Code:
/ Net / Net / 3.5.50727.3053 / DEVDIV / depot / DevDiv / releases / whidbey / netfxsp / ndp / fx / src / security / system / security / cryptography / BigInt.cs / 5 / BigInt.cs
// ==++==
//
// Copyright (c) Microsoft Corporation. All rights reserved.
//
// ==--==
//
// BigInt.cs
//
// 11/06/2002
//
namespace System.Security.Cryptography
{
using System.Security.Cryptography.X509Certificates;
using System.Text;
//
// This is a pretty "crude" implementation of BigInt arithmetic operations.
// This class is used in particular to convert certificate serial numbers from
// hexadecimal representation to decimal format and vice versa.
//
// We are not very concerned about the perf characterestics of this implementation
// for now. We perform all operations up to 128 bytes (which is enough for the current
// purposes although this constant can be increased). Any overflow bytes are going to be lost.
//
// A BigInt is represented as a little endian byte array of size 128 bytes. All
// arithmetic operations are performed in base 0x100 (256). The algorithms used
// are simply the common primary school techniques for doing operations in base 10.
//
internal sealed class BigInt {
private byte[] m_elements;
private const int m_maxbytes = 128; // 128 bytes is the maximum we can handle.
// This means any overflow bits beyond 128 bytes
// will be lost when doing arithmetic operations.
private const int m_base = 0x100;
private int m_size = 0;
internal BigInt () {
m_elements = new byte[m_maxbytes];
}
internal BigInt(byte b) {
m_elements = new byte[m_maxbytes];
SetDigit(0, b);
}
//
// Gets or sets the size of a BigInt.
//
internal int Size {
get {
return m_size;
}
set {
if (value > m_maxbytes)
m_size = m_maxbytes;
if (value < 0)
m_size = 0;
m_size = value;
}
}
//
// Gets the digit at the specified index.
//
internal byte GetDigit (int index) {
if (index < 0 || index >= m_size)
return 0;
return m_elements[index];
}
//
// Sets the digit at the specified index.
//
internal void SetDigit (int index, byte digit) {
if (index >= 0 && index < m_maxbytes) {
m_elements[index] = digit;
if (index >= m_size && digit != 0)
m_size = (index + 1);
if (index == m_size - 1 && digit == 0)
m_size--;
}
}
internal void SetDigit (int index, byte digit, ref int size) {
if (index >= 0 && index < m_maxbytes) {
m_elements[index] = digit;
if (index >= size && digit != 0)
size = (index + 1);
if (index == size - 1 && digit == 0)
size = (size - 1);
}
}
//
// overloaded operators.
//
public static bool operator < (BigInt value1, BigInt value2) {
if (value1 == null)
return true;
else if (value2 == null)
return false;
int Len1 = value1.Size;
int Len2 = value2.Size;
if (Len1 != Len2)
return (Len1 < Len2);
while (Len1-- > 0) {
if (value1.m_elements[Len1] != value2.m_elements[Len1])
return (value1.m_elements[Len1] < value2.m_elements[Len1]);
}
return false;
}
public static bool operator > (BigInt value1, BigInt value2) {
if (value1 == null)
return false;
else if (value2 == null)
return true;
int Len1 = value1.Size;
int Len2 = value2.Size;
if (Len1 != Len2)
return (Len1 > Len2);
while (Len1-- > 0) {
if (value1.m_elements[Len1] != value2.m_elements[Len1])
return (value1.m_elements[Len1] > value2.m_elements[Len1]);
}
return false;
}
public static bool operator == (BigInt value1, BigInt value2) {
if ((Object) value1 == null)
return ((Object) value2 == null);
else if ((Object) value2 == null)
return ((Object) value1 == null);
int Len1 = value1.Size;
int Len2 = value2.Size;
if (Len1 != Len2)
return false;
for (int index = 0; index < Len1; index++) {
if (value1.m_elements[index] != value2.m_elements[index])
return false;
}
return true;
}
public static bool operator != (BigInt value1, BigInt value2) {
return !(value1 == value2);
}
public override bool Equals (Object obj) {
if (obj is BigInt) {
return (this == (BigInt) obj);
}
return false;
}
public override int GetHashCode () {
int hash = 0;
for (int index = 0; index < m_size; index++) {
hash += GetDigit(index);
}
return hash;
}
//
// Adds a and b and outputs the result in c.
//
internal static void Add (BigInt a, byte b, ref BigInt c) {
byte carry = b;
int sum = 0;
int size = a.Size;
int newSize = 0;
for (int index = 0; index < size; index++) {
sum = a.GetDigit(index) + carry;
c.SetDigit(index, (byte) (sum & 0xFF), ref newSize);
carry = (byte) ((sum >> 8) & 0xFF);
}
if (carry != 0)
c.SetDigit(a.Size, carry, ref newSize);
c.Size = newSize;
}
//
// Negates a BigInt value. Each byte is complemented, then we add 1 to it.
//
internal static void Negate (ref BigInt a) {
int newSize = 0;
for (int index = 0; index < m_maxbytes; index++) {
a.SetDigit(index, (byte) (~a.GetDigit(index) & 0xFF), ref newSize);
}
for (int index = 0; index < m_maxbytes; index++) {
a.SetDigit(index, (byte) (a.GetDigit(index) + 1), ref newSize);
if ((a.GetDigit(index) & 0xFF) != 0) break;
a.SetDigit(index, (byte) (a.GetDigit(index) & 0xFF), ref newSize);
}
a.Size = newSize;
}
//
// Subtracts b from a and outputs the result in c.
//
internal static void Subtract (BigInt a, BigInt b, ref BigInt c) {
byte borrow = 0;
int diff = 0;
if (a < b) {
Subtract(b, a, ref c);
Negate(ref c);
return;
}
int index = 0;
int size = a.Size;
int newSize = 0;
for (index = 0; index < size; index++) {
diff = a.GetDigit(index) - b.GetDigit(index) - borrow;
borrow = 0;
if (diff < 0) {
diff += m_base;
borrow = 1;
}
c.SetDigit(index, (byte) (diff & 0xFF), ref newSize);
}
c.Size = newSize;
}
//
// multiplies a BigInt by an integer.
//
private void Multiply (int b) {
if (b == 0) {
Clear();
return;
}
int carry = 0, product = 0;
int size = this.Size;
int newSize = 0;
for (int index = 0; index < size; index++) {
product = b * GetDigit(index) + carry;
carry = product / m_base;
SetDigit(index, (byte) (product % m_base), ref newSize);
}
if (carry != 0) {
byte[] bytes = BitConverter.GetBytes(carry);
for (int index = 0; index < bytes.Length; index++) {
SetDigit(size + index, bytes[index], ref newSize);
}
}
this.Size = newSize;
}
private static void Multiply (BigInt a, int b, ref BigInt c) {
if (b == 0) {
c.Clear();
return;
}
int carry = 0, product = 0;
int size = a.Size;
int newSize = 0;
for (int index = 0; index < size; index++) {
product = b * a.GetDigit(index) + carry;
carry = product / m_base;
c.SetDigit(index, (byte) (product % m_base), ref newSize);
}
if (carry != 0) {
byte[] bytes = BitConverter.GetBytes(carry);
for (int index = 0; index < bytes.Length; index++) {
c.SetDigit(size + index, bytes[index], ref newSize);
}
}
c.Size = newSize;
}
//
// Divides a BigInt by a single byte.
//
private void Divide (int b) {
int carry = 0, quotient = 0;
int bLen = this.Size;
int newSize = 0;
while (bLen-- > 0) {
quotient = m_base * carry + GetDigit(bLen);
carry = quotient % b;
SetDigit(bLen, (byte) (quotient / b), ref newSize);
}
this.Size = newSize;
}
//
// Integer division of one BigInt by another.
//
internal static void Divide (BigInt numerator, BigInt denominator, ref BigInt quotient, ref BigInt remainder) {
// Avoid extra computations in special cases.
if (numerator < denominator) {
quotient.Clear();
remainder.CopyFrom(numerator);
return;
}
if (numerator == denominator) {
quotient.Clear(); quotient.SetDigit(0, 1);
remainder.Clear();
return;
}
BigInt dividend = new BigInt();
dividend.CopyFrom(numerator);
BigInt divisor = new BigInt();
divisor.CopyFrom(denominator);
uint zeroCount = 0;
// We pad the divisor with zeros until its size equals that of the dividend.
while (divisor.Size < dividend.Size) {
divisor.Multiply(m_base);
zeroCount++;
}
if (divisor > dividend) {
divisor.Divide(m_base);
zeroCount--;
}
// Use school division techniques, make a guess for how many times
// divisor goes into dividend, making adjustment if necessary.
int a = 0;
int b = 0;
int c = 0;
BigInt hold = new BigInt();
quotient.Clear();
for (int index = 0; index <= zeroCount; index++) {
a = dividend.Size == divisor.Size ? dividend.GetDigit(dividend.Size - 1) :
m_base * dividend.GetDigit(dividend.Size - 1) + dividend.GetDigit(dividend.Size - 2);
b = divisor.GetDigit(divisor.Size - 1);
c = a / b;
if (c >= m_base)
c = 0xFF;
Multiply(divisor, c, ref hold);
while (hold > dividend) {
c--;
Multiply(divisor, c, ref hold);
}
quotient.Multiply(m_base);
Add(quotient, (byte) c, ref quotient);
Subtract(dividend, hold, ref dividend);
divisor.Divide(m_base);
}
remainder.CopyFrom(dividend);
}
//
// copies a BigInt value.
//
internal void CopyFrom (BigInt a) {
Array.Copy(a.m_elements, m_elements, m_maxbytes);
m_size = a.m_size;
}
//
// This method returns true if the BigInt is equal to 0, false otherwise.
//
internal bool IsZero () {
for (int index = 0; index < m_size; index++) {
if (m_elements[index] != 0)
return false;
}
return true;
}
//
// returns the array in machine format, i.e. little endian format (as an integer).
//
internal byte[] ToByteArray() {
byte[] result = new byte[this.Size];
Array.Copy(m_elements, result, this.Size);
return result;
}
//
// zeroizes the content of the internal array.
//
internal void Clear () {
m_size = 0;
}
//
// Imports a hexadecimal string into a BigInt bit representation.
//
internal void FromHexadecimal (string hexNum) {
byte[] hex = X509Utils.DecodeHexString(hexNum);
Array.Reverse(hex);
int size = X509Utils.GetHexArraySize(hex);
Array.Copy(hex, m_elements, size);
this.Size = size;
}
//
// Imports a decimal string into a BigInt bit representation.
//
internal void FromDecimal (string decNum) {
BigInt c = new BigInt();
BigInt tmp = new BigInt();
int length = decNum.Length;
for (int index = 0; index < length; index++) {
// just ignore invalid characters. No need to raise an exception.
if (decNum[index] > '9' || decNum[index] < '0')
continue;
Multiply(c, 10, ref tmp);
Add(tmp, (byte) (decNum[index] - '0'), ref c);
}
CopyFrom(c);
}
//
// Exports the BigInt representation as a decimal string.
//
private static readonly char[] decValues = {'0', '1', '2', '3', '4', '5', '6', '7', '8', '9'};
internal string ToDecimal ()
{
if (IsZero())
return "0";
BigInt ten = new BigInt(0xA);
BigInt numerator = new BigInt();
BigInt quotient = new BigInt();
BigInt remainder = new BigInt();
numerator.CopyFrom(this);
// Each hex digit can account for log(16) = 1.21 decimal digits. Times two hex digits in a byte
// and m_size bytes used in this BigInt, yields the maximum number of characters for the decimal
// representation of the BigInt.
char[] dec = new char[(int)Math.Ceiling(m_size * 2 * 1.21)];
int index = 0;
do
{
Divide(numerator, ten, ref quotient, ref remainder);
dec[index++] = decValues[remainder.IsZero() ? 0 : (int)remainder.m_elements[0]];
numerator.CopyFrom(quotient);
} while (quotient.IsZero() == false);
Array.Reverse(dec, 0, index);
return new String(dec, 0, index);
}
}
}
// File provided for Reference Use Only by Microsoft Corporation (c) 2007.
// ==++==
//
// Copyright (c) Microsoft Corporation. All rights reserved.
//
// ==--==
//
// BigInt.cs
//
// 11/06/2002
//
namespace System.Security.Cryptography
{
using System.Security.Cryptography.X509Certificates;
using System.Text;
//
// This is a pretty "crude" implementation of BigInt arithmetic operations.
// This class is used in particular to convert certificate serial numbers from
// hexadecimal representation to decimal format and vice versa.
//
// We are not very concerned about the perf characterestics of this implementation
// for now. We perform all operations up to 128 bytes (which is enough for the current
// purposes although this constant can be increased). Any overflow bytes are going to be lost.
//
// A BigInt is represented as a little endian byte array of size 128 bytes. All
// arithmetic operations are performed in base 0x100 (256). The algorithms used
// are simply the common primary school techniques for doing operations in base 10.
//
internal sealed class BigInt {
private byte[] m_elements;
private const int m_maxbytes = 128; // 128 bytes is the maximum we can handle.
// This means any overflow bits beyond 128 bytes
// will be lost when doing arithmetic operations.
private const int m_base = 0x100;
private int m_size = 0;
internal BigInt () {
m_elements = new byte[m_maxbytes];
}
internal BigInt(byte b) {
m_elements = new byte[m_maxbytes];
SetDigit(0, b);
}
//
// Gets or sets the size of a BigInt.
//
internal int Size {
get {
return m_size;
}
set {
if (value > m_maxbytes)
m_size = m_maxbytes;
if (value < 0)
m_size = 0;
m_size = value;
}
}
//
// Gets the digit at the specified index.
//
internal byte GetDigit (int index) {
if (index < 0 || index >= m_size)
return 0;
return m_elements[index];
}
//
// Sets the digit at the specified index.
//
internal void SetDigit (int index, byte digit) {
if (index >= 0 && index < m_maxbytes) {
m_elements[index] = digit;
if (index >= m_size && digit != 0)
m_size = (index + 1);
if (index == m_size - 1 && digit == 0)
m_size--;
}
}
internal void SetDigit (int index, byte digit, ref int size) {
if (index >= 0 && index < m_maxbytes) {
m_elements[index] = digit;
if (index >= size && digit != 0)
size = (index + 1);
if (index == size - 1 && digit == 0)
size = (size - 1);
}
}
//
// overloaded operators.
//
public static bool operator < (BigInt value1, BigInt value2) {
if (value1 == null)
return true;
else if (value2 == null)
return false;
int Len1 = value1.Size;
int Len2 = value2.Size;
if (Len1 != Len2)
return (Len1 < Len2);
while (Len1-- > 0) {
if (value1.m_elements[Len1] != value2.m_elements[Len1])
return (value1.m_elements[Len1] < value2.m_elements[Len1]);
}
return false;
}
public static bool operator > (BigInt value1, BigInt value2) {
if (value1 == null)
return false;
else if (value2 == null)
return true;
int Len1 = value1.Size;
int Len2 = value2.Size;
if (Len1 != Len2)
return (Len1 > Len2);
while (Len1-- > 0) {
if (value1.m_elements[Len1] != value2.m_elements[Len1])
return (value1.m_elements[Len1] > value2.m_elements[Len1]);
}
return false;
}
public static bool operator == (BigInt value1, BigInt value2) {
if ((Object) value1 == null)
return ((Object) value2 == null);
else if ((Object) value2 == null)
return ((Object) value1 == null);
int Len1 = value1.Size;
int Len2 = value2.Size;
if (Len1 != Len2)
return false;
for (int index = 0; index < Len1; index++) {
if (value1.m_elements[index] != value2.m_elements[index])
return false;
}
return true;
}
public static bool operator != (BigInt value1, BigInt value2) {
return !(value1 == value2);
}
public override bool Equals (Object obj) {
if (obj is BigInt) {
return (this == (BigInt) obj);
}
return false;
}
public override int GetHashCode () {
int hash = 0;
for (int index = 0; index < m_size; index++) {
hash += GetDigit(index);
}
return hash;
}
//
// Adds a and b and outputs the result in c.
//
internal static void Add (BigInt a, byte b, ref BigInt c) {
byte carry = b;
int sum = 0;
int size = a.Size;
int newSize = 0;
for (int index = 0; index < size; index++) {
sum = a.GetDigit(index) + carry;
c.SetDigit(index, (byte) (sum & 0xFF), ref newSize);
carry = (byte) ((sum >> 8) & 0xFF);
}
if (carry != 0)
c.SetDigit(a.Size, carry, ref newSize);
c.Size = newSize;
}
//
// Negates a BigInt value. Each byte is complemented, then we add 1 to it.
//
internal static void Negate (ref BigInt a) {
int newSize = 0;
for (int index = 0; index < m_maxbytes; index++) {
a.SetDigit(index, (byte) (~a.GetDigit(index) & 0xFF), ref newSize);
}
for (int index = 0; index < m_maxbytes; index++) {
a.SetDigit(index, (byte) (a.GetDigit(index) + 1), ref newSize);
if ((a.GetDigit(index) & 0xFF) != 0) break;
a.SetDigit(index, (byte) (a.GetDigit(index) & 0xFF), ref newSize);
}
a.Size = newSize;
}
//
// Subtracts b from a and outputs the result in c.
//
internal static void Subtract (BigInt a, BigInt b, ref BigInt c) {
byte borrow = 0;
int diff = 0;
if (a < b) {
Subtract(b, a, ref c);
Negate(ref c);
return;
}
int index = 0;
int size = a.Size;
int newSize = 0;
for (index = 0; index < size; index++) {
diff = a.GetDigit(index) - b.GetDigit(index) - borrow;
borrow = 0;
if (diff < 0) {
diff += m_base;
borrow = 1;
}
c.SetDigit(index, (byte) (diff & 0xFF), ref newSize);
}
c.Size = newSize;
}
//
// multiplies a BigInt by an integer.
//
private void Multiply (int b) {
if (b == 0) {
Clear();
return;
}
int carry = 0, product = 0;
int size = this.Size;
int newSize = 0;
for (int index = 0; index < size; index++) {
product = b * GetDigit(index) + carry;
carry = product / m_base;
SetDigit(index, (byte) (product % m_base), ref newSize);
}
if (carry != 0) {
byte[] bytes = BitConverter.GetBytes(carry);
for (int index = 0; index < bytes.Length; index++) {
SetDigit(size + index, bytes[index], ref newSize);
}
}
this.Size = newSize;
}
private static void Multiply (BigInt a, int b, ref BigInt c) {
if (b == 0) {
c.Clear();
return;
}
int carry = 0, product = 0;
int size = a.Size;
int newSize = 0;
for (int index = 0; index < size; index++) {
product = b * a.GetDigit(index) + carry;
carry = product / m_base;
c.SetDigit(index, (byte) (product % m_base), ref newSize);
}
if (carry != 0) {
byte[] bytes = BitConverter.GetBytes(carry);
for (int index = 0; index < bytes.Length; index++) {
c.SetDigit(size + index, bytes[index], ref newSize);
}
}
c.Size = newSize;
}
//
// Divides a BigInt by a single byte.
//
private void Divide (int b) {
int carry = 0, quotient = 0;
int bLen = this.Size;
int newSize = 0;
while (bLen-- > 0) {
quotient = m_base * carry + GetDigit(bLen);
carry = quotient % b;
SetDigit(bLen, (byte) (quotient / b), ref newSize);
}
this.Size = newSize;
}
//
// Integer division of one BigInt by another.
//
internal static void Divide (BigInt numerator, BigInt denominator, ref BigInt quotient, ref BigInt remainder) {
// Avoid extra computations in special cases.
if (numerator < denominator) {
quotient.Clear();
remainder.CopyFrom(numerator);
return;
}
if (numerator == denominator) {
quotient.Clear(); quotient.SetDigit(0, 1);
remainder.Clear();
return;
}
BigInt dividend = new BigInt();
dividend.CopyFrom(numerator);
BigInt divisor = new BigInt();
divisor.CopyFrom(denominator);
uint zeroCount = 0;
// We pad the divisor with zeros until its size equals that of the dividend.
while (divisor.Size < dividend.Size) {
divisor.Multiply(m_base);
zeroCount++;
}
if (divisor > dividend) {
divisor.Divide(m_base);
zeroCount--;
}
// Use school division techniques, make a guess for how many times
// divisor goes into dividend, making adjustment if necessary.
int a = 0;
int b = 0;
int c = 0;
BigInt hold = new BigInt();
quotient.Clear();
for (int index = 0; index <= zeroCount; index++) {
a = dividend.Size == divisor.Size ? dividend.GetDigit(dividend.Size - 1) :
m_base * dividend.GetDigit(dividend.Size - 1) + dividend.GetDigit(dividend.Size - 2);
b = divisor.GetDigit(divisor.Size - 1);
c = a / b;
if (c >= m_base)
c = 0xFF;
Multiply(divisor, c, ref hold);
while (hold > dividend) {
c--;
Multiply(divisor, c, ref hold);
}
quotient.Multiply(m_base);
Add(quotient, (byte) c, ref quotient);
Subtract(dividend, hold, ref dividend);
divisor.Divide(m_base);
}
remainder.CopyFrom(dividend);
}
//
// copies a BigInt value.
//
internal void CopyFrom (BigInt a) {
Array.Copy(a.m_elements, m_elements, m_maxbytes);
m_size = a.m_size;
}
//
// This method returns true if the BigInt is equal to 0, false otherwise.
//
internal bool IsZero () {
for (int index = 0; index < m_size; index++) {
if (m_elements[index] != 0)
return false;
}
return true;
}
//
// returns the array in machine format, i.e. little endian format (as an integer).
//
internal byte[] ToByteArray() {
byte[] result = new byte[this.Size];
Array.Copy(m_elements, result, this.Size);
return result;
}
//
// zeroizes the content of the internal array.
//
internal void Clear () {
m_size = 0;
}
//
// Imports a hexadecimal string into a BigInt bit representation.
//
internal void FromHexadecimal (string hexNum) {
byte[] hex = X509Utils.DecodeHexString(hexNum);
Array.Reverse(hex);
int size = X509Utils.GetHexArraySize(hex);
Array.Copy(hex, m_elements, size);
this.Size = size;
}
//
// Imports a decimal string into a BigInt bit representation.
//
internal void FromDecimal (string decNum) {
BigInt c = new BigInt();
BigInt tmp = new BigInt();
int length = decNum.Length;
for (int index = 0; index < length; index++) {
// just ignore invalid characters. No need to raise an exception.
if (decNum[index] > '9' || decNum[index] < '0')
continue;
Multiply(c, 10, ref tmp);
Add(tmp, (byte) (decNum[index] - '0'), ref c);
}
CopyFrom(c);
}
//
// Exports the BigInt representation as a decimal string.
//
private static readonly char[] decValues = {'0', '1', '2', '3', '4', '5', '6', '7', '8', '9'};
internal string ToDecimal ()
{
if (IsZero())
return "0";
BigInt ten = new BigInt(0xA);
BigInt numerator = new BigInt();
BigInt quotient = new BigInt();
BigInt remainder = new BigInt();
numerator.CopyFrom(this);
// Each hex digit can account for log(16) = 1.21 decimal digits. Times two hex digits in a byte
// and m_size bytes used in this BigInt, yields the maximum number of characters for the decimal
// representation of the BigInt.
char[] dec = new char[(int)Math.Ceiling(m_size * 2 * 1.21)];
int index = 0;
do
{
Divide(numerator, ten, ref quotient, ref remainder);
dec[index++] = decValues[remainder.IsZero() ? 0 : (int)remainder.m_elements[0]];
numerator.CopyFrom(quotient);
} while (quotient.IsZero() == false);
Array.Reverse(dec, 0, index);
return new String(dec, 0, index);
}
}
}
// File provided for Reference Use Only by Microsoft Corporation (c) 2007.
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- TransportSecurityHelpers.cs
- DataGrid.cs
- DataGridViewCellValidatingEventArgs.cs
- EnumValAlphaComparer.cs
- MemberDescriptor.cs
- WsdlInspector.cs
- DragSelectionMessageFilter.cs
- XmlILCommand.cs
- ExpressionReplacer.cs
- ChangeNode.cs
- DictionaryEntry.cs
- MdiWindowListItemConverter.cs
- ContextItem.cs
- QueryConverter.cs
- Scene3D.cs
- HandoffBehavior.cs
- QueryCreatedEventArgs.cs
- EntityDataSourceWrapperCollection.cs
- WebAdminConfigurationHelper.cs
- ProjectionCamera.cs
- HybridDictionary.cs
- HtmlLink.cs
- RequestTimeoutManager.cs
- AuthenticationSection.cs
- IPipelineRuntime.cs
- COM2Enum.cs
- KeyManager.cs
- PageTheme.cs
- NamedPermissionSet.cs
- XmlSignificantWhitespace.cs
- XmlSchemaImport.cs
- FormViewUpdateEventArgs.cs
- UniqueIdentifierService.cs
- Point3DValueSerializer.cs
- JapaneseLunisolarCalendar.cs
- BufferBuilder.cs
- XsltOutput.cs
- OpCodes.cs
- DesignerAttributeInfo.cs
- Debugger.cs
- columnmapkeybuilder.cs
- xmlNames.cs
- Axis.cs
- ArraySegment.cs
- DynamicMetaObject.cs
- SimpleTypeResolver.cs
- PageBreakRecord.cs
- DescendantQuery.cs
- BitmapData.cs
- TextDecorationCollection.cs
- SerializationStore.cs
- SubclassTypeValidator.cs
- ParameterRetriever.cs
- SerializationFieldInfo.cs
- MemoryFailPoint.cs
- ValueTypeFixupInfo.cs
- XamlStyleSerializer.cs
- HttpListenerPrefixCollection.cs
- TabletDevice.cs
- BaseCollection.cs
- ChannelAcceptor.cs
- BroadcastEventHelper.cs
- GetPageCompletedEventArgs.cs
- BaseCollection.cs
- SqlException.cs
- StringComparer.cs
- ImpersonationContext.cs
- ForceCopyBuildProvider.cs
- XmlFormatReaderGenerator.cs
- ToolStripProgressBar.cs
- Track.cs
- isolationinterop.cs
- RequestQueue.cs
- TableRowCollection.cs
- NavigationWindowAutomationPeer.cs
- TokenBasedSetEnumerator.cs
- SchemaImporter.cs
- ColumnTypeConverter.cs
- DrawingCollection.cs
- XmlSchemaValidationException.cs
- CallbackValidator.cs
- MessageHeaderException.cs
- Parallel.cs
- FragmentNavigationEventArgs.cs
- CapabilitiesSection.cs
- JapaneseLunisolarCalendar.cs
- ContentAlignmentEditor.cs
- Renderer.cs
- AnnotationAdorner.cs
- EntityExpressionVisitor.cs
- ExceptionHandlerDesigner.cs
- WebZone.cs
- TabPanel.cs
- WebPartConnectionsCloseVerb.cs
- JsonCollectionDataContract.cs
- HebrewNumber.cs
- StylusCaptureWithinProperty.cs
- EditBehavior.cs
- WebPartVerb.cs
- MsmqInputChannelBase.cs