) ;
SnmpRangeNode *t_Node = ( SnmpRangeNode * ) a_Node ;
BSTR t_PropertyName = t_Node->GetPropertyName () ;
for ( ULONG t_Index = 0 ; t_Index < a_PropertiesToPartitionCount ; t_Index ++ )
{
if ( _wcsicmp ( t_PropertyName , a_PropertiesToPartition [ t_Index ] ) == 0 )
{
t_Disjunction->SetRange ( t_Index , ( SnmpRangeNode * ) t_Node->Copy () ) ;
break ;
}
}
}
}
}
BOOL QueryPreprocessor :: CreateDisjunctionContainer ( SnmpTreeNode *a_Root , Disjunctions *&a_Disjunctions )
{
BOOL t_Status = TRUE ;
ULONG t_PropertiesToPartitionCount = 0 ;
BSTR *t_PropertiesToPartition = NULL ;
GetPropertiesToPartition ( t_PropertiesToPartitionCount , t_PropertiesToPartition ) ;
if ( t_PropertiesToPartitionCount )
{
ULONG t_Count = 1 ;
CountDisjunctions ( a_Root , t_Count ) ;
a_Disjunctions = new Disjunctions ( t_Count , t_PropertiesToPartitionCount ) ;
t_Count = 0 ;
CreateDisjunctions (
a_Root ,
a_Disjunctions ,
t_PropertiesToPartitionCount ,
t_PropertiesToPartition ,
t_Count
) ;
/*
* Deallocate array
*/
Conjunctions *t_Disjunction = a_Disjunctions->GetDisjunction ( 0 ) ;
for ( ULONG t_Index = 0 ; t_Index < t_PropertiesToPartitionCount ; t_Index ++ )
{
if ( t_Disjunction->GetRange ( t_Index ) == NULL )
{
SnmpRangeNode *t_RangeNode = AllocInfiniteRangeNode (
t_PropertiesToPartition [ t_Index ]
) ;
t_Disjunction->SetRange ( t_Index , t_RangeNode ) ;
}
}
for ( t_Index = 0 ; t_Index < t_PropertiesToPartitionCount ; t_Index ++ )
{
SysFreeString ( t_PropertiesToPartition [ t_Index ] ) ;
}
delete [] t_PropertiesToPartition ;
}
return t_Status ;
}
BOOL QueryPreprocessor :: RecursivePartitionSet (
Disjunctions *a_Disjunctions ,
PartitionSet *&a_Partition ,
ULONG a_DisjunctionSetToTestCount ,
ULONG *a_DisjunctionSetToTest ,
ULONG a_KeyIndex
)
{
BOOL t_Status = TRUE ;
ULONG t_DisjunctionCount = a_Disjunctions->GetDisjunctionCount () ;
ULONG t_ConjunctionCount = a_Disjunctions->GetConjunctionCount () ;
if ( a_KeyIndex < t_ConjunctionCount )
{
ULONG *t_OverlappingIndex = new ULONG [ t_DisjunctionCount ] ;
ULONG *t_SortedDisjunctionSetToTest = new ULONG [ t_DisjunctionCount ] ;
SnmpRangeNode **t_RangeTable = new SnmpRangeNode * [ t_DisjunctionCount ] ;
for ( ULONG t_Index = 0 ; t_Index < t_DisjunctionCount ; t_Index ++ )
{
t_OverlappingIndex [ t_Index ] = t_Index ;
Conjunctions *t_Disjunction = a_Disjunctions->GetDisjunction ( t_Index ) ;
t_RangeTable [ t_Index ] = ( SnmpRangeNode * ) ( t_Disjunction->GetRange ( a_KeyIndex )->Copy () ) ;
t_SortedDisjunctionSetToTest [ t_Index ] = t_Index ;
}
// Sort Partitions
for ( ULONG t_OuterIndex = 0 ; t_OuterIndex < t_DisjunctionCount ; t_OuterIndex ++ )
{
for ( ULONG t_InnerIndex = 0 ; t_InnerIndex < t_DisjunctionCount ; t_InnerIndex ++ )
{
if ( CompareLessRangeNode ( t_RangeTable [ t_InnerIndex ] , t_RangeTable [ t_OuterIndex ] ) == FALSE )
{
SnmpRangeNode *t_Range = t_RangeTable [ t_InnerIndex ] ;
t_RangeTable [ t_InnerIndex ] = t_RangeTable [ t_OuterIndex ] ;
t_RangeTable [ t_OuterIndex ] = t_Range ;
ULONG t_Overlap = t_OverlappingIndex [ t_InnerIndex ] ;
t_OverlappingIndex [ t_InnerIndex ] = t_OverlappingIndex [ t_OuterIndex ] ;
t_OverlappingIndex [ t_OuterIndex ] = t_Overlap ;
ULONG t_ToTest = t_SortedDisjunctionSetToTest [ t_InnerIndex ] ;
t_SortedDisjunctionSetToTest [ t_InnerIndex ] = t_SortedDisjunctionSetToTest [ t_OuterIndex ] ;
t_SortedDisjunctionSetToTest [ t_OuterIndex ] = t_ToTest ;
}
}
}
for ( t_OuterIndex = 0 ; t_OuterIndex < t_DisjunctionCount ; t_OuterIndex ++ )
{
for ( ULONG t_InnerIndex = 0 ; t_InnerIndex < t_DisjunctionCount ; t_InnerIndex ++ )
{
ULONG t_OuterToTest = a_DisjunctionSetToTest [ t_SortedDisjunctionSetToTest [ t_OuterIndex ] ] ;
ULONG t_InnerToTest = a_DisjunctionSetToTest [ t_SortedDisjunctionSetToTest [ t_InnerIndex ] ] ;
if ( t_OuterToTest == t_InnerToTest )
{
if ( t_OverlappingIndex [ t_OuterIndex ] != t_OverlappingIndex [ t_InnerIndex ] )
{
SnmpRangeNode *t_LeftRange = t_RangeTable [ t_OuterIndex ] ;
SnmpRangeNode *t_RightRange = t_RangeTable [ t_InnerIndex ] ;
if ( t_LeftRange && t_RightRange )
{
if ( typeid ( *t_LeftRange ) == typeid ( SnmpStringRangeNode ) && typeid ( *t_RightRange ) == typeid ( SnmpStringRangeNode ) )
{
SnmpStringRangeNode *t_LeftString = ( SnmpStringRangeNode * ) t_LeftRange ;
SnmpStringRangeNode *t_RightString = ( SnmpStringRangeNode * ) t_RightRange ;
SnmpStringRangeNode *t_OverLap = NULL ;
if ( t_LeftString->GetOverlappingRange ( *t_RightString, t_OverLap ) )
{
if ( t_OverlappingIndex [ t_OuterIndex ] < t_OverlappingIndex [ t_InnerIndex ] )
{
delete t_RangeTable [ t_OuterIndex ] ;
t_RangeTable [ t_OuterIndex ] = t_OverLap ;
delete t_RangeTable [ t_InnerIndex ] ;
t_RangeTable [ t_InnerIndex ] = NULL ;
t_OverlappingIndex [ t_InnerIndex ] = t_OverlappingIndex [ t_OuterIndex ] ;
}
else
{
delete t_RangeTable [ t_OuterIndex ] ;
t_RangeTable [ t_OuterIndex ] = NULL ;
delete t_RangeTable [ t_InnerIndex ] ;
t_RangeTable [ t_InnerIndex ] = t_OverLap ;
t_OverlappingIndex [ t_OuterIndex ] = t_OverlappingIndex [ t_InnerIndex ] ;
}
}
else
{
}
}
else if ( typeid ( *t_LeftRange ) == typeid ( SnmpSignedIntegerRangeNode ) && typeid ( *t_RightRange ) == typeid ( SnmpSignedIntegerRangeNode ) )
{
SnmpSignedIntegerRangeNode *t_LeftInteger = ( SnmpSignedIntegerRangeNode * ) t_LeftRange ;
SnmpSignedIntegerRangeNode *t_RightInteger = ( SnmpSignedIntegerRangeNode * ) t_RightRange ;
SnmpSignedIntegerRangeNode *t_OverLap = NULL ;
if ( t_LeftInteger->GetOverlappingRange ( *t_RightInteger , t_OverLap ) )
{
if ( t_OverlappingIndex [ t_OuterIndex ] < t_OverlappingIndex [ t_InnerIndex ] )
{
delete t_RangeTable [ t_OuterIndex ] ;
t_RangeTable [ t_OuterIndex ] = t_OverLap ;
delete t_RangeTable [ t_InnerIndex ] ;
t_RangeTable [ t_InnerIndex ] = NULL ;
t_OverlappingIndex [ t_InnerIndex ] = t_OverlappingIndex [ t_OuterIndex ] ;
}
else
{
delete t_RangeTable [ t_OuterIndex ] ;
t_RangeTable [ t_OuterIndex ] = NULL ;
delete t_RangeTable [ t_InnerIndex ] ;
t_RangeTable [ t_InnerIndex ] = t_OverLap ;
t_OverlappingIndex [ t_OuterIndex ] = t_OverlappingIndex [ t_InnerIndex ] ;
}
}
else
{
}
}
else if ( typeid ( *t_LeftRange ) == typeid ( SnmpUnsignedIntegerRangeNode ) && typeid ( *t_RightRange ) == typeid ( SnmpUnsignedIntegerRangeNode ) )
{
SnmpUnsignedIntegerRangeNode *t_LeftInteger = ( SnmpUnsignedIntegerRangeNode * ) t_LeftRange ;
SnmpUnsignedIntegerRangeNode *t_RightInteger = ( SnmpUnsignedIntegerRangeNode * ) t_RightRange ;
SnmpUnsignedIntegerRangeNode *t_OverLap = NULL ;
if ( t_LeftInteger->GetOverlappingRange ( *t_RightInteger , t_OverLap ) )
{
if ( t_OverlappingIndex [ t_OuterIndex ] < t_OverlappingIndex [ t_InnerIndex ] )
{
delete t_RangeTable [ t_OuterIndex ] ;
t_RangeTable [ t_OuterIndex ] = t_OverLap ;
delete t_RangeTable [ t_InnerIndex ] ;
t_RangeTable [ t_InnerIndex ] = NULL ;
t_OverlappingIndex [ t_InnerIndex ] = t_OverlappingIndex [ t_OuterIndex ] ;
}
else
{
delete t_RangeTable [ t_OuterIndex ] ;
t_RangeTable [ t_OuterIndex ] = NULL ;
delete t_RangeTable [ t_InnerIndex ] ;
t_RangeTable [ t_InnerIndex ] = t_OverLap ;
t_OverlappingIndex [ t_OuterIndex ] = t_OverlappingIndex [ t_InnerIndex ] ;
}
}
else
{
}
}
else if ( typeid ( *t_LeftRange ) == typeid ( SnmpNullRangeNode ) && typeid ( *t_RightRange ) == typeid ( SnmpNullRangeNode ) )
{
SnmpRangeNode *t_OverLap = ( SnmpRangeNode * ) t_LeftRange->Copy () ;
if ( t_OverlappingIndex [ t_OuterIndex ] < t_OverlappingIndex [ t_InnerIndex ] )
{
delete t_RangeTable [ t_OuterIndex ] ;
t_RangeTable [ t_OuterIndex ] = t_OverLap ;
delete t_RangeTable [ t_InnerIndex ] ;
t_RangeTable [ t_InnerIndex ] = NULL ;
t_OverlappingIndex [ t_InnerIndex ] = t_OverlappingIndex [ t_OuterIndex ] ;
}
else
{
delete t_RangeTable [ t_OuterIndex ] ;
t_RangeTable [ t_OuterIndex ] = NULL ;
delete t_RangeTable [ t_InnerIndex ] ;
t_RangeTable [ t_InnerIndex ] = t_OverLap ;
t_OverlappingIndex [ t_OuterIndex ] = t_OverlappingIndex [ t_InnerIndex ] ;
}
}
else
{
// Failure
t_Status = FALSE ;
}
}
}
}
}
}
ULONG t_PartitionCount = 0 ;
for ( t_Index = 0 ; t_Index < t_DisjunctionCount ; t_Index ++ )
{
if ( a_DisjunctionSetToTest [ t_SortedDisjunctionSetToTest [ t_Index ] ] && t_RangeTable [ t_Index ] )
{
t_PartitionCount ++ ;
}
}
a_Partition->CreatePartitions ( t_PartitionCount ) ;
ULONG t_PartitionIndex = 0 ;
for ( t_Index = 0 ; t_Index < t_DisjunctionCount ; t_Index ++ )
{
SnmpRangeNode *t_Range = t_RangeTable [ t_Index ] ;
if ( a_DisjunctionSetToTest [ t_SortedDisjunctionSetToTest [ t_Index ] ] && t_Range )
{
PartitionSet *t_Partition = new PartitionSet ;
a_Partition->SetPartition ( t_PartitionIndex , t_Partition ) ;
t_Partition->SetRange ( ( SnmpRangeNode * ) t_Range->Copy () ) ;
t_Partition->SetKeyIndex ( a_KeyIndex ) ;
t_PartitionIndex ++ ;
}
}
ULONG *t_DisjunctionSetToTest = new ULONG [ t_DisjunctionCount ] ;
t_PartitionIndex = 0 ;
for ( t_OuterIndex = 0 ; t_OuterIndex < t_DisjunctionCount ; t_OuterIndex ++ )
{
BOOL t_Found = FALSE ;
for ( t_Index = 0 ; t_Index < t_DisjunctionCount ; t_Index ++ )
{
t_DisjunctionSetToTest [ t_Index ] = 0 ;
}
for ( ULONG t_InnerIndex = 0 ; t_InnerIndex < t_DisjunctionCount ; t_InnerIndex ++ )
{
if ( a_DisjunctionSetToTest [ t_SortedDisjunctionSetToTest [ t_InnerIndex ] ] && ( t_OverlappingIndex [ t_InnerIndex ] == t_OuterIndex ) )
{
t_DisjunctionSetToTest [ t_SortedDisjunctionSetToTest [ t_InnerIndex ] ] = 1 ;
t_Found = TRUE ;
}
}
if ( t_Found )
{
PartitionSet *t_Partition = a_Partition->GetPartition ( t_PartitionIndex ) ;
t_Status = RecursivePartitionSet (
a_Disjunctions ,
t_Partition ,
t_DisjunctionCount ,
t_DisjunctionSetToTest ,
a_KeyIndex + 1
) ;
t_PartitionIndex ++ ;
}
}
delete [] t_DisjunctionSetToTest ;
for ( t_Index = 0 ; t_Index < t_DisjunctionCount ; t_Index ++ )
{
delete t_RangeTable [ t_Index ] ;
}
delete [] t_RangeTable ;
delete [] t_OverlappingIndex ;
delete [] t_SortedDisjunctionSetToTest ;
}
return t_Status ;
}
BOOL QueryPreprocessor :: CreatePartitionSet ( Disjunctions *a_Disjunctions , PartitionSet *&a_Partition )
{
BOOL t_Status = FALSE ;
a_Partition = NULL ;
ULONG t_DisjunctionCount = a_Disjunctions->GetDisjunctionCount () ;
ULONG *t_DisjunctionSetToTest = new ULONG [ t_DisjunctionCount ] ;
for ( ULONG t_Index = 0 ; t_Index < t_DisjunctionCount ; t_Index ++ )
{
t_DisjunctionSetToTest [ t_Index ] = 1 ;
}
a_Partition = new PartitionSet ;
t_Status = RecursivePartitionSet (
a_Disjunctions ,
a_Partition ,
t_DisjunctionCount ,
t_DisjunctionSetToTest ,
0
) ;
//
delete [] t_DisjunctionSetToTest ;
return t_Status;
}
QueryPreprocessor :: QuadState QueryPreprocessor :: Preprocess (
SQL_LEVEL_1_RPN_EXPRESSION &a_Expression ,
PartitionSet *&a_Partition
)
{
QuadState t_State = State_Error ;
SnmpTreeNode *t_Root = NULL ;
BOOL t_Status = Evaluate ( a_Expression , &t_Root ) ;
if ( t_Status )
{
PrintTree ( t_Root ) ;
DisjunctiveNormalForm ( t_Root ) ;
PrintTree ( t_Root ) ;
switch ( t_State = RemoveInvariants ( t_Root ) )
{
case QueryPreprocessor :: QuadState :: State_True:
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"Expression = TRUE "
) ;
)
}
break ;
case QueryPreprocessor :: QuadState :: State_False:
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"Expression = FALSE "
) ;
)
}
break ;
case QueryPreprocessor :: QuadState :: State_Undefined:
{
PrintTree ( t_Root ) ;
Sort ( t_Root ) ;
PrintTree ( t_Root ) ;
ConvertToRanges ( t_Root ) ;
PrintTree ( t_Root ) ;
switch ( t_State = RemoveNonOverlappingRanges ( t_Root ) )
{
case QueryPreprocessor :: QuadState :: State_True:
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"Expression = TRUE"
) ;
)
}
break ;
case QueryPreprocessor :: QuadState :: State_False:
{
DebugMacro3(
SnmpDebugLog :: s_SnmpDebugLog->Write (
__FILE__,__LINE__,
L"Expression = FALSE"
) ;
)
}
break ;
case QueryPreprocessor :: QuadState :: State_Undefined:
{
PrintTree ( t_Root ) ;
Disjunctions *t_Disjunctions = NULL ;
if ( CreateDisjunctionContainer ( t_Root , t_Disjunctions ) )
{
PartitionSet *t_Partition = NULL ;
if ( CreatePartitionSet ( t_Disjunctions , t_Partition ) )
{
a_Partition = t_Partition ;
}
else
{
delete t_Partition ;
}
delete t_Disjunctions ;
}
}
break ;
case QueryPreprocessor :: QuadState :: State_ReEvaluate:
{
}
break ;
default:
{
}
break ;
}
}
break ;
case QueryPreprocessor :: QuadState :: State_ReEvaluate:
{
}
break ;
default:
{
}
break ;
}
}
else
{
}
delete t_Root ;
return t_State ;
}