TextInfo.cs source code in C# .NET

                        
Code:
                         / Dotnetfx_Vista_SP2 / Dotnetfx_Vista_SP2 / 8.0.50727.4016 / DEVDIV / depot / DevDiv / releases / whidbey / NetFxQFE / ndp / clr / src / BCL / System / Globalization / TextInfo.cs / 1 / TextInfo.cs
                        

                        
                            // ==++== 
//
//   Copyright (c) Microsoft Corporation.  All rights reserved.
//
// ==--== 
////////////////////////////////////////////////////////////////////////////
// 
//  Class:    TextInfo 
//
//  Purpose:  This Class defines behaviors specific to a writing system. 
//            A writing system is the collection of scripts and
//            orthographic rules required to represent a language as text.
//
//  Date:     [....] 31, 1999 
//
//////////////////////////////////////////////////////////////////////////// 
 
namespace System.Globalization {
    using System; 
    using System.Text;
    using System.Threading;
    using System.Runtime.InteropServices;
    using System.Runtime.CompilerServices; 
    using System.Runtime.Serialization;
    using System.Security.Permissions; 
 

    [Serializable] 
    [System.Runtime.InteropServices.ComVisible(true)]
    public class TextInfo : ICloneable, IDeserializationCallback
    {
        //--------------------------------------------------------------------// 
        //                        Internal Information                        //
        //-------------------------------------------------------------------// 
 

        // 
        //  Variables.
        //

        [OptionalField(VersionAdded = 2)] 
        private String m_listSeparator;
 
        [OptionalField(VersionAdded = 2)] 
        private bool m_isReadOnly = false;
 
        //
        // Basically, this is the language ID (LANGID) used to call Win32 NLS APIs except that
        // the value can be zero for the invariant culture.
        // The reason for this data member to exist is that Win32 APIs 
        // doesn't take all of the culture IDs supported in NLS+.
        // For example, NLS+ support culture IDs like 0x0000, 0x0009. 
        // However, these are not valid locale IDs in Win32.  Therefore, 
        // we use a table to map a culutre ID like
        // 0x0009 to 0x0409. 
        //

        // m_textInfoID should be either 0 or a supported language ID.  See TextInfo(m_textInfoID)
        // for comments. 
        [NonSerialized]private int m_textInfoID;
        [NonSerialized]private string m_name = null; 
        [NonSerialized]private CultureTableRecord m_cultureTableRecord; 
        [NonSerialized]private TextInfo           m_casingTextInfo;
 
        //
        // m_pNativeTextInfo is a 32-bit pointer value pointing to a native C++ NativeTextInfo object.
        // The C++ NativeTextInfo is providing the implemenation of uppercasing/lowercasing.
        // 
        // Note: m_pNativeTextInfo is intialized with invariant in case of synthetic cultuers
        [NonSerialized]private unsafe void *m_pNativeTextInfo; 
        private static unsafe void* m_pInvariantNativeTextInfo; 
        private static unsafe void* m_pDefaultCasingTable;
 
        // This file contains the default casing data (uppercasing/lowercasing/titlecasing), and the table to
        // map cultures with exceptions to an exception sub-table in CASING_EXCEPTIONS_FILE_NAME.
        private const String CASING_FILE_NAME = "l_intl.nlp";
        // This file contains the casing data for cultures with exceptions. 
        private const String CASING_EXCEPTIONS_FILE_NAME = "l_except.nlp";
 
        // 
        // This is the header for the native data table that we load from charinfo.nlp.
        // 
        [StructLayout(LayoutKind.Explicit)]
        internal unsafe struct TextInfoDataHeader {
            [FieldOffset(0)]
            internal char TableName;    // WCHAR[16] 
            [FieldOffset(0x20)]
            internal ushort version;    // WORD[4] 
            [FieldOffset(0x28)] 
            internal uint OffsetToUpperCasingTable; // DWORD
            [FieldOffset(0x2c)] 
            internal uint OffsetToLowerCasingTable; // DWORD
            [FieldOffset(0x30)]
            internal uint OffsetToTitleCaseTable; // DWORD
            [FieldOffset(0x34)] 
            internal uint PlaneOffset;
            // Each plane has DWORD offset for uppercase  and DWORD offset for lowercase. 
            // 0xb4 = 0x34 + 8*16 
            [FieldOffset(0xb4)]
            internal ushort exceptionCount; 
            [FieldOffset(0xb6)]
            internal ushort exceptionLangId;
        }
 
        [StructLayout(LayoutKind.Sequential, Pack=2)]
        internal struct ExceptionTableItem { 
            internal ushort langID;   // The lcid that contains the exceptions. 
            internal ushort exceptIndex;   // The name of the exception tables.
        } 


        // The base pointer of the defult casing table
        static unsafe byte* m_pDataTable; 
        // The total count of cultures with exceptions.
        static int m_exceptionCount; 
        // The pointer to the exception index table.  This table maps a culture with exceptions 
        // to a sub-table in the exception data table.
        static unsafe ExceptionTableItem* m_exceptionTable; 

        // The base pointer for exception data file.
        static unsafe byte* m_pExceptionFile;
        // This array caches the native pointer of the NativeTextInfo get by calling InternalAllocateCasingTable. 

        // NOTE: use long to hold native pointers. 
        //static unsafe void*[] m_exceptionNativeTextInfo; 
        static unsafe long[] m_exceptionNativeTextInfo;
 
        ////////////////////////////////////////////////////////////////////////
        //
        //  Actions:
        //      This is the static ctor for TextInfo.  It does the following items: 
        //      * Get the total count of cultures with exceptions.
        //      * Set up an exception index table so that we can check if a culture has exception.  If yes, which sub-table 
        //        in the exception table file we should use for this culture. 
        //      * Set up a cache for NativeTextInfo that we create for cultures with exceptions.
        // 
        ////////////////////////////////////////////////////////////////////////

        static unsafe TextInfo() {
            //with AppDomains active, the static initializer is no longer good enough to ensure that only one 
            //thread is ever in AllocateDefaultCasingTable at a given time.
            //We use InterlockedExchangePointer in the native side to ensure that only one instance of native CasingTable instance 
            //is created per process. 

            //We check if the table is already allocated in native, so we only need to synchronize 
            //access in managed.
            byte* temp = GlobalizationAssembly.GetGlobalizationResourceBytePtr(typeof(TextInfo).Assembly, CASING_FILE_NAME);
            System.Threading.Thread.MemoryBarrier();
            m_pDataTable = temp; 

            TextInfoDataHeader* pHeader = (TextInfoDataHeader*)m_pDataTable; 
            m_exceptionCount = pHeader->exceptionCount; 
            // Setup exception tables
            m_exceptionTable = (ExceptionTableItem*)&(pHeader->exceptionLangId); 
            m_exceptionNativeTextInfo = new long[m_exceptionCount];

            // Create the native NativeTextInfo for the default linguistic casing table.
            m_pDefaultCasingTable = AllocateDefaultCasingTable(m_pDataTable); 

            BCLDebug.Assert(m_pDataTable != null, "Error in reading the table."); 
            BCLDebug.Assert(m_pDefaultCasingTable != null, "m_pDefaultCasingTable != null"); 
        }
 
        // Private object for locking instead of locking on a public type for SQL reliability work.
        private static Object s_InternalSyncObject;
        private static Object InternalSyncObject {
            get { 
                if (s_InternalSyncObject == null) {
                    Object o = new Object(); 
                    Interlocked.CompareExchange(ref s_InternalSyncObject, o, null); 
                }
                return s_InternalSyncObject; 
            }
        }

        //////////////////////////////////////////////////////////////////////// 
        //
        //  TextInfo Constructors 
        // 
        //  Implements CultureInfo.TextInfo.
        // 
        ////////////////////////////////////////////////////////////////////////
        internal unsafe TextInfo(CultureTableRecord table)
        {
            this.m_cultureTableRecord = table; 
            this.m_textInfoID = this.m_cultureTableRecord.ITEXTINFO;
 
            if (table.IsSynthetic) 
            {
                //  
                //
                // we just initialize m_pNativeTextInfo with variant to make the synthetic TextInfo works when
                // GetCaseInsensitiveHashCode and ChangeCaseSurrogate get called. otherwise m_pNativeTextInfo
                // is not used at all in TextInfo with synthetic cultures. 
                //
                m_pNativeTextInfo = InvariantNativeTextInfo; 
            } 
            else
            { 
                this.m_pNativeTextInfo = GetNativeTextInfo(this.m_textInfoID);
            }
        }
 

        //////////////////////////////////////////////////////////////////////// 
        // 
        // Return the native TextInfo instance for the invariant culture.
        // 
        ////////////////////////////////////////////////////////////////////////

        internal unsafe static void* InvariantNativeTextInfo
        { 
            get
            { 
                if (m_pInvariantNativeTextInfo == null) 
                {
                    lock(InternalSyncObject) 
                    {
                        if (m_pInvariantNativeTextInfo == null)
                        {
                            m_pInvariantNativeTextInfo = GetNativeTextInfo(CultureInfo.LOCALE_INVARIANT); 
                        }
                    } 
                } 
                BCLDebug.Assert(m_pInvariantNativeTextInfo != null, "TextInfo.InvariantNativeTextInfo: m_pInvariantNativeTextInfo != null");
                return (m_pInvariantNativeTextInfo); 
            }
        }

#region Serialization 
        // The following field is used only for the supplemental custom culture serialization to remember
        // the name of the custom culture so we can reconstruct the text info properly during the deserialization. 
 
        [OptionalField(VersionAdded = 2)]
        private string customCultureName; 

        // the following fields is defined to keep the compatibility with Everett.
        // don't change/remove the names/types of these fields.
 
        internal int    m_nDataItem;
        internal bool   m_useUserOverride; 
        internal int    m_win32LangID; 

 
        [OnDeserializing]
        private void OnDeserializing(StreamingContext ctx)
        {
            m_cultureTableRecord = null; 
            m_win32LangID        = 0;
        } 
 
        private unsafe void OnDeserialized()
        { 
            // this method will be called twice because of the support of IDeserializationCallback
            if (m_cultureTableRecord == null)
            {
                // Due to our versioning, getting the CORRECT culture ID for an Everett structure is challenging. 
                if (m_win32LangID == 0)
                { 
                    m_win32LangID = CultureTableRecord.IdFromEverettDataItem(m_nDataItem); 
                }
 
                if (customCultureName != null)
                {
                    m_cultureTableRecord = CultureTableRecord.GetCultureTableRecord(customCultureName, m_useUserOverride);
                } 
                else
                { 
                    m_cultureTableRecord = CultureTableRecord.GetCultureTableRecord(m_win32LangID, m_useUserOverride); 
                }
 
                m_textInfoID = m_cultureTableRecord.ITEXTINFO;

                if (m_cultureTableRecord.IsSynthetic)
                { 
                    // 
                    m_pNativeTextInfo = InvariantNativeTextInfo; 
                } 
                else
                { 
                    m_pNativeTextInfo = GetNativeTextInfo(m_textInfoID);
                }
            }
        } 

 
        [OnDeserialized] 
        private void OnDeserialized(StreamingContext ctx)
        { 
            OnDeserialized();
        }

        [OnSerializing] 
        private void OnSerializing(StreamingContext ctx)
        { 
            m_nDataItem       = m_cultureTableRecord.EverettDataItem(); 
            m_useUserOverride = m_cultureTableRecord.UseUserOverride;
 
            if (CultureTableRecord.IsCustomCultureId(m_cultureTableRecord.CultureID))
            {
                customCultureName = m_cultureTableRecord.SNAME;
                m_win32LangID     = m_textInfoID; 
            }
            else 
            { 
                customCultureName = null;
                m_win32LangID     = m_cultureTableRecord.CultureID; 
            }

        }
 
#endregion Serialization
 
 
        internal static unsafe void* GetNativeTextInfo(int cultureID) {
 
#if !FEATURE_PAL

            if (cultureID == CultureInfo.LOCALE_INVARIANT &&
                Environment.OSVersion.Platform == PlatformID.Win32NT) 
            {
                void *pInvariantTextInfo = nativeGetInvariantTextInfo(); 
                if (pInvariantTextInfo != null) 
                {
                    return pInvariantTextInfo; 
                }
                throw new TypeInitializationException(typeof(System.Globalization.TextInfo).ToString(), null);
            }
 
#endif // !FEATURE_PAL
 
            // First, assume this culture does not has exceptions. I.e. we should use the default casingg table. 
            // So we assign the native NativeTextInfo for the default casing table to it.
            void *pNativeTextInfo = m_pDefaultCasingTable; 

            // Now, go thru the exception table to see if it has exception or not.
            for (int i = 0; i < m_exceptionCount; i++) {
                if (m_exceptionTable[i].langID == cultureID) { 
                    // This culture has exceptions.
                    if (m_exceptionNativeTextInfo[i] == 0) { 
                        lock (InternalSyncObject) { 
                            // Read the exception casing file.
                            if (m_pExceptionFile == null) { 
                                m_pExceptionFile = GlobalizationAssembly.GetGlobalizationResourceBytePtr(typeof(TextInfo).Assembly, CASING_EXCEPTIONS_FILE_NAME);
                            }
                            long tempPtr = (long)(InternalAllocateCasingTable(m_pExceptionFile, m_exceptionTable[i].exceptIndex));
                            System.Threading.Thread.MemoryBarrier(); 
                            m_exceptionNativeTextInfo[i] = tempPtr;
                        } 
                    } 
                    pNativeTextInfo = (void*)m_exceptionNativeTextInfo[i];
                    break; 
                }
            }
            return (pNativeTextInfo);
 
        }
 
        internal static unsafe int CompareOrdinalIgnoreCase(String str1, String str2) { 
            return (nativeCompareOrdinalIgnoreCase(InvariantNativeTextInfo, str1, str2));
        } 

        // This function doesn't check arguments. Please do check in the caller.
        // The underlying unmanaged code will assert the sanity of arguments.
        internal static unsafe int CompareOrdinalIgnoreCaseEx(String strA, int indexA, String strB, int indexB, int length ) { 
            return (nativeCompareOrdinalIgnoreCaseEx(InvariantNativeTextInfo, strA, indexA, strB, indexB, length));
        } 
 
        // This function doesn't check arguments. Please do check in the caller.
        // The underlying unmanaged code will assert the sanity of arguments. 
        internal static unsafe int GetHashCodeOrdinalIgnoreCase(String s) {
            return (nativeGetHashCodeOrdinalIgnoreCase(InvariantNativeTextInfo, s));
        }
 
        internal static unsafe int IndexOfStringOrdinalIgnoreCase(String source, String value, int startIndex, int count) {
            if (source == null) 
                throw new ArgumentNullException("source"); 

            return nativeIndexOfStringOrdinalIgnoreCase(InvariantNativeTextInfo, source, value, startIndex, count); 
        }

        internal static unsafe int LastIndexOfStringOrdinalIgnoreCase(String source, String value, int startIndex, int count) {
 
            if (source == null)
                throw new ArgumentNullException("source"); 
 
            return nativeLastIndexOfStringOrdinalIgnoreCase(InvariantNativeTextInfo, source, value, startIndex, count);
        } 

        ////////////////////////////////////////////////////////////////////////
        //
        //  CodePage 
        //
        //  Returns the number of the code page used by this writing system. 
        //  The type parameter can be any of the following values: 
        //      ANSICodePage
        //      OEMCodePage 
        //      MACCodePage
        //
        ////////////////////////////////////////////////////////////////////////
 

        public virtual int ANSICodePage { 
            get { 
                return (this.m_cultureTableRecord.IDEFAULTANSICODEPAGE);
            } 
        }


 
        public virtual int OEMCodePage {
            get { 
                return (this.m_cultureTableRecord.IDEFAULTOEMCODEPAGE); 
            }
        } 


        public virtual int MacCodePage {
            get { 
                return (this.m_cultureTableRecord.IDEFAULTMACCODEPAGE);
            } 
        } 

 
        public virtual int EBCDICCodePage {
            get {
                return (this.m_cultureTableRecord.IDEFAULTEBCDICCODEPAGE);
            } 
        }
 
 
        ////////////////////////////////////////////////////////////////////////
        // 
        //  LCID
        //
        //  We need a way to get an LCID from outside of the BCL. This prop is the way.
        // 
        // neutral cultures will cause GPS incorrect LCIDS from this
        //////////////////////////////////////////////////////////////////////// 
 

        [System.Runtime.InteropServices.ComVisible(false)] 
        public int LCID
        {
            get
            { 
                return (this.m_textInfoID);
            } 
        } 

        //////////////////////////////////////////////////////////////////////// 
        //
        //  CultureName
        //
        //  The name of the culture from which the TextInfo was created. Even better than 
        //  the LCID since the LCID is not always unique (like in custom cultures).
        // 
        //////////////////////////////////////////////////////////////////////// 

 
        [System.Runtime.InteropServices.ComVisible(false)]
        public string CultureName
        {
            get 
            {
                if(null == this.m_name) 
                { 
                    this.m_name = CultureInfo.GetCultureInfo(this.m_textInfoID).Name;
                } 

                return(this.m_name);
            }
        } 

        //////////////////////////////////////////////////////////////////////// 
        // 
        //  IsReadOnly
        // 
        //  Detect if the object is readonly.
        //
        ////////////////////////////////////////////////////////////////////////
        [System.Runtime.InteropServices.ComVisible(false)] 
        public bool IsReadOnly
        { 
            get { return (m_isReadOnly); } 
        }
 
        ////////////////////////////////////////////////////////////////////////
        //
        //  Clone
        // 
        //  Is the implementation of IColnable.
        // 
        //////////////////////////////////////////////////////////////////////// 
        [System.Runtime.InteropServices.ComVisible(false)]
        public virtual Object Clone() 
        {
            object o = MemberwiseClone();
            ((TextInfo) o).SetReadOnlyState(false);
            return (o); 
        }
 
        //////////////////////////////////////////////////////////////////////// 
        //
        //  ReadOnly 
        //
        //  Create a cloned readonly instance or return the input one if it is
        //  readonly.
        // 
        ////////////////////////////////////////////////////////////////////////
        [System.Runtime.InteropServices.ComVisible(false)] 
        public static TextInfo ReadOnly(TextInfo textInfo) 
        {
            if (textInfo == null)       { throw new ArgumentNullException("textInfo"); } 
            if (textInfo.IsReadOnly)    { return (textInfo); }

            TextInfo clonedTextInfo = (TextInfo)(textInfo.MemberwiseClone());
            clonedTextInfo.SetReadOnlyState(true); 

            return (clonedTextInfo); 
        } 

        private void VerifyWritable() 
        {
            if (m_isReadOnly)
            {
                throw new InvalidOperationException(Environment.GetResourceString("InvalidOperation_ReadOnly")); 
            }
        } 
 
        internal void SetReadOnlyState(bool readOnly)
        { 
            m_isReadOnly = readOnly;
        }

 
        ////////////////////////////////////////////////////////////////////////
        // 
        //  ListSeparator 
        //
        //  Returns the string used to separate items in a list. 
        //
        ////////////////////////////////////////////////////////////////////////

 
        public virtual String ListSeparator
        { 
            get 
            {
                if (m_listSeparator == null) { 
                    m_listSeparator = this.m_cultureTableRecord.SLIST;
                }
                return (m_listSeparator);
            } 

            [System.Runtime.InteropServices.ComVisible(false)] 
            set 
            {
                VerifyWritable(); 
                if (value == null)
                {
                    throw new ArgumentNullException("value", Environment.GetResourceString("ArgumentNull_String"));
                } 
                m_listSeparator = value;
            } 
        } 

        internal TextInfo CasingTextInfo 
        {
            get
            {
                if (m_casingTextInfo == null) 
                {
                    if (ANSICodePage == TurkishAnsiCodepage) 
                    { 
                        // Turkish cultures have different uppercase and lowercase for 'i' and 'I' characters. so we need
                        // to treat it as special case. 
                        m_casingTextInfo = CultureInfo.GetCultureInfo("tr-TR").TextInfo;
                    }
                    else
                    { 
                        m_casingTextInfo = CultureInfo.GetCultureInfo("en-US").TextInfo;
                    } 
                } 

                return m_casingTextInfo; 
            }
        }

        //////////////////////////////////////////////////////////////////////// 
        //
        //  ToLower 
        // 
        //  Converts the character or string to lower case.  Certain locales
        //  have different casing semantics from the file systems in Win32. 
        //
        ////////////////////////////////////////////////////////////////////////

        public unsafe virtual char ToLower(char c) 
        {
#if !FEATURE_PAL 
            //  
            if (m_cultureTableRecord.IsSynthetic)
            { 
                return CasingTextInfo.ToLower(c);
            }
#endif // !FEATURE_PAL
            return (nativeChangeCaseChar(m_textInfoID, m_pNativeTextInfo, c, false)); 
        }
 
        public unsafe virtual String ToLower(String str) 
        {
            if (str == null) { throw new ArgumentNullException("str"); } 

#if !FEATURE_PAL
            // 
            if (m_cultureTableRecord.IsSynthetic) 
            {
                return CasingTextInfo.ToLower(str); 
            } 
#endif // !FEATURE_PAL
 
            return (nativeChangeCaseString(m_textInfoID, m_pNativeTextInfo, str, false));
        }

        //////////////////////////////////////////////////////////////////////// 
        //
        //  ToUpper 
        // 
        //  Converts the character or string to upper case.  Certain locales
        //  have different casing semantics from the file systems in Win32. 
        //
        ////////////////////////////////////////////////////////////////////////

        public unsafe virtual char ToUpper(char c) 
        {
#if !FEATURE_PAL 
            //  
            if (m_cultureTableRecord.IsSynthetic)
            { 
                return CasingTextInfo.ToUpper(c);
            }
#endif // !FEATURE_PAL
            return (nativeChangeCaseChar(m_textInfoID, m_pNativeTextInfo, c, true)); 
        }
 
 
        public unsafe virtual String ToUpper(String str)
        { 
            if (str == null) { throw new ArgumentNullException("str"); }
#if !FEATURE_PAL
            // 
            if (m_cultureTableRecord.IsSynthetic) 
            {
                return CasingTextInfo.ToUpper(str); 
            } 
#endif // !FEATURE_PAL
 
            return (nativeChangeCaseString(m_textInfoID, m_pNativeTextInfo, str, true));
        }

        //////////////////////////////////////////////////////////////////////// 
        //
        //  Equals 
        // 
        //  Implements Object.Equals().  Returns a boolean indicating whether
        //  or not object refers to the same CultureInfo as the current instance. 
        //
        ////////////////////////////////////////////////////////////////////////

 
        public override bool Equals(Object obj)
        { 
            TextInfo that = obj as TextInfo; 

            if (that != null) 
            {
                return this.CultureName.Equals(that.CultureName);
            }
 
            return (false);
        } 
 

        //////////////////////////////////////////////////////////////////////// 
        //
        //  GetHashCode
        //
        //  Implements Object.GetHashCode().  Returns the hash code for the 
        //  CultureInfo.  The hash code is guaranteed to be the same for CultureInfo A
        //  and B where A.Equals(B) is true. 
        // 
        ////////////////////////////////////////////////////////////////////////
 

        public override int GetHashCode()
        {
            return (this.CultureName.GetHashCode()); 
        }
 
 
        ////////////////////////////////////////////////////////////////////////
        // 
        //  ToString
        //
        //  Implements Object.ToString().  Returns a string describing the
        //  TextInfo. 
        //
        //////////////////////////////////////////////////////////////////////// 
 

        public override String ToString() 
        {
            return ("TextInfo - " + this.m_textInfoID);
        }
 
        //
        // Used in ToTitleCase(): 
        // When we find a starting letter, the following array decides if a category should be 
        // considered as word seprator or not.
        // 
        private const int wordSeparatorMask =
            /* false */ (0 <<  0) | // UppercaseLetter = 0,
            /* false */ (0 <<  1) | // LowercaseLetter = 1,
            /* false */ (0 <<  2) | // TitlecaseLetter = 2, 
            /* false */ (0 <<  3) | // ModifierLetter = 3,
            /* false */ (0 <<  4) | // OtherLetter = 4, 
            /* false */ (0 <<  5) | // NonSpacingMark = 5, 
            /* false */ (0 <<  6) | // SpacingCombiningMark = 6,
            /* false */ (0 <<  7) | // EnclosingMark = 7, 
            /* false */ (0 <<  8) | // DecimalDigitNumber = 8,
            /* false */ (0 <<  9) | // LetterNumber = 9,
            /* false */ (0 << 10) | // OtherNumber = 10,
            /* true  */ (1 << 11) | // SpaceSeparator = 11, 
            /* true  */ (1 << 12) | // LineSeparator = 12,
            /* true  */ (1 << 13) | // ParagraphSeparator = 13, 
            /* true  */ (1 << 14) | // Control = 14, 
            /* true  */ (1 << 15) | // Format = 15,
            /* false */ (0 << 16) | // Surrogate = 16, 
            /* false */ (0 << 17) | // PrivateUse = 17,
            /* true  */ (1 << 18) | // ConnectorPunctuation = 18,
            /* true  */ (1 << 19) | // DashPunctuation = 19,
            /* true  */ (1 << 20) | // OpenPunctuation = 20, 
            /* true  */ (1 << 21) | // ClosePunctuation = 21,
            /* true  */ (1 << 22) | // InitialQuotePunctuation = 22, 
            /* true  */ (1 << 23) | // FinalQuotePunctuation = 23, 
            /* true  */ (1 << 24) | // OtherPunctuation = 24,
            /* true  */ (1 << 25) | // MathSymbol = 25, 
            /* true  */ (1 << 26) | // CurrencySymbol = 26,
            /* true  */ (1 << 27) | // ModifierSymbol = 27,
            /* true  */ (1 << 28) | // OtherSymbol = 28,
            /* false */ (0 << 29);  // OtherNotAssigned = 29; 

        private bool IsWordSeparator(UnicodeCategory category) { 
            return (wordSeparatorMask & (1 << (int)category)) != 0; 
        }
 
        // Returns the mapping of the specified string to title case.  Note that the
        // returned string may differ in length from the input string.
        // Generally, the first character of every word in str is uppercased.
        // For titlecase characters, they are uppercased in a specail way. 

        internal const int TurkishAnsiCodepage = 1254; 
 
        public unsafe String ToTitleCase(String str) {
            if (str==null) 
            {
                throw new ArgumentNullException("str");
            }
 
#if !FEATURE_PAL
            if (m_cultureTableRecord.IsSynthetic) 
            { 
                // 
                if (ANSICodePage == TurkishAnsiCodepage) 
                {
                    // Turkish cultures have different uppercase and lowercase for 'i' and 'I' characters. so we need
                    // to treat it as special case.
                    return CultureInfo.GetCultureInfo("tr-TR").TextInfo.ToTitleCase(str); 
                }
                return CultureInfo.GetCultureInfo("en-US").TextInfo.ToTitleCase(str); 
            } 
#endif // !FEATURE_PAL
 
            int len = str.Length;
            if (len == 0) {
                return (str);
            } 

            int i; 
            StringBuilder result = new StringBuilder(); 
            String lowercaseData = null;
 
            for (i = 0; i < len; i++) {
                UnicodeCategory charType;
                int charLen;
 
                charType = CharUnicodeInfo.InternalGetUnicodeCategory(str, i, out charLen);
                if (Char.CheckLetter(charType)) 
                { 
                    // Do the uppercasing for the first character of the word.
                    // There are titlecase characters that need to be special treated. 

                    if (charLen == 1) {
                        result.Append(nativeGetTitleCaseChar(m_pNativeTextInfo, str[i]));
                    } else { 
                        //
                        // ASSUMPTION: There is no titlecase char in the surrogate. 
                        // 
                        char resultHighSurrogate;
                        char resultLowSurrogate; 

                        ChangeCaseSurrogate(str[i], str[i+1], out resultHighSurrogate, out resultLowSurrogate, true);
                        result.Append(resultHighSurrogate);
                        result.Append(resultLowSurrogate); 
                    }
                    i+= charLen; 
 
                    //
                    // Convert the characters until the end of the this word 
                    // to lowercase.
                    //
                    int lowercaseStart = i;
 
                    //
                    // Use hasLowerCase flag to prevent from lowercasing acronyms (like "URT", "USA", etc) 
                    // This is in line with Word 2000 behavior of titilecasing. 
                    //
                    bool hasLowerCase = (charType == UnicodeCategory.LowercaseLetter); 
                    // Use a loop to find all of the other letters following this letter.
                    while (i < len) {
                        charType = CharUnicodeInfo.InternalGetUnicodeCategory(str, i, out charLen);
                        if (IsLetterCategory(charType)) { 
                            if (charType == UnicodeCategory.LowercaseLetter) {
                                hasLowerCase = true; 
                            } 
                            i += charLen;
                        } else if (str[i] == '\'') { 
                            // Special case for APOSTROPHE.  It should be considered part of the word.  E.g. "can't".
                            i++;
                            if (hasLowerCase) {
                                if (lowercaseData==null) { 
                                    lowercaseData = this.ToLower(str);
                                } 
                                result.Append(lowercaseData, lowercaseStart, i - lowercaseStart); 
                            } else {
                                result.Append(str, lowercaseStart, i - lowercaseStart); 
                            }
                            lowercaseStart = i;
                            hasLowerCase = true;
                        } else if (!IsWordSeparator(charType)) { 
                            // This category is considered to be part of the word.
                            // This is any category that is marked as false in wordSeprator array. 
                            i+= charLen; 
                        } else {
                            // A word separator. Break out of the loop. 
                            break;
                        }
                    }
 
                    int count = i - lowercaseStart;
 
                    if (count>0) { 
                        if (hasLowerCase) {
                            if (lowercaseData==null) { 
                                lowercaseData = this.ToLower(str);
                            }
                            result.Append(lowercaseData, lowercaseStart, count);
                        } else { 
                            result.Append(str, lowercaseStart, count);
                        } 
                    } 

                    if (i < len) { 
                        // Add the non-letter character.
                        if (charLen == 1) {
                            result.Append(str[i]);
                        } else { 
                            // Surrogate.
                            result.Append(str[i++]); 
                            result.Append(str[i]); 
                        }
                    } 
                } else {
                    //
                    // Not a letter, just append them.
                    // 
                    if (charLen == 1) {
                        result.Append(str[i]); 
                    } else { 
                        // Surrogate.
                        result.Append(str[i++]); 
                        result.Append(str[i]);
                    }
                }
            } 
            return (result.ToString());
        } 
 
        // The dominant direction of text and UI such as the relative position of buttons and scroll bars.
 

        [System.Runtime.InteropServices.ComVisible(false)]
        public bool IsRightToLeft
        { 
            get
            { 
                // The highest bit indicates writing order for left-to-right (0) or right-to-left (1) 
                return ((this.m_cultureTableRecord.ILINEORIENTATIONS & 0x8000) != 0);
            } 
        }

        private bool IsLetterCategory(UnicodeCategory uc) {
            return (uc == UnicodeCategory.UppercaseLetter 
                 || uc == UnicodeCategory.LowercaseLetter
                 || uc == UnicodeCategory.TitlecaseLetter 
                 || uc == UnicodeCategory.ModifierLetter 
                 || uc == UnicodeCategory.OtherLetter);
        } 

        /// 
        void IDeserializationCallback.OnDeserialization(Object sender)
        { 
            OnDeserialized();
        } 
 
        //
        // Get case-insensitive hash code for the specified string. 
        //
        // NOTENOTE: this is an internal function.  The caller should verify the string
        // is not null before calling this.  Currenlty, CaseInsensitiveHashCodeProvider
        // does that. 
        //
        internal unsafe int GetCaseInsensitiveHashCode(String str) { 
            // This must be called to guarantee m_pNativeTextInfo is initialized. 
            // The reason is that the order of calling OnDeserializtion on dependent
            // objects are not guaranteed, so a class using 
            // TextInfo class (Hashtable is an example) will have problems in
            // its deserializtion process if methods of TextInfo class is called in the
            // deserialization process.
            // 

            if (str==null) 
            { 
                 throw new ArgumentNullException("str");
            } 

            if (m_pNativeTextInfo == null)
            {
                OnDeserialized(); 
            }
 
            // This is the fix to avoid introduce 
            // a dependency on mscorlib.dll and mscorwks.dll, which the real fix needs.
            // By doing this, we will do uppercase twice for Turkish/Azeri, so it is slower 
            // in these two cultures.  The benefit is that we only have to do the fix in the managed side.
            switch (m_textInfoID)
            {
                case 0x041f:    // Turkish 
                case 0x042c:    // Azeri
                    // Uppercase the specified characters. 
                    str = nativeChangeCaseString(m_textInfoID, m_pNativeTextInfo, str, true); 
                    break;
            } 
            return (nativeGetCaseInsHash(str, m_pNativeTextInfo));
            // A better fix is to exam the m_wing32LangID and the high-char state in the native side to decide if we can do "fast hashing".
            //return nativeGetCaseInsHash(m_textInfoID, str, m_pNativeTextInfo);
 
        }
 
        // A thin wrapper to avoid us to mark ToTitleCase() as unsafe. 
        internal unsafe void ChangeCaseSurrogate(char highSurrogate, char lowSurrogate, out char resultHighSurrogate, out char resultLowSurrogate, bool isToUpper) {
            fixed (char* pResultChar1 = &resultHighSurrogate, pResultChar2 = &resultLowSurrogate) { 
                nativeChangeCaseSurrogate(m_pNativeTextInfo, highSurrogate, lowSurrogate, pResultChar1, pResultChar2, isToUpper);
            }
        }
 
        //This method requires synchronization and should only be called from the Class Initializer.
        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern void* AllocateDefaultCasingTable(byte* ptr); 

        //This method requires synchronization and should only be called from the Class Initializer. 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern void* nativeGetInvariantTextInfo();

        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern void* InternalAllocateCasingTable(byte* ptr, int exceptionIndex);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern int nativeGetCaseInsHash(String str, void* pNativeTextInfo);
        // private static extern int nativeGetCaseInsHash(int win32LangID, String str, void* pNativeTextInfo); 

        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern char nativeGetTitleCaseChar(void*pNativeTextInfo, char ch);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        internal static unsafe extern char   nativeChangeCaseChar(int win32LangID, void *pNativeTextInfo, char ch, bool isToUpper); 
        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        internal static unsafe extern String nativeChangeCaseString(int win32LangID, void*pNativeTextInfo, String str, bool isToUpper);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        internal static unsafe extern void nativeChangeCaseSurrogate(void *pNativeTextInfo, char highSurrogate, char lowSurrogate, char* resultHighSurrogate, char* resultLowSurrogate, bool isToUpper);

        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern int nativeCompareOrdinalIgnoreCase(void* pNativeTextInfo, String str1, String str2);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern int nativeCompareOrdinalIgnoreCaseEx(void* pNativeTextInfo, String strA, int indexA, String strB, int indexB, int length);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern int nativeGetHashCodeOrdinalIgnoreCase(void* pNativeTextInfo, String s);

 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern int nativeIndexOfStringOrdinalIgnoreCase(void* pNativeTextInfo, String str, String value, int startIndex, int count); 
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern int nativeLastIndexOfStringOrdinalIgnoreCase(void* pNativeTextInfo, String str, String value, int startIndex, int count); 

        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        internal static unsafe extern int nativeIndexOfCharOrdinalIgnoreCase(void* pNativeTextInfo, String str, Char value, int startIndex, int count);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        internal static unsafe extern int nativeLastIndexOfCharOrdinalIgnoreCase(void* pNativeTextInfo, String str, Char value, int startIndex, int count); 
    } 

} 



// File provided for Reference Use Only by Microsoft Corporation (c) 2007.
// ==++== 
//
//   Copyright (c) Microsoft Corporation.  All rights reserved.
//
// ==--== 
////////////////////////////////////////////////////////////////////////////
// 
//  Class:    TextInfo 
//
//  Purpose:  This Class defines behaviors specific to a writing system. 
//            A writing system is the collection of scripts and
//            orthographic rules required to represent a language as text.
//
//  Date:     [....] 31, 1999 
//
//////////////////////////////////////////////////////////////////////////// 
 
namespace System.Globalization {
    using System; 
    using System.Text;
    using System.Threading;
    using System.Runtime.InteropServices;
    using System.Runtime.CompilerServices; 
    using System.Runtime.Serialization;
    using System.Security.Permissions; 
 

    [Serializable] 
    [System.Runtime.InteropServices.ComVisible(true)]
    public class TextInfo : ICloneable, IDeserializationCallback
    {
        //--------------------------------------------------------------------// 
        //                        Internal Information                        //
        //-------------------------------------------------------------------// 
 

        // 
        //  Variables.
        //

        [OptionalField(VersionAdded = 2)] 
        private String m_listSeparator;
 
        [OptionalField(VersionAdded = 2)] 
        private bool m_isReadOnly = false;
 
        //
        // Basically, this is the language ID (LANGID) used to call Win32 NLS APIs except that
        // the value can be zero for the invariant culture.
        // The reason for this data member to exist is that Win32 APIs 
        // doesn't take all of the culture IDs supported in NLS+.
        // For example, NLS+ support culture IDs like 0x0000, 0x0009. 
        // However, these are not valid locale IDs in Win32.  Therefore, 
        // we use a table to map a culutre ID like
        // 0x0009 to 0x0409. 
        //

        // m_textInfoID should be either 0 or a supported language ID.  See TextInfo(m_textInfoID)
        // for comments. 
        [NonSerialized]private int m_textInfoID;
        [NonSerialized]private string m_name = null; 
        [NonSerialized]private CultureTableRecord m_cultureTableRecord; 
        [NonSerialized]private TextInfo           m_casingTextInfo;
 
        //
        // m_pNativeTextInfo is a 32-bit pointer value pointing to a native C++ NativeTextInfo object.
        // The C++ NativeTextInfo is providing the implemenation of uppercasing/lowercasing.
        // 
        // Note: m_pNativeTextInfo is intialized with invariant in case of synthetic cultuers
        [NonSerialized]private unsafe void *m_pNativeTextInfo; 
        private static unsafe void* m_pInvariantNativeTextInfo; 
        private static unsafe void* m_pDefaultCasingTable;
 
        // This file contains the default casing data (uppercasing/lowercasing/titlecasing), and the table to
        // map cultures with exceptions to an exception sub-table in CASING_EXCEPTIONS_FILE_NAME.
        private const String CASING_FILE_NAME = "l_intl.nlp";
        // This file contains the casing data for cultures with exceptions. 
        private const String CASING_EXCEPTIONS_FILE_NAME = "l_except.nlp";
 
        // 
        // This is the header for the native data table that we load from charinfo.nlp.
        // 
        [StructLayout(LayoutKind.Explicit)]
        internal unsafe struct TextInfoDataHeader {
            [FieldOffset(0)]
            internal char TableName;    // WCHAR[16] 
            [FieldOffset(0x20)]
            internal ushort version;    // WORD[4] 
            [FieldOffset(0x28)] 
            internal uint OffsetToUpperCasingTable; // DWORD
            [FieldOffset(0x2c)] 
            internal uint OffsetToLowerCasingTable; // DWORD
            [FieldOffset(0x30)]
            internal uint OffsetToTitleCaseTable; // DWORD
            [FieldOffset(0x34)] 
            internal uint PlaneOffset;
            // Each plane has DWORD offset for uppercase  and DWORD offset for lowercase. 
            // 0xb4 = 0x34 + 8*16 
            [FieldOffset(0xb4)]
            internal ushort exceptionCount; 
            [FieldOffset(0xb6)]
            internal ushort exceptionLangId;
        }
 
        [StructLayout(LayoutKind.Sequential, Pack=2)]
        internal struct ExceptionTableItem { 
            internal ushort langID;   // The lcid that contains the exceptions. 
            internal ushort exceptIndex;   // The name of the exception tables.
        } 


        // The base pointer of the defult casing table
        static unsafe byte* m_pDataTable; 
        // The total count of cultures with exceptions.
        static int m_exceptionCount; 
        // The pointer to the exception index table.  This table maps a culture with exceptions 
        // to a sub-table in the exception data table.
        static unsafe ExceptionTableItem* m_exceptionTable; 

        // The base pointer for exception data file.
        static unsafe byte* m_pExceptionFile;
        // This array caches the native pointer of the NativeTextInfo get by calling InternalAllocateCasingTable. 

        // NOTE: use long to hold native pointers. 
        //static unsafe void*[] m_exceptionNativeTextInfo; 
        static unsafe long[] m_exceptionNativeTextInfo;
 
        ////////////////////////////////////////////////////////////////////////
        //
        //  Actions:
        //      This is the static ctor for TextInfo.  It does the following items: 
        //      * Get the total count of cultures with exceptions.
        //      * Set up an exception index table so that we can check if a culture has exception.  If yes, which sub-table 
        //        in the exception table file we should use for this culture. 
        //      * Set up a cache for NativeTextInfo that we create for cultures with exceptions.
        // 
        ////////////////////////////////////////////////////////////////////////

        static unsafe TextInfo() {
            //with AppDomains active, the static initializer is no longer good enough to ensure that only one 
            //thread is ever in AllocateDefaultCasingTable at a given time.
            //We use InterlockedExchangePointer in the native side to ensure that only one instance of native CasingTable instance 
            //is created per process. 

            //We check if the table is already allocated in native, so we only need to synchronize 
            //access in managed.
            byte* temp = GlobalizationAssembly.GetGlobalizationResourceBytePtr(typeof(TextInfo).Assembly, CASING_FILE_NAME);
            System.Threading.Thread.MemoryBarrier();
            m_pDataTable = temp; 

            TextInfoDataHeader* pHeader = (TextInfoDataHeader*)m_pDataTable; 
            m_exceptionCount = pHeader->exceptionCount; 
            // Setup exception tables
            m_exceptionTable = (ExceptionTableItem*)&(pHeader->exceptionLangId); 
            m_exceptionNativeTextInfo = new long[m_exceptionCount];

            // Create the native NativeTextInfo for the default linguistic casing table.
            m_pDefaultCasingTable = AllocateDefaultCasingTable(m_pDataTable); 

            BCLDebug.Assert(m_pDataTable != null, "Error in reading the table."); 
            BCLDebug.Assert(m_pDefaultCasingTable != null, "m_pDefaultCasingTable != null"); 
        }
 
        // Private object for locking instead of locking on a public type for SQL reliability work.
        private static Object s_InternalSyncObject;
        private static Object InternalSyncObject {
            get { 
                if (s_InternalSyncObject == null) {
                    Object o = new Object(); 
                    Interlocked.CompareExchange(ref s_InternalSyncObject, o, null); 
                }
                return s_InternalSyncObject; 
            }
        }

        //////////////////////////////////////////////////////////////////////// 
        //
        //  TextInfo Constructors 
        // 
        //  Implements CultureInfo.TextInfo.
        // 
        ////////////////////////////////////////////////////////////////////////
        internal unsafe TextInfo(CultureTableRecord table)
        {
            this.m_cultureTableRecord = table; 
            this.m_textInfoID = this.m_cultureTableRecord.ITEXTINFO;
 
            if (table.IsSynthetic) 
            {
                //  
                //
                // we just initialize m_pNativeTextInfo with variant to make the synthetic TextInfo works when
                // GetCaseInsensitiveHashCode and ChangeCaseSurrogate get called. otherwise m_pNativeTextInfo
                // is not used at all in TextInfo with synthetic cultures. 
                //
                m_pNativeTextInfo = InvariantNativeTextInfo; 
            } 
            else
            { 
                this.m_pNativeTextInfo = GetNativeTextInfo(this.m_textInfoID);
            }
        }
 

        //////////////////////////////////////////////////////////////////////// 
        // 
        // Return the native TextInfo instance for the invariant culture.
        // 
        ////////////////////////////////////////////////////////////////////////

        internal unsafe static void* InvariantNativeTextInfo
        { 
            get
            { 
                if (m_pInvariantNativeTextInfo == null) 
                {
                    lock(InternalSyncObject) 
                    {
                        if (m_pInvariantNativeTextInfo == null)
                        {
                            m_pInvariantNativeTextInfo = GetNativeTextInfo(CultureInfo.LOCALE_INVARIANT); 
                        }
                    } 
                } 
                BCLDebug.Assert(m_pInvariantNativeTextInfo != null, "TextInfo.InvariantNativeTextInfo: m_pInvariantNativeTextInfo != null");
                return (m_pInvariantNativeTextInfo); 
            }
        }

#region Serialization 
        // The following field is used only for the supplemental custom culture serialization to remember
        // the name of the custom culture so we can reconstruct the text info properly during the deserialization. 
 
        [OptionalField(VersionAdded = 2)]
        private string customCultureName; 

        // the following fields is defined to keep the compatibility with Everett.
        // don't change/remove the names/types of these fields.
 
        internal int    m_nDataItem;
        internal bool   m_useUserOverride; 
        internal int    m_win32LangID; 

 
        [OnDeserializing]
        private void OnDeserializing(StreamingContext ctx)
        {
            m_cultureTableRecord = null; 
            m_win32LangID        = 0;
        } 
 
        private unsafe void OnDeserialized()
        { 
            // this method will be called twice because of the support of IDeserializationCallback
            if (m_cultureTableRecord == null)
            {
                // Due to our versioning, getting the CORRECT culture ID for an Everett structure is challenging. 
                if (m_win32LangID == 0)
                { 
                    m_win32LangID = CultureTableRecord.IdFromEverettDataItem(m_nDataItem); 
                }
 
                if (customCultureName != null)
                {
                    m_cultureTableRecord = CultureTableRecord.GetCultureTableRecord(customCultureName, m_useUserOverride);
                } 
                else
                { 
                    m_cultureTableRecord = CultureTableRecord.GetCultureTableRecord(m_win32LangID, m_useUserOverride); 
                }
 
                m_textInfoID = m_cultureTableRecord.ITEXTINFO;

                if (m_cultureTableRecord.IsSynthetic)
                { 
                    // 
                    m_pNativeTextInfo = InvariantNativeTextInfo; 
                } 
                else
                { 
                    m_pNativeTextInfo = GetNativeTextInfo(m_textInfoID);
                }
            }
        } 

 
        [OnDeserialized] 
        private void OnDeserialized(StreamingContext ctx)
        { 
            OnDeserialized();
        }

        [OnSerializing] 
        private void OnSerializing(StreamingContext ctx)
        { 
            m_nDataItem       = m_cultureTableRecord.EverettDataItem(); 
            m_useUserOverride = m_cultureTableRecord.UseUserOverride;
 
            if (CultureTableRecord.IsCustomCultureId(m_cultureTableRecord.CultureID))
            {
                customCultureName = m_cultureTableRecord.SNAME;
                m_win32LangID     = m_textInfoID; 
            }
            else 
            { 
                customCultureName = null;
                m_win32LangID     = m_cultureTableRecord.CultureID; 
            }

        }
 
#endregion Serialization
 
 
        internal static unsafe void* GetNativeTextInfo(int cultureID) {
 
#if !FEATURE_PAL

            if (cultureID == CultureInfo.LOCALE_INVARIANT &&
                Environment.OSVersion.Platform == PlatformID.Win32NT) 
            {
                void *pInvariantTextInfo = nativeGetInvariantTextInfo(); 
                if (pInvariantTextInfo != null) 
                {
                    return pInvariantTextInfo; 
                }
                throw new TypeInitializationException(typeof(System.Globalization.TextInfo).ToString(), null);
            }
 
#endif // !FEATURE_PAL
 
            // First, assume this culture does not has exceptions. I.e. we should use the default casingg table. 
            // So we assign the native NativeTextInfo for the default casing table to it.
            void *pNativeTextInfo = m_pDefaultCasingTable; 

            // Now, go thru the exception table to see if it has exception or not.
            for (int i = 0; i < m_exceptionCount; i++) {
                if (m_exceptionTable[i].langID == cultureID) { 
                    // This culture has exceptions.
                    if (m_exceptionNativeTextInfo[i] == 0) { 
                        lock (InternalSyncObject) { 
                            // Read the exception casing file.
                            if (m_pExceptionFile == null) { 
                                m_pExceptionFile = GlobalizationAssembly.GetGlobalizationResourceBytePtr(typeof(TextInfo).Assembly, CASING_EXCEPTIONS_FILE_NAME);
                            }
                            long tempPtr = (long)(InternalAllocateCasingTable(m_pExceptionFile, m_exceptionTable[i].exceptIndex));
                            System.Threading.Thread.MemoryBarrier(); 
                            m_exceptionNativeTextInfo[i] = tempPtr;
                        } 
                    } 
                    pNativeTextInfo = (void*)m_exceptionNativeTextInfo[i];
                    break; 
                }
            }
            return (pNativeTextInfo);
 
        }
 
        internal static unsafe int CompareOrdinalIgnoreCase(String str1, String str2) { 
            return (nativeCompareOrdinalIgnoreCase(InvariantNativeTextInfo, str1, str2));
        } 

        // This function doesn't check arguments. Please do check in the caller.
        // The underlying unmanaged code will assert the sanity of arguments.
        internal static unsafe int CompareOrdinalIgnoreCaseEx(String strA, int indexA, String strB, int indexB, int length ) { 
            return (nativeCompareOrdinalIgnoreCaseEx(InvariantNativeTextInfo, strA, indexA, strB, indexB, length));
        } 
 
        // This function doesn't check arguments. Please do check in the caller.
        // The underlying unmanaged code will assert the sanity of arguments. 
        internal static unsafe int GetHashCodeOrdinalIgnoreCase(String s) {
            return (nativeGetHashCodeOrdinalIgnoreCase(InvariantNativeTextInfo, s));
        }
 
        internal static unsafe int IndexOfStringOrdinalIgnoreCase(String source, String value, int startIndex, int count) {
            if (source == null) 
                throw new ArgumentNullException("source"); 

            return nativeIndexOfStringOrdinalIgnoreCase(InvariantNativeTextInfo, source, value, startIndex, count); 
        }

        internal static unsafe int LastIndexOfStringOrdinalIgnoreCase(String source, String value, int startIndex, int count) {
 
            if (source == null)
                throw new ArgumentNullException("source"); 
 
            return nativeLastIndexOfStringOrdinalIgnoreCase(InvariantNativeTextInfo, source, value, startIndex, count);
        } 

        ////////////////////////////////////////////////////////////////////////
        //
        //  CodePage 
        //
        //  Returns the number of the code page used by this writing system. 
        //  The type parameter can be any of the following values: 
        //      ANSICodePage
        //      OEMCodePage 
        //      MACCodePage
        //
        ////////////////////////////////////////////////////////////////////////
 

        public virtual int ANSICodePage { 
            get { 
                return (this.m_cultureTableRecord.IDEFAULTANSICODEPAGE);
            } 
        }


 
        public virtual int OEMCodePage {
            get { 
                return (this.m_cultureTableRecord.IDEFAULTOEMCODEPAGE); 
            }
        } 


        public virtual int MacCodePage {
            get { 
                return (this.m_cultureTableRecord.IDEFAULTMACCODEPAGE);
            } 
        } 

 
        public virtual int EBCDICCodePage {
            get {
                return (this.m_cultureTableRecord.IDEFAULTEBCDICCODEPAGE);
            } 
        }
 
 
        ////////////////////////////////////////////////////////////////////////
        // 
        //  LCID
        //
        //  We need a way to get an LCID from outside of the BCL. This prop is the way.
        // 
        // neutral cultures will cause GPS incorrect LCIDS from this
        //////////////////////////////////////////////////////////////////////// 
 

        [System.Runtime.InteropServices.ComVisible(false)] 
        public int LCID
        {
            get
            { 
                return (this.m_textInfoID);
            } 
        } 

        //////////////////////////////////////////////////////////////////////// 
        //
        //  CultureName
        //
        //  The name of the culture from which the TextInfo was created. Even better than 
        //  the LCID since the LCID is not always unique (like in custom cultures).
        // 
        //////////////////////////////////////////////////////////////////////// 

 
        [System.Runtime.InteropServices.ComVisible(false)]
        public string CultureName
        {
            get 
            {
                if(null == this.m_name) 
                { 
                    this.m_name = CultureInfo.GetCultureInfo(this.m_textInfoID).Name;
                } 

                return(this.m_name);
            }
        } 

        //////////////////////////////////////////////////////////////////////// 
        // 
        //  IsReadOnly
        // 
        //  Detect if the object is readonly.
        //
        ////////////////////////////////////////////////////////////////////////
        [System.Runtime.InteropServices.ComVisible(false)] 
        public bool IsReadOnly
        { 
            get { return (m_isReadOnly); } 
        }
 
        ////////////////////////////////////////////////////////////////////////
        //
        //  Clone
        // 
        //  Is the implementation of IColnable.
        // 
        //////////////////////////////////////////////////////////////////////// 
        [System.Runtime.InteropServices.ComVisible(false)]
        public virtual Object Clone() 
        {
            object o = MemberwiseClone();
            ((TextInfo) o).SetReadOnlyState(false);
            return (o); 
        }
 
        //////////////////////////////////////////////////////////////////////// 
        //
        //  ReadOnly 
        //
        //  Create a cloned readonly instance or return the input one if it is
        //  readonly.
        // 
        ////////////////////////////////////////////////////////////////////////
        [System.Runtime.InteropServices.ComVisible(false)] 
        public static TextInfo ReadOnly(TextInfo textInfo) 
        {
            if (textInfo == null)       { throw new ArgumentNullException("textInfo"); } 
            if (textInfo.IsReadOnly)    { return (textInfo); }

            TextInfo clonedTextInfo = (TextInfo)(textInfo.MemberwiseClone());
            clonedTextInfo.SetReadOnlyState(true); 

            return (clonedTextInfo); 
        } 

        private void VerifyWritable() 
        {
            if (m_isReadOnly)
            {
                throw new InvalidOperationException(Environment.GetResourceString("InvalidOperation_ReadOnly")); 
            }
        } 
 
        internal void SetReadOnlyState(bool readOnly)
        { 
            m_isReadOnly = readOnly;
        }

 
        ////////////////////////////////////////////////////////////////////////
        // 
        //  ListSeparator 
        //
        //  Returns the string used to separate items in a list. 
        //
        ////////////////////////////////////////////////////////////////////////

 
        public virtual String ListSeparator
        { 
            get 
            {
                if (m_listSeparator == null) { 
                    m_listSeparator = this.m_cultureTableRecord.SLIST;
                }
                return (m_listSeparator);
            } 

            [System.Runtime.InteropServices.ComVisible(false)] 
            set 
            {
                VerifyWritable(); 
                if (value == null)
                {
                    throw new ArgumentNullException("value", Environment.GetResourceString("ArgumentNull_String"));
                } 
                m_listSeparator = value;
            } 
        } 

        internal TextInfo CasingTextInfo 
        {
            get
            {
                if (m_casingTextInfo == null) 
                {
                    if (ANSICodePage == TurkishAnsiCodepage) 
                    { 
                        // Turkish cultures have different uppercase and lowercase for 'i' and 'I' characters. so we need
                        // to treat it as special case. 
                        m_casingTextInfo = CultureInfo.GetCultureInfo("tr-TR").TextInfo;
                    }
                    else
                    { 
                        m_casingTextInfo = CultureInfo.GetCultureInfo("en-US").TextInfo;
                    } 
                } 

                return m_casingTextInfo; 
            }
        }

        //////////////////////////////////////////////////////////////////////// 
        //
        //  ToLower 
        // 
        //  Converts the character or string to lower case.  Certain locales
        //  have different casing semantics from the file systems in Win32. 
        //
        ////////////////////////////////////////////////////////////////////////

        public unsafe virtual char ToLower(char c) 
        {
#if !FEATURE_PAL 
            //  
            if (m_cultureTableRecord.IsSynthetic)
            { 
                return CasingTextInfo.ToLower(c);
            }
#endif // !FEATURE_PAL
            return (nativeChangeCaseChar(m_textInfoID, m_pNativeTextInfo, c, false)); 
        }
 
        public unsafe virtual String ToLower(String str) 
        {
            if (str == null) { throw new ArgumentNullException("str"); } 

#if !FEATURE_PAL
            // 
            if (m_cultureTableRecord.IsSynthetic) 
            {
                return CasingTextInfo.ToLower(str); 
            } 
#endif // !FEATURE_PAL
 
            return (nativeChangeCaseString(m_textInfoID, m_pNativeTextInfo, str, false));
        }

        //////////////////////////////////////////////////////////////////////// 
        //
        //  ToUpper 
        // 
        //  Converts the character or string to upper case.  Certain locales
        //  have different casing semantics from the file systems in Win32. 
        //
        ////////////////////////////////////////////////////////////////////////

        public unsafe virtual char ToUpper(char c) 
        {
#if !FEATURE_PAL 
            //  
            if (m_cultureTableRecord.IsSynthetic)
            { 
                return CasingTextInfo.ToUpper(c);
            }
#endif // !FEATURE_PAL
            return (nativeChangeCaseChar(m_textInfoID, m_pNativeTextInfo, c, true)); 
        }
 
 
        public unsafe virtual String ToUpper(String str)
        { 
            if (str == null) { throw new ArgumentNullException("str"); }
#if !FEATURE_PAL
            // 
            if (m_cultureTableRecord.IsSynthetic) 
            {
                return CasingTextInfo.ToUpper(str); 
            } 
#endif // !FEATURE_PAL
 
            return (nativeChangeCaseString(m_textInfoID, m_pNativeTextInfo, str, true));
        }

        //////////////////////////////////////////////////////////////////////// 
        //
        //  Equals 
        // 
        //  Implements Object.Equals().  Returns a boolean indicating whether
        //  or not object refers to the same CultureInfo as the current instance. 
        //
        ////////////////////////////////////////////////////////////////////////

 
        public override bool Equals(Object obj)
        { 
            TextInfo that = obj as TextInfo; 

            if (that != null) 
            {
                return this.CultureName.Equals(that.CultureName);
            }
 
            return (false);
        } 
 

        //////////////////////////////////////////////////////////////////////// 
        //
        //  GetHashCode
        //
        //  Implements Object.GetHashCode().  Returns the hash code for the 
        //  CultureInfo.  The hash code is guaranteed to be the same for CultureInfo A
        //  and B where A.Equals(B) is true. 
        // 
        ////////////////////////////////////////////////////////////////////////
 

        public override int GetHashCode()
        {
            return (this.CultureName.GetHashCode()); 
        }
 
 
        ////////////////////////////////////////////////////////////////////////
        // 
        //  ToString
        //
        //  Implements Object.ToString().  Returns a string describing the
        //  TextInfo. 
        //
        //////////////////////////////////////////////////////////////////////// 
 

        public override String ToString() 
        {
            return ("TextInfo - " + this.m_textInfoID);
        }
 
        //
        // Used in ToTitleCase(): 
        // When we find a starting letter, the following array decides if a category should be 
        // considered as word seprator or not.
        // 
        private const int wordSeparatorMask =
            /* false */ (0 <<  0) | // UppercaseLetter = 0,
            /* false */ (0 <<  1) | // LowercaseLetter = 1,
            /* false */ (0 <<  2) | // TitlecaseLetter = 2, 
            /* false */ (0 <<  3) | // ModifierLetter = 3,
            /* false */ (0 <<  4) | // OtherLetter = 4, 
            /* false */ (0 <<  5) | // NonSpacingMark = 5, 
            /* false */ (0 <<  6) | // SpacingCombiningMark = 6,
            /* false */ (0 <<  7) | // EnclosingMark = 7, 
            /* false */ (0 <<  8) | // DecimalDigitNumber = 8,
            /* false */ (0 <<  9) | // LetterNumber = 9,
            /* false */ (0 << 10) | // OtherNumber = 10,
            /* true  */ (1 << 11) | // SpaceSeparator = 11, 
            /* true  */ (1 << 12) | // LineSeparator = 12,
            /* true  */ (1 << 13) | // ParagraphSeparator = 13, 
            /* true  */ (1 << 14) | // Control = 14, 
            /* true  */ (1 << 15) | // Format = 15,
            /* false */ (0 << 16) | // Surrogate = 16, 
            /* false */ (0 << 17) | // PrivateUse = 17,
            /* true  */ (1 << 18) | // ConnectorPunctuation = 18,
            /* true  */ (1 << 19) | // DashPunctuation = 19,
            /* true  */ (1 << 20) | // OpenPunctuation = 20, 
            /* true  */ (1 << 21) | // ClosePunctuation = 21,
            /* true  */ (1 << 22) | // InitialQuotePunctuation = 22, 
            /* true  */ (1 << 23) | // FinalQuotePunctuation = 23, 
            /* true  */ (1 << 24) | // OtherPunctuation = 24,
            /* true  */ (1 << 25) | // MathSymbol = 25, 
            /* true  */ (1 << 26) | // CurrencySymbol = 26,
            /* true  */ (1 << 27) | // ModifierSymbol = 27,
            /* true  */ (1 << 28) | // OtherSymbol = 28,
            /* false */ (0 << 29);  // OtherNotAssigned = 29; 

        private bool IsWordSeparator(UnicodeCategory category) { 
            return (wordSeparatorMask & (1 << (int)category)) != 0; 
        }
 
        // Returns the mapping of the specified string to title case.  Note that the
        // returned string may differ in length from the input string.
        // Generally, the first character of every word in str is uppercased.
        // For titlecase characters, they are uppercased in a specail way. 

        internal const int TurkishAnsiCodepage = 1254; 
 
        public unsafe String ToTitleCase(String str) {
            if (str==null) 
            {
                throw new ArgumentNullException("str");
            }
 
#if !FEATURE_PAL
            if (m_cultureTableRecord.IsSynthetic) 
            { 
                // 
                if (ANSICodePage == TurkishAnsiCodepage) 
                {
                    // Turkish cultures have different uppercase and lowercase for 'i' and 'I' characters. so we need
                    // to treat it as special case.
                    return CultureInfo.GetCultureInfo("tr-TR").TextInfo.ToTitleCase(str); 
                }
                return CultureInfo.GetCultureInfo("en-US").TextInfo.ToTitleCase(str); 
            } 
#endif // !FEATURE_PAL
 
            int len = str.Length;
            if (len == 0) {
                return (str);
            } 

            int i; 
            StringBuilder result = new StringBuilder(); 
            String lowercaseData = null;
 
            for (i = 0; i < len; i++) {
                UnicodeCategory charType;
                int charLen;
 
                charType = CharUnicodeInfo.InternalGetUnicodeCategory(str, i, out charLen);
                if (Char.CheckLetter(charType)) 
                { 
                    // Do the uppercasing for the first character of the word.
                    // There are titlecase characters that need to be special treated. 

                    if (charLen == 1) {
                        result.Append(nativeGetTitleCaseChar(m_pNativeTextInfo, str[i]));
                    } else { 
                        //
                        // ASSUMPTION: There is no titlecase char in the surrogate. 
                        // 
                        char resultHighSurrogate;
                        char resultLowSurrogate; 

                        ChangeCaseSurrogate(str[i], str[i+1], out resultHighSurrogate, out resultLowSurrogate, true);
                        result.Append(resultHighSurrogate);
                        result.Append(resultLowSurrogate); 
                    }
                    i+= charLen; 
 
                    //
                    // Convert the characters until the end of the this word 
                    // to lowercase.
                    //
                    int lowercaseStart = i;
 
                    //
                    // Use hasLowerCase flag to prevent from lowercasing acronyms (like "URT", "USA", etc) 
                    // This is in line with Word 2000 behavior of titilecasing. 
                    //
                    bool hasLowerCase = (charType == UnicodeCategory.LowercaseLetter); 
                    // Use a loop to find all of the other letters following this letter.
                    while (i < len) {
                        charType = CharUnicodeInfo.InternalGetUnicodeCategory(str, i, out charLen);
                        if (IsLetterCategory(charType)) { 
                            if (charType == UnicodeCategory.LowercaseLetter) {
                                hasLowerCase = true; 
                            } 
                            i += charLen;
                        } else if (str[i] == '\'') { 
                            // Special case for APOSTROPHE.  It should be considered part of the word.  E.g. "can't".
                            i++;
                            if (hasLowerCase) {
                                if (lowercaseData==null) { 
                                    lowercaseData = this.ToLower(str);
                                } 
                                result.Append(lowercaseData, lowercaseStart, i - lowercaseStart); 
                            } else {
                                result.Append(str, lowercaseStart, i - lowercaseStart); 
                            }
                            lowercaseStart = i;
                            hasLowerCase = true;
                        } else if (!IsWordSeparator(charType)) { 
                            // This category is considered to be part of the word.
                            // This is any category that is marked as false in wordSeprator array. 
                            i+= charLen; 
                        } else {
                            // A word separator. Break out of the loop. 
                            break;
                        }
                    }
 
                    int count = i - lowercaseStart;
 
                    if (count>0) { 
                        if (hasLowerCase) {
                            if (lowercaseData==null) { 
                                lowercaseData = this.ToLower(str);
                            }
                            result.Append(lowercaseData, lowercaseStart, count);
                        } else { 
                            result.Append(str, lowercaseStart, count);
                        } 
                    } 

                    if (i < len) { 
                        // Add the non-letter character.
                        if (charLen == 1) {
                            result.Append(str[i]);
                        } else { 
                            // Surrogate.
                            result.Append(str[i++]); 
                            result.Append(str[i]); 
                        }
                    } 
                } else {
                    //
                    // Not a letter, just append them.
                    // 
                    if (charLen == 1) {
                        result.Append(str[i]); 
                    } else { 
                        // Surrogate.
                        result.Append(str[i++]); 
                        result.Append(str[i]);
                    }
                }
            } 
            return (result.ToString());
        } 
 
        // The dominant direction of text and UI such as the relative position of buttons and scroll bars.
 

        [System.Runtime.InteropServices.ComVisible(false)]
        public bool IsRightToLeft
        { 
            get
            { 
                // The highest bit indicates writing order for left-to-right (0) or right-to-left (1) 
                return ((this.m_cultureTableRecord.ILINEORIENTATIONS & 0x8000) != 0);
            } 
        }

        private bool IsLetterCategory(UnicodeCategory uc) {
            return (uc == UnicodeCategory.UppercaseLetter 
                 || uc == UnicodeCategory.LowercaseLetter
                 || uc == UnicodeCategory.TitlecaseLetter 
                 || uc == UnicodeCategory.ModifierLetter 
                 || uc == UnicodeCategory.OtherLetter);
        } 

        /// 
        void IDeserializationCallback.OnDeserialization(Object sender)
        { 
            OnDeserialized();
        } 
 
        //
        // Get case-insensitive hash code for the specified string. 
        //
        // NOTENOTE: this is an internal function.  The caller should verify the string
        // is not null before calling this.  Currenlty, CaseInsensitiveHashCodeProvider
        // does that. 
        //
        internal unsafe int GetCaseInsensitiveHashCode(String str) { 
            // This must be called to guarantee m_pNativeTextInfo is initialized. 
            // The reason is that the order of calling OnDeserializtion on dependent
            // objects are not guaranteed, so a class using 
            // TextInfo class (Hashtable is an example) will have problems in
            // its deserializtion process if methods of TextInfo class is called in the
            // deserialization process.
            // 

            if (str==null) 
            { 
                 throw new ArgumentNullException("str");
            } 

            if (m_pNativeTextInfo == null)
            {
                OnDeserialized(); 
            }
 
            // This is the fix to avoid introduce 
            // a dependency on mscorlib.dll and mscorwks.dll, which the real fix needs.
            // By doing this, we will do uppercase twice for Turkish/Azeri, so it is slower 
            // in these two cultures.  The benefit is that we only have to do the fix in the managed side.
            switch (m_textInfoID)
            {
                case 0x041f:    // Turkish 
                case 0x042c:    // Azeri
                    // Uppercase the specified characters. 
                    str = nativeChangeCaseString(m_textInfoID, m_pNativeTextInfo, str, true); 
                    break;
            } 
            return (nativeGetCaseInsHash(str, m_pNativeTextInfo));
            // A better fix is to exam the m_wing32LangID and the high-char state in the native side to decide if we can do "fast hashing".
            //return nativeGetCaseInsHash(m_textInfoID, str, m_pNativeTextInfo);
 
        }
 
        // A thin wrapper to avoid us to mark ToTitleCase() as unsafe. 
        internal unsafe void ChangeCaseSurrogate(char highSurrogate, char lowSurrogate, out char resultHighSurrogate, out char resultLowSurrogate, bool isToUpper) {
            fixed (char* pResultChar1 = &resultHighSurrogate, pResultChar2 = &resultLowSurrogate) { 
                nativeChangeCaseSurrogate(m_pNativeTextInfo, highSurrogate, lowSurrogate, pResultChar1, pResultChar2, isToUpper);
            }
        }
 
        //This method requires synchronization and should only be called from the Class Initializer.
        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern void* AllocateDefaultCasingTable(byte* ptr); 

        //This method requires synchronization and should only be called from the Class Initializer. 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern void* nativeGetInvariantTextInfo();

        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern void* InternalAllocateCasingTable(byte* ptr, int exceptionIndex);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern int nativeGetCaseInsHash(String str, void* pNativeTextInfo);
        // private static extern int nativeGetCaseInsHash(int win32LangID, String str, void* pNativeTextInfo); 

        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern char nativeGetTitleCaseChar(void*pNativeTextInfo, char ch);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        internal static unsafe extern char   nativeChangeCaseChar(int win32LangID, void *pNativeTextInfo, char ch, bool isToUpper); 
        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        internal static unsafe extern String nativeChangeCaseString(int win32LangID, void*pNativeTextInfo, String str, bool isToUpper);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        internal static unsafe extern void nativeChangeCaseSurrogate(void *pNativeTextInfo, char highSurrogate, char lowSurrogate, char* resultHighSurrogate, char* resultLowSurrogate, bool isToUpper);

        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern int nativeCompareOrdinalIgnoreCase(void* pNativeTextInfo, String str1, String str2);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)] 
        private static unsafe extern int nativeCompareOrdinalIgnoreCaseEx(void* pNativeTextInfo, String strA, int indexA, String strB, int indexB, int length);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern int nativeGetHashCodeOrdinalIgnoreCase(void* pNativeTextInfo, String s);

 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern int nativeIndexOfStringOrdinalIgnoreCase(void* pNativeTextInfo, String str, String value, int startIndex, int count); 
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        private static unsafe extern int nativeLastIndexOfStringOrdinalIgnoreCase(void* pNativeTextInfo, String str, String value, int startIndex, int count); 

        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        internal static unsafe extern int nativeIndexOfCharOrdinalIgnoreCase(void* pNativeTextInfo, String str, Char value, int startIndex, int count);
 
        [MethodImplAttribute(MethodImplOptions.InternalCall)]
        internal static unsafe extern int nativeLastIndexOfCharOrdinalIgnoreCase(void* pNativeTextInfo, String str, Char value, int startIndex, int count); 
    } 

} 



// File provided for Reference Use Only by Microsoft Corporation (c) 2007.

                        

                        

                        
                        

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• ColumnResult.cs
• SystemWebSectionGroup.cs
• OperationAbortedException.cs
• MachineKeySection.cs
• BridgeDataRecord.cs
• Converter.cs
• MappingModelBuildProvider.cs
• RegisteredArrayDeclaration.cs
• SortedList.cs
• VBIdentifierDesigner.xaml.cs
• ObjectHandle.cs
• StringWriter.cs
• bindurihelper.cs
• NodeFunctions.cs
• SourceElementsCollection.cs
• LinkConverter.cs
• XmlDictionaryReader.cs
• ValidationRuleCollection.cs
• RsaSecurityTokenParameters.cs
• PropertyInformation.cs
• CodeAccessPermission.cs
• LocalizableAttribute.cs
• control.ime.cs
• TagPrefixInfo.cs
• CreateUserErrorEventArgs.cs
• EditBehavior.cs
• DataListItemCollection.cs
• ToolStripPanelSelectionBehavior.cs
• FrugalMap.cs
• ComponentChangedEvent.cs
• ComplexPropertyEntry.cs
• ContractTypeNameElement.cs
• LingerOption.cs
• WebAdminConfigurationHelper.cs
• TextCompositionManager.cs
• EventSinkHelperWriter.cs
• MenuItemCollection.cs
• RequestCacheEntry.cs
• ManagedIStream.cs
• OperationFormatStyle.cs
• SurrogateEncoder.cs
• ReadOnlyCollection.cs
• ExternalDataExchangeService.cs
• BinaryQueryOperator.cs
• GeneratedContractType.cs
• SqlDataSourceCache.cs
• IUnknownConstantAttribute.cs
• Helper.cs
• QilCloneVisitor.cs
• HitTestDrawingContextWalker.cs
• TextUtf8RawTextWriter.cs
• MatrixTransform3D.cs
• xmlsaver.cs
• PeerResolverBindingElement.cs
• ComponentCache.cs
• XmlSerializationWriter.cs
• InvalidMessageContractException.cs
• StorageRoot.cs
• Adorner.cs
• DocumentGridContextMenu.cs
• DescendantOverDescendantQuery.cs
• GetWinFXPath.cs
• Avt.cs
• ZoomingMessageFilter.cs
• UnicastIPAddressInformationCollection.cs
• ObjectContext.cs
• DataRecordObjectView.cs
• SqlDataSourceConfigureSelectPanel.cs
• EditorZone.cs
• WhereQueryOperator.cs
• Mouse.cs
• AuthenticationModuleElement.cs
• ItemsChangedEventArgs.cs
• RsaSecurityTokenAuthenticator.cs
• WindowsScrollBar.cs
• AudioLevelUpdatedEventArgs.cs
• ContentPosition.cs
• LogReservationCollection.cs
• LinqExpressionNormalizer.cs
• DataBoundControl.cs
• BamlCollectionHolder.cs
• MailDefinition.cs
• ExpressionBuilderContext.cs
• ArcSegment.cs
• PropertyGridCommands.cs
• WindowsAuthenticationEventArgs.cs
• SapiAttributeParser.cs
• HelpKeywordAttribute.cs
• ObjectRef.cs
• StateWorkerRequest.cs
• AppSecurityManager.cs
• OptimizedTemplateContentHelper.cs
• GridViewSelectEventArgs.cs
• DbDeleteCommandTree.cs
• newitemfactory.cs
• WindowsGraphics.cs
• cookie.cs
• TreeNodeBinding.cs
• SelectionBorderGlyph.cs
• ObjectStateEntryBaseUpdatableDataRecord.cs