internal object this[CacheObjType cacheType]
{
[SecurityCritical]
get
{
InternalCacheItem[] cache = this.m_cache;
int numItems = this.m_numItems;
int index = this.FindObjectPosition(cache, numItems, cacheType, false);
if (index >= 0)
{
bool flag1 = BCLDebug.m_loggingNotEnabled;
return(cache[index].Value);
}
bool loggingNotEnabled = BCLDebug.m_loggingNotEnabled;
return(null);
}
[SecurityCritical]
set
{
bool loggingNotEnabled = BCLDebug.m_loggingNotEnabled;
lock (this)
{
int index = this.FindObjectPosition(this.m_cache, this.m_numItems, cacheType, true);
if (index > 0)
{
this.m_cache[index].Value = value;
this.m_cache[index].Key = cacheType;
if (index == this.m_numItems)
{
this.m_numItems++;
}
}
else if (this.m_cache == null)
{
bool flag2 = BCLDebug.m_loggingNotEnabled;
this.m_cache = new InternalCacheItem[2];
this.m_cache[0].Value = value;
this.m_cache[0].Key = cacheType;
this.m_numItems = 1;
}
else
{
bool flag3 = BCLDebug.m_loggingNotEnabled;
InternalCacheItem[] itemArray = new InternalCacheItem[this.m_numItems * 2];
for (int i = 0; i < this.m_numItems; i++)
{
itemArray[i] = this.m_cache[i];
}
itemArray[this.m_numItems].Value = value;
itemArray[this.m_numItems].Key = cacheType;
this.m_cache = itemArray;
this.m_numItems++;
}
}
}
}
private int FindObjectPosition(InternalCacheItem[] cache, int itemCount, CacheObjType cacheType, bool findEmpty)
{
if (cache != null)
{
if (itemCount > cache.Length)
{
itemCount = cache.Length;
}
for (int i = 0; i < itemCount; i++)
{
if (cacheType == cache[i].Key)
{
return i;
}
}
if (findEmpty && (itemCount < (cache.Length - 1)))
{
return (itemCount + 1);
}
}
return -1;
}
internal Object this[CacheObjType cacheType] {
[System.Security.SecurityCritical] // auto-generated
get {
//Let's snapshot a reference to the array up front so that
//we don't have to worry about any writers. It's important
//to grab the cache first and then numItems. In the event that
//the cache gets cleared, m_numItems will be set to 0 before
//we actually release the cache. Getting it second will cause
//us to walk only 0 elements, but not to fault.
InternalCacheItem[] cache = m_cache;
int numItems = m_numItems;
int position = FindObjectPosition(cache, numItems, cacheType, false);
if (position>=0) {
if (!BCLDebug.m_loggingNotEnabled)
LogAction(CacheAction.LookupItemHit, cacheType, cache[position].Value);
return cache[position].Value;
}
//Couldn't find it -- oh, well.
if (!BCLDebug.m_loggingNotEnabled)
LogAction(CacheAction.LookupItemMiss, cacheType);
return null;
}
[System.Security.SecurityCritical] // auto-generated
set {
int position;
if (!BCLDebug.m_loggingNotEnabled)
LogAction(CacheAction.AddItem, cacheType, value);
lock(this) {
position = FindObjectPosition(m_cache, m_numItems, cacheType, true);
if (position>0) {
m_cache[position].Value = value;
m_cache[position].Key = cacheType;
if (position==m_numItems) {
m_numItems++;
}
return;
}
if (m_cache==null) {
if (!BCLDebug.m_loggingNotEnabled)
LogAction(CacheAction.AllocateCache, cacheType);
// m_copying = true;
m_cache = new InternalCacheItem[MinCacheSize];
m_cache[0].Value = value;
m_cache[0].Key = cacheType;
m_numItems = 1;
// m_copying = false;
} else {
if (!BCLDebug.m_loggingNotEnabled)
LogAction(CacheAction.GrowCache, cacheType);
// m_copying = true;
InternalCacheItem[] tempCache = new InternalCacheItem[m_numItems * 2];
for (int i=0; i<m_numItems; i++) {
tempCache[i] = m_cache[i];
}
tempCache[m_numItems].Value = value;
tempCache[m_numItems].Key = cacheType;
m_cache = tempCache;
m_numItems++;
// m_copying = false;
}
}
}
}
private int FindObjectPosition(InternalCacheItem[] cache, int itemCount, CacheObjType cacheType, bool findEmpty) {
if (cache==null) {
return -1;
}
//This helps us in the case where we grabbed the cache and then
//somebody added an item, forced a reallocation, and hence made
//itemCount greater than the length of cache.
if (itemCount > cache.Length) {
itemCount = cache.Length;
}
for (int i=0; i<itemCount; i++) {
if (cacheType==cache[i].Key) {
return i;
}
}
if (findEmpty) {
if (itemCount<(cache.Length-1)) {
return itemCount + 1;
}
}
return -1;
}
internal object this[CacheObjType cacheType]
{
[SecurityCritical]
get
{
InternalCacheItem[] cache = this.m_cache;
int numItems = this.m_numItems;
int index = this.FindObjectPosition(cache, numItems, cacheType, false);
if (index >= 0)
{
bool flag1 = BCLDebug.m_loggingNotEnabled;
return cache[index].Value;
}
bool loggingNotEnabled = BCLDebug.m_loggingNotEnabled;
return null;
}
[SecurityCritical]
set
{
bool loggingNotEnabled = BCLDebug.m_loggingNotEnabled;
lock (this)
{
int index = this.FindObjectPosition(this.m_cache, this.m_numItems, cacheType, true);
if (index > 0)
{
this.m_cache[index].Value = value;
this.m_cache[index].Key = cacheType;
if (index == this.m_numItems)
{
this.m_numItems++;
}
}
else if (this.m_cache == null)
{
bool flag2 = BCLDebug.m_loggingNotEnabled;
this.m_cache = new InternalCacheItem[2];
this.m_cache[0].Value = value;
this.m_cache[0].Key = cacheType;
this.m_numItems = 1;
}
else
{
bool flag3 = BCLDebug.m_loggingNotEnabled;
InternalCacheItem[] itemArray = new InternalCacheItem[this.m_numItems * 2];
for (int i = 0; i < this.m_numItems; i++)
{
itemArray[i] = this.m_cache[i];
}
itemArray[this.m_numItems].Value = value;
itemArray[this.m_numItems].Key = cacheType;
this.m_cache = itemArray;
this.m_numItems++;
}
}
}
}
internal Object this[CacheObjType cacheType] {
get {
//Let's snapshot a reference to the array up front so that
//we don't have to worry about any writers. It's important
//to grab the cache first and then numItems. In the event that
//the cache gets cleared, m_numItems will be set to 0 before
//we actually release the cache. Getting it second will cause
//us to walk only 0 elements, but not to fault.
InternalCacheItem[] cache = m_cache;
int numItems = m_numItems;
int position = FindObjectPosition(cache, numItems, cacheType, false);
if (position >= 0)
{
LogAction(CacheAction.LookupItemHit, cacheType, cache[position].Value);
return(cache[position].Value);
}
//Couldn't find it -- oh, well.
LogAction(CacheAction.LookupItemMiss, cacheType);
return(null);
}
set {
int position;
LogAction(CacheAction.AddItem, cacheType, value);
lock (this) {
position = FindObjectPosition(m_cache, m_numItems, cacheType, true);
if (position > 0)
{
m_cache[position].Value = value;
m_cache[position].Key = cacheType;
if (position == m_numItems)
{
m_numItems++;
}
return;
}
if (m_cache == null)
{
LogAction(CacheAction.AllocateCache, cacheType);
// m_copying = true;
m_cache = new InternalCacheItem[MinCacheSize];
m_cache[0].Value = value;
m_cache[0].Key = cacheType;
m_numItems = 1;
// m_copying = false;
}
else
{
LogAction(CacheAction.GrowCache, cacheType);
// m_copying = true;
InternalCacheItem[] tempCache = new InternalCacheItem[m_numItems * 2];
for (int i = 0; i < m_numItems; i++)
{
tempCache[i] = m_cache[i];
}
tempCache[m_numItems].Value = value;
tempCache[m_numItems].Key = cacheType;
m_cache = tempCache;
m_numItems++;
// m_copying = false;
}
}
}
}
//This is a debugging-only function which verifies that the object is of the
//the correct type and follows some arbitrary set of constraints. Please
//add any validation code which you require to the switch statement below.
//
//Note to Testing: These are not localized strings because this error checking
//occurs only in the debug build and I don't want to push extra resources
//into the build which are not going to be used for customers.
[Conditional("_DEBUG")] private void OnValidate(InternalCacheItem item)
{
switch (item.Key)
{
case CacheObjType.ParameterInfo:
if (!(item.Value is System.Reflection.ParameterInfo))
{
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a ParameterInfo");
}
break;
case CacheObjType.TypeName:
if (!(item.Value is String))
{
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null String");
}
break;
case CacheObjType.AssemblyName:
if (!(item.Value is String))
{
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null String");
}
break;
case CacheObjType.RemotingData:
if (!(item.Value is RemotingCachedData))
{
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a RemotingCacheData");
}
break;
case CacheObjType.SerializableAttribute:
if (!(item.Value is SerializableAttribute))
{
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a SerializableAttribute");
}
break;
case CacheObjType.FieldName:
if (!(item.Value is String))
{
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null String");
}
break;
case CacheObjType.FieldType:
if (!(item.Value is Type))
{
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null Type");
}
break;
case CacheObjType.DefaultMember:
if (!(item.Value is String))
{
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null String");
}
break;
default:
throw new ArgumentException("Invalid caching type. Please add " + item.Value + " to the validated types in InternalCache.");
}
}
//This is a debugging-only function which verifies that the object is of the
//the correct type and follows some arbitrary set of constraints. Please
//add any validation code which you require to the switch statement below.
//
//Note to Testing: These are not localized strings because this error checking
//occurs only in the debug build and I don't want to push extra resources
//into the build which are not going to be used for customers.
[Conditional("_DEBUG")] private void OnValidate(InternalCacheItem item) {
switch (item.Key) {
case CacheObjType.ParameterInfo:
if (!(item.Value is System.Reflection.ParameterInfo)) {
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a ParameterInfo");
}
break;
case CacheObjType.TypeName:
if (!(item.Value is String)) {
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null String");
}
break;
case CacheObjType.AssemblyName:
if (!(item.Value is String)) {
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null String");
}
break;
case CacheObjType.RemotingData:
if (!(item.Value is RemotingCachedData)) {
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a RemotingCacheData");
}
break;
case CacheObjType.SerializableAttribute:
if (!(item.Value is SerializableAttribute)) {
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a SerializableAttribute");
}
break;
case CacheObjType.FieldName:
if (!(item.Value is String)) {
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null String");
}
break;
case CacheObjType.FieldType:
if (!(item.Value is Type)) {
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null Type");
}
break;
case CacheObjType.DefaultMember:
if (!(item.Value is String)) {
throw new ArgumentException("Invalid type for the internal cache. " + item.Value + " requires a non-null String");
}
break;
default:
throw new ArgumentException("Invalid caching type. Please add " + item.Value + " to the validated types in InternalCache.");
}
}