// Loads a single table, returns pointer to table in memory.
public static void *LoadSingleTable(tMetaData *pThis, tRVA *pRVA, int tableID, void **ppTable)
{
int numRows = (int)pThis->tables.numRows[tableID];
int rowLen = tableRowSize[tableID];
int i, row;
/*char**/ byte *pDef = tableDefs[tableID];
int defLen = (int)S.strlen(pDef);
void * pRet;
byte * pSource = (byte *)*ppTable;
byte * pDest;
uint v = 0;
SIZE_T p = 0;
// Allocate memory for destination table
pRet = Mem.malloc((SIZE_T)(numRows * rowLen));
pDest = (byte *)pRet;
// Load table
int srcLen = 0;
for (row = 0; row < numRows; row++)
{
byte *pSrcStart = pSource;
for (i = 0; i < defLen; i += 2)
{
byte d = pDef[i];
if (d < MAX_TABLES)
{
if (pThis->tables.numRows[d] < 0x10000)
{
// Use 16-bit offset
v = GetU16(pSource);
pSource += 2;
}
else
{
// Use 32-bit offset
v = GetU32(pSource);
pSource += 4;
}
v |= (uint)d << 24;
}
else
{
switch ((char)d)
{
case 'c': // 8-bit value
v = *(byte *)pSource;
pSource++;
break;
case 's': // 16-bit short
v = GetU16(pSource);
pSource += 2;
break;
case 'i': // 32-bit int
v = GetU32(pSource);
pSource += 4;
break;
case '0':
case '1':
case '2':
case '3':
case '4':
case '5':
case '6':
case '7':
case '8':
case '9':
case ':':
case ';':
case '<':
{
int ofs = pDef[i] - '0';
/*char*/ byte *pCoding = codedTags[ofs];
int tagBits = codedTagBits[ofs];
byte tag = (byte)(*pSource & ((1 << tagBits) - 1));
int idxIntoTableID = pCoding[tag]; // The actual table index that we're looking for
if (idxIntoTableID < 0 || idxIntoTableID > MAX_TABLES)
{
Sys.Crash("Error: Bad table index: 0x%02x\n", idxIntoTableID);
}
if (pThis->tables.codedIndex32Bit[ofs] != 0)
{
// Use 32-bit number
v = GetU32(pSource) >> tagBits;
pSource += 4;
}
else
{
// Use 16-bit number
v = GetU16(pSource) >> tagBits;
pSource += 2;
}
v |= (uint)idxIntoTableID << 24;
}
break;
case 'S': // index into string heap
if (pThis->index32BitString != 0)
{
v = GetU32(pSource);
pSource += 4;
}
else
{
v = GetU16(pSource);
pSource += 2;
}
p = (PTR)(pThis->strings.pStart + v);
// NOTE: Quick way to validate metadata loading, check if all strings are valid!
if (S.isvalidstr((byte *)p) == 0)
{
Sys.Crash("Invalid string %s", (PTR)p);
}
break;
case 'G': // index into GUID heap
if (pThis->index32BitGUID != 0)
{
v = GetU32(pSource);
pSource += 4;
}
else
{
v = GetU16(pSource);
pSource += 2;
}
p = (PTR)(pThis->GUIDs.pGUID1 + ((v - 1) * 16));
break;
case 'B': // index into BLOB heap
if (pThis->index32BitBlob != 0)
{
v = GetU32(pSource);
pSource += 4;
}
else
{
v = GetU16(pSource);
pSource += 2;
}
p = (PTR)(pThis->blobs.pStart + v);
break;
case '^': // RVA to convert to pointer
v = GetU32(pSource);
pSource += 4;
p = (PTR)RVA.FindData(pRVA, v);
break;
case 'm': // Pointer to this metadata
p = (PTR)pThis;
break;
case 'l': // Is this the last table entry?
v = (row == numRows - 1) ? (uint)1 : (uint)0;
break;
case 'I': // Original table index
v = MetaData.MAKE_TABLE_INDEX((uint)tableID, (uint)(row + 1));
break;
case 'x': // Nothing, use 0
v = 0;
p = 0;
break;
default:
Sys.Crash("Cannot handle MetaData source definition character '%c' (0x%02X)\n", d, d);
break;
}
}
switch ((char)pDef[i + 1])
{
case '*':
*(SIZE_T *)pDest = p;
pDest += sizeof(SIZE_T);
break;
case 'i':
*(uint *)pDest = v;
pDest += 4;
break;
case 's':
*(ushort *)pDest = (ushort)v;
pDest += 2;
break;
case 'c':
*(byte *)pDest = (byte)v;
pDest++;
break;
case 'x':
// Do nothing
break;
default:
Sys.Crash("Cannot handle MetaData destination definition character '%c'\n", pDef[i + 1]);
break;
}
}
if (srcLen == 0)
{
srcLen = (int)(pSource - pSrcStart);
}
}
Sys.log_f(1, "Loaded MetaData table 0x%02X; %d rows %d len\n", tableID, numRows, srcLen);
// Update the parameter to the position after this table
*ppTable = pSource;
// Return new table information
return(pRet);
}
public static byte *scatprintf(byte *bfr, byte *end, string fmt, params object[] args)
{
if (bfr == null || fmt == null)
{
throw new System.NullReferenceException();
}
Mem.heapcheck();
int curarg = 0;
int i = 0;
int fmtLen = fmt.Length;
byte *b = bfr;
byte *e = end;
while (i < fmtLen)
{
char ch = fmt[i];
if (ch == '%' && i + 1 < fmtLen)
{
i++;
ch = fmt[i];
if (ch == 's')
{
object sarg = args[curarg];
curarg++;
if (sarg == null)
{
if (b + 4 > e)
{
throw new System.IndexOutOfRangeException();
}
*b++ = (byte)'n';
*b++ = (byte)'u';
*b++ = (byte)'l';
*b++ = (byte)'l';
}
else if (sarg is string)
{
string str = (string)sarg;
for (int j = 0; j < str.Length; j++)
{
if (b >= e)
{
throw new System.IndexOutOfRangeException();
}
*b++ = (byte)str[j];
}
}
else if (sarg is PTR)
{
byte *s = (byte *)((PTR)sarg);
if (s == null)
{
if (b + 4 >= e)
{
throw new System.IndexOutOfRangeException();
}
*b++ = (byte)'n';
*b++ = (byte)'u';
*b++ = (byte)'l';
*b++ = (byte)'l';
}
else
{
while (*s != 0)
{
if (b >= e)
{
throw new System.IndexOutOfRangeException();
}
*b++ = *s++;
}
}
}
else
{
throw new System.ArgumentException();
}
}
else if (ch == 'x' || ch == 'X' || ch == 'd')
{
int v;
object arg = args[curarg];
if (arg is int)
{
v = (int)arg;
}
else if (arg is uint)
{
v = (int)(uint)arg;
}
else if (arg is long)
{
v = (int)(long)arg;
}
else if (arg is ulong)
{
v = (int)(ulong)arg;
}
else
{
throw new System.ArgumentException();
}
curarg++;
string vs = (ch == 'x' || ch == 'X' ? v.ToString("X") : v.ToString());
for (int j = 0; j < vs.Length; j++)
{
if (b >= e)
{
throw new System.IndexOutOfRangeException();
}
*b++ = (byte)vs[j];
}
}
else if (ch == 'l' && i + 2 < fmtLen && fmt[i + 1] == 'l' && (fmt[i + 2] == 'x' || fmt[i + 2] == 'X' || fmt[i + 2] == 'd'))
{
i += 2;
ch = fmt[i];
long lv = System.Convert.ToInt64(args[curarg]);
curarg++;
string lvs = (ch == 'x' || ch == 'X' ? lv.ToString("X") : lv.ToString());
for (int j = 0; j < lvs.Length; j++)
{
if (b >= e)
{
throw new System.IndexOutOfRangeException();
}
*b++ = (byte)lvs[j];
}
}
else if (ch == '0' && i + 2 < fmtLen && (fmt[i + 1] >= '0' && fmt[i + 1] <= '9') && (fmt[i + 2] == 'x' || fmt[i + 2] == 'X' || fmt[i + 2] == 'd'))
{
char l0 = fmt[i + 1];
i += 2;
ch = fmt[i];
int v0;
object arg = args[curarg];
if (arg is int)
{
v0 = (int)arg;
}
else if (arg is uint)
{
v0 = (int)(uint)arg;
}
else if (arg is long)
{
v0 = (int)(long)arg;
}
else if (arg is ulong)
{
v0 = (int)(ulong)arg;
}
else
{
throw new System.ArgumentException();
}
curarg++;
string vs0 = (ch == 'x' || ch == 'X' ? v0.ToString("X" + l0) : v0.ToString("D" + l0));
for (int j = 0; j < vs0.Length; j++)
{
if (b >= e)
{
throw new System.IndexOutOfRangeException();
}
*b++ = (byte)vs0[j];
}
}
else
{
if (b >= e)
{
throw new System.IndexOutOfRangeException();
}
*b++ = (byte)ch;
}
}
else
{
if (b >= e)
{
throw new System.IndexOutOfRangeException();
}
*b++ = (byte)ch;
}
i++;
}
// Null terminator
*b = 0;
Mem.heapcheck();
return(b);
}
static int InternalLoadAndRun(bool tryRun, string[] args)
{
if (!_isInitialized)
{
Init();
}
/*char**/ byte * pFileName = new S(args[0]);
int argc = args.Length;
/*char**/ byte **argv = S.buildArray(args);
tCLIFile * pCLIFile;
int retValue;
#if DIAG_TOTAL_TIME
ulong startTime;
#endif
#if DIAG_OPCODE_TIMES
Mem.memset(opcodeTimes, 0, sizeof(opcodeTimes));
#endif
#if DIAG_OPCODE_USE
Mem.memset(opcodeNumUses, 0, sizeof(opcodeNumUses));
#endif
pCLIFile = CLIFile.LoadAssembly(pFileName);
#if DIAG_TOTAL_TIME
startTime = microTime();
#endif
if (tryRun)
{
if (pCLIFile->entryPoint != 0)
{
retValue = CLIFile.Execute(pCLIFile, argc, argv);
}
else
{
Sys.printf("File %s has no entry point, skipping execution\n", (PTR)pFileName);
retValue = 0;
}
}
else
{
retValue = 0;
}
#if DIAG_TOTAL_TIME
printf("Total execution time = %d ms\n", (int)((microTime() - startTime) / 1000));
#endif
#if DIAG_GC
printf("Total GC time = %d ms\n", (int)(Heap.gcTotalTime / 1000));
#endif
#if DIAG_METHOD_CALLS
{
uint numMethods, i;
int howMany = 25;
tMetaData *pCorLib;
// Report on most-used methods
pCorLib = CLIFile_GetMetaDataForAssembly("mscorlib");
numMethods = pCorLib->tables.numRows[MetaDataTable.MD_TABLE_METHODDEF];
printf("\nCorLib method usage:\n");
for (; howMany > 0; howMany--)
{
tMD_MethodDef *pMethod;
uint maxCount = 0, maxIndex = 0;
for (i = 1; i <= numMethods; i++)
{
pMethod = (tMD_MethodDef *)MetaData.GetTableRow(pCorLib, MetaData.MAKE_TABLE_INDEX(MetaDataTable.MD_TABLE_METHODDEF, i));
if (pMethod->callCount > maxCount)
{
maxCount = pMethod->callCount;
maxIndex = i;
}
}
pMethod = (tMD_MethodDef *)MetaData.GetTableRow(pCorLib, MetaData.MAKE_TABLE_INDEX(MetaDataTable.MD_TABLE_METHODDEF, maxIndex));
printf("%d: %s (%d)\n", (int)pMethod->callCount, Sys_GetMethodDesc(pMethod), (int)(pMethod->totalTime / 1000));
pMethod->callCount = 0;
}
printf("\n");
}
{
uint numMethods, i;
int howMany = 25;
tMetaData *pCorLib;
// Report on most-used methods
pCorLib = CLIFile_GetMetaDataForAssembly("mscorlib");
numMethods = pCorLib->tables.numRows[MetaDataTable.MD_TABLE_METHODDEF];
printf("\nCorLib method execution time:\n");
for (; howMany > 0; howMany--)
{
tMD_MethodDef *pMethod;
ulong maxTime = 0;
uint maxIndex = 0;
for (i = 1; i <= numMethods; i++)
{
pMethod = (tMD_MethodDef *)MetaData.GetTableRow(pCorLib, MetaData.MAKE_TABLE_INDEX(MetaDataTable.MD_TABLE_METHODDEF, i));
if (pMethod->totalTime > maxTime)
{
maxTime = pMethod->totalTime;
maxIndex = i;
}
}
pMethod = (tMD_MethodDef *)MetaData.GetTableRow(pCorLib, MetaData.MAKE_TABLE_INDEX(MetaDataTable.MD_TABLE_METHODDEF, maxIndex));
printf("%d: %s (%d)\n", (int)pMethod->callCount, Sys_GetMethodDesc(pMethod), (int)(pMethod->totalTime / 1000));
pMethod->totalTime = 0;
}
printf("\n");
}
#endif
#if DIAG_OPCODE_TIMES
{
int howMany = 25;
uint i;
printf("\nOpCodes execution time:\n");
for (; howMany > 0; howMany--)
{
ulong maxTime = 0;
uint maxIndex = 0;
for (i = 0; i < JitOps.JIT_OPCODE_MAXNUM; i++)
{
if (opcodeTimes[i] > maxTime)
{
maxTime = opcodeTimes[i];
maxIndex = i;
}
}
printf("0x%03x: %dms (used %d times) (ave = %d)\n",
maxIndex, (int)(maxTime / 1000), (int)opcodeNumUses[maxIndex], (int)(maxTime / opcodeNumUses[maxIndex]));
opcodeTimes[maxIndex] = 0;
}
}
#endif
#if DIAG_OPCODE_USE
{
int howMany = 25;
uint i, j;
printf("\nOpcode use:\n");
for (j = 1; howMany > 0; howMany--, j++)
{
uint maxUse = 0;
uint maxIndex = 0;
for (i = 0; i < JitOps.JIT_OPCODE_MAXNUM; i++)
{
if (opcodeNumUses[i] > maxUse)
{
maxUse = opcodeNumUses[i];
maxIndex = i;
}
}
printf("%02d 0x%03x: %d\n", j, maxIndex, maxUse);
opcodeNumUses[maxIndex] = 0;
}
}
#endif
//Sys.Crash("FINISHED!!!");
return(retValue);
}
public static uint Update(uint maxInstr, int *pReturnCode)
{
tThread *pThread;
tThread *pPrevThread;
uint status;
pThread = pAllThreads;
// Set the initial thread to the RUNNING state.
pThread->state = THREADSTATE_RUNNING;
// Set the initial CurrentThread
pCurrentThread = pThread;
for (;;)
{
uint minSleepTime = 0xffffffff;
int threadExitValue;
status = JIT_Execute.Execute(pThread, maxInstr);
switch (status)
{
case Thread.THREAD_STATUS_EXIT:
threadExitValue = pThread->threadExitValue;
Sys.log_f(1, "Thread ID#%d exited. Return value: %d\n", (int)pThread->threadID, (int)threadExitValue);
// Remove the current thread from the running threads list.
// Note that this list may have changed since before the call to JitOps.JIT_Execute().
{
if (pAllThreads == pThread)
{
pAllThreads = pAllThreads->pNextThread;
}
else
{
tThread *pThread1 = pAllThreads;
while (pThread1->pNextThread != pThread)
{
pThread1 = pThread1->pNextThread;
}
pThread1->pNextThread = pThread1->pNextThread->pNextThread;
}
}
// Delete the current thread
Thread.Delete(pThread);
// If there are no more threads left running, then exit application (by returning)
// Threads that are unstarted or background do not stop the exit
// [Steve edit] Threads that are suspended also do not stop the exit. This is because you'd just
// wait forever for them if they did. Note that 'exit' doesn't mean tearing down the process
// like in a regular .NET runtime case. The application state is still there and we can make
// further calls into it to create new threads.
{
tThread *pThread2 = pAllThreads;
uint canExit = 1;
while (pThread2 != null)
{
if (
((pThread2->state & THREADSTATE_BACKGROUND) == 0) &&
((pThread2->state & (~THREADSTATE_BACKGROUND)) != THREADSTATE_UNSTARTED) &&
((pThread2->state & (~THREADSTATE_BACKGROUND)) != THREADSTATE_SUSPENDED))
{
canExit = 0;
break;
}
pThread2 = pThread2->pNextThread;
}
if (canExit != 0)
{
if (pReturnCode != null)
{
*pReturnCode = threadExitValue;
}
return(THREADSTATE_STOPPED);
}
}
pThread = pAllThreads; // This is not really correct, but it'll work for the time being
break;
case THREAD_STATUS_RUNNING:
case THREAD_STATUS_LOCK_EXIT:
// Nothing to do
break;
case THREAD_STATUS_ASYNC:
pThread->pAsync->startTime = Sys.msTime();
break;
}
// Move on to the next thread.
// Find the next thread that isn't sleeping or blocked on IO
pPrevThread = pThread;
for (;;)
{
pThread = pThread->pNextThread;
if (pThread == null)
{
// That was the thread -- return!
return(THREADSTATE_RUNNING);
}
// Set the CurrentThread correctly
pCurrentThread = pThread;
if ((pThread->state & (~THREADSTATE_BACKGROUND)) != 0)
{
// Thread is not running
continue;
}
if (pThread->pAsync != null)
{
// Discover if whatever is being waited for is finished
tAsyncCall *pAsync = pThread->pAsync;
if (pAsync->sleepTime >= 0)
{
// This is a sleep
ulong nowTime = Sys.msTime();
int msSleepRemaining = pAsync->sleepTime - (int)(nowTime - pAsync->startTime);
if (msSleepRemaining <= 0)
{
// Sleep is finished
break;
}
// Sleep is not finished, so continue to next thread
if ((uint)msSleepRemaining < minSleepTime)
{
minSleepTime = (uint)msSleepRemaining;
}
}
else
{
// This is blocking IO, or a lock
tMethodState *pMethodState = pThread->pCurrentMethodState;
byte * pThis;
uint thisOfs;
uint unblocked;
if (MetaData.METHOD_ISSTATIC(pMethodState->pMethod))
{
pThis = null;
thisOfs = 0;
}
else
{
pThis = *(byte **)pMethodState->pParamsLocals;
thisOfs = 4;
}
unblocked = ((fnInternalCallCheck)H.ToObj(pAsync->checkFn))(null, pThis, pMethodState->pParamsLocals + thisOfs, pMethodState->pEvalStack, pAsync);
if (unblocked != 0)
{
// The IO has unblocked, and the return value is ready.
// So delete the async object.
// TODO: The async->state object needs to be deleted somehow (maybe)
Mem.free(pAsync);
// And remove it from the thread
pThread->pAsync = null;
break;
}
minSleepTime = 5;
}
}
else
{
// Thread is ready to run
break;
}
if (pThread == pPrevThread)
{
// When it gets here, it means that all threads are currently blocked.
//printf("All blocked; sleep(%d)\n", minSleepTime);
Sys.SleepMS(minSleepTime);
}
}
}
}
public static tMD_TypeDef *GetGenericTypeFromCoreType(tMD_TypeDef *pCoreType, uint numTypeArgs,
tMD_TypeDef **ppTypeArgs)
{
tGenericInstance *pInst;
tMD_TypeDef * pTypeDef;
uint i;
byte * name = stackalloc byte[NAME_BUF_SIZE];
byte * namePos, nameEnd;
tMetaData *pMetaData;
Mem.heapcheck();
pMetaData = pCoreType->pMetaData;
MetaData.Fill_TypeDef(pCoreType, null, null, Type.TYPE_FILL_PARENTS);
// See if we have already built an instantiation of this type with the given type args.
pInst = pCoreType->pGenericInstances;
while (pInst != null)
{
if (pInst->numTypeArgs == numTypeArgs &&
Mem.memcmp(pInst->ppTypeArgs, ppTypeArgs, (SIZE_T)(numTypeArgs * sizeof(tMD_TypeDef *))) == 0)
{
return(pInst->pInstanceTypeDef);
}
pInst = pInst->pNext;
}
// This has not already been instantiated, so instantiate it now.
pInst = (tGenericInstance *)Mem.mallocForever((SIZE_T)sizeof(tGenericInstance));
// Insert this into the chain of instantiations.
pInst->pNext = pCoreType->pGenericInstances;
pCoreType->pGenericInstances = pInst;
// Copy the type args into the instantiation.
pInst->numTypeArgs = numTypeArgs;
pInst->ppTypeArgs = (tMD_TypeDef **)Mem.malloc((SIZE_T)(numTypeArgs * sizeof(tMD_TypeDef *)));
Mem.memcpy(pInst->ppTypeArgs, ppTypeArgs, (SIZE_T)(numTypeArgs * sizeof(tMD_TypeDef *)));
Mem.heapcheck();
// Create the new instantiated type
pInst->pInstanceTypeDef = pTypeDef = ((tMD_TypeDef *)Mem.mallocForever((SIZE_T)sizeof(tMD_TypeDef)));
Mem.memset(pTypeDef, 0, (SIZE_T)sizeof(tMD_TypeDef));
// Make the name of the instantiation.
namePos = name;
nameEnd = namePos + NAME_BUF_SIZE - 1;
namePos = S.scatprintf(namePos, nameEnd, "%s", (PTR)pCoreType->name);
namePos = S.scatprintf(namePos, nameEnd, "[");
for (i = 0; i < numTypeArgs; i++)
{
if (i > 0)
{
namePos = S.scatprintf(namePos, nameEnd, ",");
}
if (ppTypeArgs[i] != null)
{
namePos = S.scatprintf(namePos, nameEnd, "%s.%s", (PTR)ppTypeArgs[i]->nameSpace, (PTR)ppTypeArgs[i]->name);
}
else
{
tMD_GenericParam *pGenericParam = FindGenericParam(pCoreType, i);
if (pGenericParam != null)
{
namePos = S.scatprintf(namePos, nameEnd, "%s", (PTR)pGenericParam->name);
}
else
{
namePos = S.scatprintf(namePos, nameEnd, "???");
}
}
}
namePos = S.scatprintf(namePos, nameEnd, "]");
// Fill in the basic bits of the new type def.
pTypeDef->pTypeDef = pTypeDef;
pTypeDef->pMetaData = pMetaData;
pTypeDef->flags = pCoreType->flags;
pTypeDef->pGenericDefinition = pCoreType;
for (i = 0; i < numTypeArgs; i++)
{
if (ppTypeArgs[i] == null)
{
pTypeDef->isGenericDefinition = 1;
break;
}
}
pTypeDef->nameSpace = pCoreType->nameSpace;
int nameLen = S.strlen(name) + 1;
pTypeDef->name = (/*STRING*/ byte *)Mem.mallocForever((SIZE_T)nameLen);
S.strncpy(pTypeDef->name, name, nameLen);
pTypeDef->ppClassTypeArgs = pInst->ppTypeArgs;
pTypeDef->extends = pCoreType->extends;
pTypeDef->tableIndex = pCoreType->tableIndex;
pTypeDef->fieldList = pCoreType->fieldList;
pTypeDef->methodList = pCoreType->methodList;
pTypeDef->numFields = pCoreType->numFields;
pTypeDef->numMethods = pCoreType->numMethods;
pTypeDef->numVirtualMethods = pCoreType->numVirtualMethods;
pTypeDef->pNestedIn = pCoreType->pNestedIn;
pTypeDef->isPrimed = 1;
MetaData.Fill_TypeDef(pTypeDef, pInst->ppTypeArgs, null, Type.TYPE_FILL_PARENTS);
Mem.heapcheck();
return(pTypeDef);
}
public static tMD_MethodDef *GetMethodDefFromCoreMethod(tMD_MethodDef *pCoreMethod,
tMD_TypeDef *pParentType, uint numTypeArgs, tMD_TypeDef **ppTypeArgs,
HashSet <PTR> resolveTypes = null)
{
tGenericMethodInstance *pInst;
tMD_MethodDef * pMethod;
Mem.heapcheck();
// See if we already have an instance with the given type args
pInst = pCoreMethod->pGenericMethodInstances;
while (pInst != null)
{
if (pInst->numTypeArgs == numTypeArgs &&
Mem.memcmp(pInst->ppTypeArgs, ppTypeArgs, (SIZE_T)(numTypeArgs * sizeof(tMD_TypeDef *))) == 0)
{
return(pInst->pInstanceMethodDef);
}
pInst = pInst->pNext;
}
// We don't have an instance so create one now.
pInst = (tGenericMethodInstance *)Mem.mallocForever((SIZE_T)(sizeof(tGenericMethodInstance)));
pInst->pNext = pCoreMethod->pGenericMethodInstances;
pCoreMethod->pGenericMethodInstances = pInst;
pInst->numTypeArgs = numTypeArgs;
pInst->ppTypeArgs = (tMD_TypeDef **)Mem.malloc((SIZE_T)(numTypeArgs * sizeof(tMD_TypeDef *)));
Mem.memcpy(pInst->ppTypeArgs, ppTypeArgs, (SIZE_T)(numTypeArgs * sizeof(tMD_TypeDef *)));
pInst->pInstanceMethodDef = pMethod = ((tMD_MethodDef *)Mem.mallocForever((SIZE_T)sizeof(tMD_MethodDef)));
Mem.memset(pMethod, 0, (SIZE_T)sizeof(tMD_MethodDef));
pMethod->pMethodDef = pMethod;
pMethod->pMetaData = pCoreMethod->pMetaData;
pMethod->pCIL = pCoreMethod->pCIL;
pMethod->implFlags = pCoreMethod->implFlags;
pMethod->flags = pCoreMethod->flags;
pMethod->name = pCoreMethod->name;
pMethod->signature = pCoreMethod->signature;
pMethod->vTableOfs = pCoreMethod->vTableOfs;
pMethod->ppMethodTypeArgs = pInst->ppTypeArgs;
if (pCoreMethod->monoMethodInfo != null)
{
System.Reflection.MethodInfo methodInfo = H.ToObj(pCoreMethod->monoMethodInfo) as System.Reflection.MethodInfo;
System.Type[] typeArgs = new System.Type[(int)numTypeArgs];
for (uint i = 0; i < numTypeArgs; i++)
{
typeArgs[i] = MonoType.GetMonoTypeForType(ppTypeArgs[i]);
if (typeArgs[i] == null)
{
Sys.Crash("Unable to find mono type for type arg %s.%s in for generic method %s",
(PTR)ppTypeArgs[i]->nameSpace, (PTR)ppTypeArgs[i]->name, (PTR)pCoreMethod->name);
}
}
System.Reflection.MethodInfo genericMethodInfo = methodInfo.MakeGenericMethod(typeArgs);
MonoType.Fill_MethodDef(pParentType, genericMethodInfo, pMethod, pParentType->ppClassTypeArgs, pInst->ppTypeArgs);
}
else
{
MetaData.Fill_MethodDef(pParentType, pMethod, pParentType->ppClassTypeArgs, pInst->ppTypeArgs);
}
Mem.heapcheck();
return(pMethod);
}
public static void Fill_TypeDef(tMD_TypeDef *pTypeDef,
tMD_TypeDef **ppClassTypeArgs, tMD_TypeDef **ppMethodTypeArgs,
uint resolve = Type.TYPE_FILL_ALL)
{
/*IDX_TABLE*/ uint firstIdx, lastIdx, token;
uint instanceMemSize, staticMemSize, virtualOfs, isDeferred, i, j;
tMetaData * pMetaData = pTypeDef->pMetaData;
tMD_TypeDef *pParent;
if (pTypeDef->fillState >= resolve)
{
return;
}
if (pTypeDef->monoType != null)
{
MonoType.Fill_TypeDef(pTypeDef, ppClassTypeArgs, ppMethodTypeArgs, resolve);
return;
}
// Sys.printf("FILLING TYPE: %s\n", (PTR)pTypeDef->name);
// string name = System.Runtime.InteropServices.Marshal.PtrToStringAnsi((System.IntPtr)pTypeDef->name);
if (typesToFill == null)
{
Fill_StartDefer();
isDeferred = 1;
}
else
{
isDeferred = 0;
}
if (resolve < Type.TYPE_FILL_ALL)
{
MetaData.Fill_Defer(pTypeDef, ppClassTypeArgs, ppMethodTypeArgs);
}
MetaData.Fill_GetDeferredTypeArgs(pTypeDef, ref ppClassTypeArgs, ref ppMethodTypeArgs);
// Fill parent info
if (pTypeDef->fillState < Type.TYPE_FILL_PARENTS)
{
pTypeDef->fillState = Type.TYPE_FILL_PARENTS;
pTypeDef->pTypeDef = pTypeDef;
if (pTypeDef->alignment == 0)
{
pTypeDef->alignment = 1;
}
if (pTypeDef->pParent == null)
{
pTypeDef->pParent = MetaData.GetTypeDefFromDefRefOrSpec(pMetaData, pTypeDef->extends, ppClassTypeArgs, ppMethodTypeArgs);
}
pParent = pTypeDef->pParent;
if (pParent != null)
{
if (pParent->fillState < Type.TYPE_FILL_PARENTS)
{
MetaData.Fill_TypeDef(pParent, null, null, Type.TYPE_FILL_PARENTS);
}
else if (pParent->fillState < Type.TYPE_FILL_ALL)
{
MetaData.Fill_Defer(pParent, null, null);
}
pTypeDef->hasMonoBase = pParent->hasMonoBase;
if (pParent->hasMonoBase == 0)
{
// If we have a mono base type, we have at least 1 non-blittable field
pTypeDef->blittable = pParent->blittable;
pTypeDef->fixedBlittable = pParent->fixedBlittable;
}
else
{
pTypeDef->blittable = pTypeDef->fixedBlittable = 0;
}
}
else
{
pTypeDef->blittable = pTypeDef->fixedBlittable = 1;
}
// If this type is an interface, then return 0
if (pTypeDef->stackSize != 0)
{
pTypeDef->isValueType = (byte)(pTypeDef->stackType != EvalStack.EVALSTACK_O ? 1 : 0);
}
else if (MetaData.TYPE_ISINTERFACE(pTypeDef))
{
pTypeDef->isValueType = 0;
}
else if (pTypeDef->nameSpace[0] == 'S' && S.strcmp(pTypeDef->nameSpace, new S(ref scSystem, "System")) == 0)
{
if ((pTypeDef->name[0] == 'V' && S.strcmp(pTypeDef->name, new S(ref scValueType, "ValueType")) == 0) ||
(pTypeDef->name[0] == 'E' && S.strcmp(pTypeDef->name, new S(ref scEnum, "Enum")) == 0))
{
pTypeDef->isValueType = 1;
}
else if (pTypeDef->name[0] == 'O' && S.strcmp(pTypeDef->name, new S(ref scObject, "Object")) == 0)
{
pTypeDef->isValueType = 0;
}
else if (pParent != null)
{
pTypeDef->isValueType = pParent->isValueType;
}
}
else if (pParent != null)
{
pTypeDef->isValueType = pParent->isValueType;
}
// If not primed, then work out how many methods & fields there are.
if (pTypeDef->isPrimed == 0)
{
// Methods
lastIdx = (pTypeDef->isLast != 0) ?
MetaData.MAKE_TABLE_INDEX(MetaDataTable.MD_TABLE_METHODDEF, pTypeDef->pMetaData->tables.numRows[MetaDataTable.MD_TABLE_METHODDEF]) :
(pTypeDef[1].methodList - 1);
pTypeDef->numMethods = lastIdx - pTypeDef->methodList + 1;
// Fields
lastIdx = (pTypeDef->isLast != 0) ?
MetaData.MAKE_TABLE_INDEX(MetaDataTable.MD_TABLE_FIELDDEF, pTypeDef->pMetaData->tables.numRows[MetaDataTable.MD_TABLE_FIELDDEF]) :
(pTypeDef[1].fieldList - 1);
pTypeDef->numFields = lastIdx - pTypeDef->fieldList + 1;
}
// If this is a nested type, then find the namespace of it
if (pTypeDef->pNestedIn != null)
{
tMD_TypeDef *pRootTypeDef = pTypeDef->pNestedIn;
while (pRootTypeDef->pNestedIn != null)
{
pRootTypeDef = pRootTypeDef->pNestedIn;
}
pTypeDef->nameSpace = pRootTypeDef->nameSpace;
}
// If this is an enum type, then pretend its stack type is its underlying type
if (pTypeDef->pParent == Type.types[Type.TYPE_SYSTEM_ENUM])
{
pTypeDef->stackType = EvalStack.EVALSTACK_INT32;
pTypeDef->stackSize = sizeof(PTR);
pTypeDef->instanceMemSize = 4;
pTypeDef->arrayElementSize = 4;
pTypeDef->blittable = pTypeDef->fixedBlittable = 1;
}
if (pTypeDef->fillState >= resolve)
{
return;
}
}
else
{
pParent = pTypeDef->pParent;
}
if (pTypeDef->fillState < Type.TYPE_FILL_LAYOUT)
{
pTypeDef->fillState = Type.TYPE_FILL_LAYOUT;
if (pParent != null)
{
if (pParent->fillState < Type.TYPE_FILL_LAYOUT)
{
MetaData.Fill_TypeDef(pParent, null, null, Type.TYPE_FILL_LAYOUT);
}
else if (pParent->fillState < Type.TYPE_FILL_ALL)
{
MetaData.Fill_Defer(pParent, null, null);
}
}
if (pTypeDef->isGenericDefinition == 0)
{
// Resolve fields, members, interfaces.
// Only needs to be done if it's not a generic definition type
// It it's not a value-type and the stack-size is not preset, then set it up now.
// It needs to be done here as non-static fields in non-value type can point to the containing type
if (pTypeDef->stackSize == 0 && pTypeDef->isValueType == 0)
{
pTypeDef->stackType = EvalStack.EVALSTACK_O;
pTypeDef->stackSize = sizeof(PTR);
pTypeDef->alignment = sizeof(PTR);
}
// Resolve all fields - instance ONLY at this point,
// because static fields in value-Type.types can be of the containing type, and the size is not yet known.
firstIdx = pTypeDef->fieldList;
lastIdx = firstIdx + pTypeDef->numFields - 1;
staticMemSize = 0;
if (pTypeDef->numFields > 0)
{
pTypeDef->ppFields = (tMD_FieldDef **)Mem.mallocForever((SIZE_T)(pTypeDef->numFields * sizeof(tMD_FieldDef *)));
}
instanceMemSize = (pParent == null ? 0 : pTypeDef->pParent->instanceMemSize);
if (pTypeDef->hasMonoBase != 0 && pParent->hasMonoBase == 0)
{
// Some DNA types like String are actually wrappers around mono objects. In those cases, we need to allocate the
// space in the instance memory for the GCHandle to the mono object. We distinguish this case from the case
// where we're just extending a Mono Type object by checking if the parent also has the hasMonoBase flag set.
instanceMemSize += (uint)sizeof(void *);
}
for (token = firstIdx, i = 0; token <= lastIdx; token++, i++)
{
tMD_FieldDef *pFieldDef;
pFieldDef = MetaData.GetFieldDefFromDefOrRef(pMetaData, token, ppClassTypeArgs, ppMethodTypeArgs);
if (!MetaData.FIELD_ISSTATIC(pFieldDef))
{
// Only handle non-static fields at the moment
if (pTypeDef->pGenericDefinition != null)
{
// If this is a generic instantiation type, then all field defs need to be copied,
// as there will be lots of different instantiations.
tMD_FieldDef *pFieldCopy = ((tMD_FieldDef *)Mem.mallocForever((SIZE_T)sizeof(tMD_FieldDef)));
Mem.memcpy(pFieldCopy, pFieldDef, (SIZE_T)sizeof(tMD_FieldDef));
pFieldDef = pFieldCopy;
}
if (MetaData.FIELD_ISLITERAL(pFieldDef) || MetaData.FIELD_HASFIELDRVA(pFieldDef))
{
// If it's a literal, then analyse the field, but don't include it in any memory allocation
// If is has an RVA, then analyse the field, but don't include it in any memory allocation
MetaData.Fill_FieldDef(pTypeDef, pFieldDef, 0, null, ppClassTypeArgs);
}
else
{
MetaData.Fill_FieldDef(pTypeDef, pFieldDef, instanceMemSize, &(pTypeDef->alignment), ppClassTypeArgs);
instanceMemSize = pFieldDef->memOffset + pFieldDef->memSize;
}
// Update blittable and fixedBlittable status for type - if any non-blittable fields are included set to 0
if (pTypeDef->blittable != 0 || pTypeDef->fixedBlittable != 0)
{
if (pFieldDef->pType->isValueType == 0 || pFieldDef->pType->blittable == 0)
{
pTypeDef->blittable = pTypeDef->fixedBlittable = 0;
}
else if (pFieldDef->pType->typeInitId == Type.TYPE_SYSTEM_INTPTR ||
pFieldDef->pType->typeInitId == Type.TYPE_SYSTEM_UINTPTR)
{
pTypeDef->fixedBlittable = 0;
}
}
pTypeDef->ppFields[i] = pFieldDef;
}
}
if (pTypeDef->instanceMemSize == 0)
{
pTypeDef->instanceMemSize = (instanceMemSize + (pTypeDef->alignment - 1)) & ~(pTypeDef->alignment - 1);
}
// Sort out stack type and size.
// Note that this may already be set, as some basic type have this preset;
// or if it's not a value-type it'll already be set
if (pTypeDef->stackSize == 0)
{
// if it gets here then it must be a value type
pTypeDef->stackType = EvalStack.EVALSTACK_VALUETYPE;
pTypeDef->stackSize = pTypeDef->instanceMemSize;
}
// Sort out array element size. Note that some basic type will have this preset.
if (pTypeDef->arrayElementSize == 0)
{
pTypeDef->arrayElementSize = pTypeDef->stackSize;
}
// Make sure stack size is even multiple of stack alignment
pTypeDef->stackSize = (pTypeDef->stackSize + (STACK_ALIGNMENT - 1)) & ~(STACK_ALIGNMENT - 1);
// Handle static fields
for (token = firstIdx, i = 0; token <= lastIdx; token++, i++)
{
tMD_FieldDef *pFieldDef;
pFieldDef = MetaData.GetFieldDefFromDefOrRef(pMetaData, token, ppClassTypeArgs, ppMethodTypeArgs);
if (MetaData.FIELD_ISSTATIC(pFieldDef))
{
// Only handle static fields here
if (pTypeDef->pGenericDefinition != null)
{
// If this is a generic instantiation type, then all field defs need to be copied,
// as there will be lots of different instantiations.
tMD_FieldDef *pFieldCopy = ((tMD_FieldDef *)Mem.mallocForever((SIZE_T)sizeof(tMD_FieldDef)));
Mem.memcpy(pFieldCopy, pFieldDef, (SIZE_T)sizeof(tMD_FieldDef));
pFieldDef = pFieldCopy;
}
if (MetaData.FIELD_ISLITERAL(pFieldDef) || MetaData.FIELD_HASFIELDRVA(pFieldDef))
{
// If it's a literal, then analyse the field, but don't include it in any memory allocation
// If is has an RVA, then analyse the field, but don't include it in any memory allocation
MetaData.Fill_FieldDef(pTypeDef, pFieldDef, 0, null, ppClassTypeArgs);
}
else
{
MetaData.Fill_FieldDef(pTypeDef, pFieldDef, staticMemSize, null, ppClassTypeArgs);
staticMemSize += pFieldDef->memSize;
}
pTypeDef->ppFields[i] = pFieldDef;
}
}
if (staticMemSize > 0)
{
pTypeDef->pStaticFields = (byte *)Mem.mallocForever((SIZE_T)staticMemSize);
Mem.memset(pTypeDef->pStaticFields, 0, staticMemSize);
// Set the field addresses (->pMemory) of all static fields
for (i = 0; i < pTypeDef->numFields; i++)
{
tMD_FieldDef *pFieldDef;
pFieldDef = pTypeDef->ppFields[i];
if (MetaData.FIELD_ISSTATIC(pFieldDef) && pFieldDef->pMemory == null)
{
// Only set it if it isn't already set. It will be already set if this field has an RVA
pFieldDef->pMemory = pTypeDef->pStaticFields + pFieldDef->memOffset;
}
}
pTypeDef->staticFieldSize = staticMemSize;
}
}
if (pTypeDef->fillState >= resolve)
{
return;
}
}
// This only needs to be done for non-generic Type.types, or for generic type that are not a definition
// I.e. Fully instantiated generic Type.types
if (pTypeDef->fillState < Type.TYPE_FILL_VTABLE)
{
pTypeDef->fillState = Type.TYPE_FILL_VTABLE;
if (pParent != null)
{
if (pParent->fillState < Type.TYPE_FILL_VTABLE)
{
MetaData.Fill_TypeDef(pParent, null, null, Type.TYPE_FILL_VTABLE);
}
else if (pParent->fillState < Type.TYPE_FILL_ALL)
{
MetaData.Fill_Defer(pParent, null, null);
}
}
if (pTypeDef->isGenericDefinition == 0)
{
virtualOfs = (pParent != null) ? pParent->numVirtualMethods : 0;
// Must create the virtual method table BEFORE any other type resolution is done
// Note that this must not do ANY filling of type or methods.
// This is to ensure that the parent object(s) in any type inheritance hierachy are allocated
// their virtual method offset before derived Type.types.
firstIdx = pTypeDef->methodList;
lastIdx = firstIdx + pTypeDef->numMethods - 1;
for (token = firstIdx; token <= lastIdx; token++)
{
tMD_MethodDef *pMethodDef;
pMethodDef = MetaData.GetMethodDefFromDefRefOrSpec(pMetaData, token, ppClassTypeArgs, ppMethodTypeArgs);
//Sys.printf("Method: %s\n", (PTR)pMethodDef->name);
// This is needed, so array resolution can work correctly and FindVirtualOverriddenMethod() can work.
pMethodDef->pParentType = pTypeDef;
if (MetaData.METHOD_ISVIRTUAL(pMethodDef))
{
if (MetaData.METHOD_ISNEWSLOT(pMethodDef) || pTypeDef->pParent == null)
{
// Allocate a new vTable slot if method is explicitly marked as NewSlot, or
// this is of type Object.
pMethodDef->vTableOfs = virtualOfs++;
}
else
{
tMD_MethodDef *pVirtualOveriddenMethod;
pVirtualOveriddenMethod = FindVirtualOverriddenMethod(pTypeDef->pParent, pMethodDef);
if (pVirtualOveriddenMethod == null)
{
Sys.Crash("Unable to find virtual override method for %s %s", (PTR)pTypeDef->name, (PTR)pMethodDef->name);
}
pMethodDef->vTableOfs = pVirtualOveriddenMethod->vTableOfs;
}
}
else
{
// Dummy value - make it obvious it's not valid!
pMethodDef->vTableOfs = 0xffffffff;
}
}
// Create the virtual method table
pTypeDef->numVirtualMethods = virtualOfs;
// Resolve all members
firstIdx = pTypeDef->methodList;
lastIdx = firstIdx + pTypeDef->numMethods - 1;
pTypeDef->ppMethods = (tMD_MethodDef **)Mem.mallocForever((SIZE_T)(pTypeDef->numMethods * sizeof(tMD_MethodDef *)));
pTypeDef->pVTable = (tMD_MethodDef **)Mem.mallocForever((SIZE_T)(pTypeDef->numVirtualMethods * sizeof(tMD_MethodDef *)));
// Copy initial vTable from parent
if (pTypeDef->pParent != null)
{
if (pTypeDef->pParent->fillState != Type.TYPE_FILL_MEMBERS)
{
Fill_TypeDef(pTypeDef->pParent, null, null, Type.TYPE_FILL_MEMBERS);
}
Mem.memcpy(pTypeDef->pVTable, pTypeDef->pParent->pVTable, (SIZE_T)(pTypeDef->pParent->numVirtualMethods * sizeof(tMD_MethodDef *)));
}
for (token = firstIdx, i = 0; token <= lastIdx; token++, i++)
{
tMD_MethodDef *pMethodDef;
pMethodDef = MetaData.GetMethodDefFromDefRefOrSpec(pMetaData, token, ppClassTypeArgs, ppMethodTypeArgs);
if (pTypeDef->pGenericDefinition != null)
{
// If this is a generic instantiation type, then all method defs need to be copied,
// as there will be lots of different instantiations.
tMD_MethodDef *pMethodCopy = ((tMD_MethodDef *)Mem.mallocForever((SIZE_T)sizeof(tMD_MethodDef)));
Mem.memcpy(pMethodCopy, pMethodDef, (SIZE_T)sizeof(tMD_MethodDef));
pMethodDef = pMethodCopy;
}
if (MetaData.METHOD_ISSTATIC(pMethodDef) && S.strcmp(pMethodDef->name, ".cctor") == 0)
{
// This is a static constructor
pTypeDef->pStaticConstructor = pMethodDef;
}
if (!MetaData.METHOD_ISSTATIC(pMethodDef) && pTypeDef->pParent != null &&
S.strcmp(pMethodDef->name, "Finalize") == 0)
{
// This is a Finalizer method, but not for Object.
// Delibrately miss out Object's Finalizer because it's empty and will cause every object
// of any type to have a Finalizer which will be terrible for performance.
pTypeDef->pFinalizer = pMethodDef;
}
if (MetaData.METHOD_ISVIRTUAL(pMethodDef))
{
// This is a virtual method, so enter it in the vTable
pTypeDef->pVTable[pMethodDef->vTableOfs] = pMethodDef;
}
pTypeDef->ppMethods[i] = pMethodDef;
}
// Find inherited Finalizer, if this type doesn't have an explicit Finalizer, and if there is one
if (pTypeDef->pFinalizer == null)
{
tMD_TypeDef *pInheritedType = pTypeDef->pParent;
while (pInheritedType != null)
{
if (pInheritedType->pFinalizer != null)
{
pTypeDef->pFinalizer = pInheritedType->pFinalizer;
break;
}
pInheritedType = pInheritedType->pParent;
}
}
}
if (pTypeDef->fillState >= resolve)
{
return;
}
}
if (pTypeDef->fillState < Type.TYPE_FILL_MEMBERS)
{
pTypeDef->fillState = Type.TYPE_FILL_MEMBERS;
if (pParent != null)
{
if (pParent->fillState < Type.TYPE_FILL_MEMBERS)
{
MetaData.Fill_TypeDef(pParent, null, null, Type.TYPE_FILL_MEMBERS);
}
else if (pParent->fillState < Type.TYPE_FILL_ALL)
{
MetaData.Fill_Defer(pParent, null, null);
}
}
if (pTypeDef->isGenericDefinition == 0)
{
// Fill all method definitions for this type
for (i = 0; i < pTypeDef->numMethods; i++)
{
MetaData.Fill_MethodDef(pTypeDef, pTypeDef->ppMethods[i], ppClassTypeArgs, ppMethodTypeArgs);
}
}
if (pTypeDef->fillState >= resolve)
{
return;
}
}
if (pTypeDef->fillState < Type.TYPE_FILL_INTERFACES)
{
pTypeDef->fillState = Type.TYPE_FILL_INTERFACES;
if (pParent != null)
{
if (pParent->fillState < Type.TYPE_FILL_INTERFACES)
{
MetaData.Fill_TypeDef(pParent, null, null, Type.TYPE_FILL_INTERFACES);
}
else if (pParent->fillState < Type.TYPE_FILL_ALL)
{
MetaData.Fill_Defer(pParent, null, null);
}
}
if (pTypeDef->isGenericDefinition == 0 && !MetaData.TYPE_ISINTERFACE(pTypeDef))
{
if (pParent != null && pParent->fillState < Type.TYPE_FILL_INTERFACES)
{
MetaData.Fill_TypeDef(pParent, null, null, Type.TYPE_FILL_INTERFACES);
}
// Map all interface method calls. This only needs to be done for Classes, not Interfaces
// And is not done for generic definitions.
firstIdx = 0;
if (pTypeDef->pParent != null)
{
j = pTypeDef->numInterfaces = pTypeDef->pParent->numInterfaces;
}
else
{
j = 0;
}
lastIdx = firstIdx;
for (i = 1; i <= pMetaData->tables.numRows[MetaDataTable.MD_TABLE_INTERFACEIMPL]; i++)
{
tMD_InterfaceImpl *pInterfaceImpl;
pInterfaceImpl = (tMD_InterfaceImpl *)MetaData.GetTableRow(pMetaData, MetaData.MAKE_TABLE_INDEX(MetaDataTable.MD_TABLE_INTERFACEIMPL, i));
if (pInterfaceImpl->class_ == pTypeDef->tableIndex)
{
// count how many interfaces are implemented
pTypeDef->numInterfaces++;
if (firstIdx == 0)
{
firstIdx = MetaData.MAKE_TABLE_INDEX(MetaDataTable.MD_TABLE_INTERFACEIMPL, i);
}
lastIdx = MetaData.MAKE_TABLE_INDEX(MetaDataTable.MD_TABLE_INTERFACEIMPL, i);
}
}
if (pTypeDef->numInterfaces > 0)
{
uint mapNum;
pTypeDef->pInterfaceMaps = (tInterfaceMap *)Mem.mallocForever((SIZE_T)(pTypeDef->numInterfaces * sizeof(tInterfaceMap)));
// Copy interface maps from parent type
if (j > 0)
{
Mem.memcpy(pTypeDef->pInterfaceMaps, pTypeDef->pParent->pInterfaceMaps, (SIZE_T)(j * sizeof(tInterfaceMap)));
}
mapNum = j;
if (firstIdx > 0)
{
for (token = firstIdx; token <= lastIdx; token++, mapNum++)
{
tMD_InterfaceImpl *pInterfaceImpl;
pInterfaceImpl = (tMD_InterfaceImpl *)MetaData.GetTableRow(pMetaData, token);
if (pInterfaceImpl->class_ == pTypeDef->tableIndex)
{
tMD_TypeDef * pInterface;
tInterfaceMap *pMap;
// Get the interface that this type implements
pInterface = MetaData.GetTypeDefFromDefRefOrSpec(pMetaData, pInterfaceImpl->interface_, ppClassTypeArgs, ppMethodTypeArgs);
MetaData.Fill_TypeDef(pInterface, null, null, Type.TYPE_FILL_INTERFACES);
pMap = &pTypeDef->pInterfaceMaps[mapNum];
pMap->pInterface = pInterface;
pMap->pVTableLookup = (uint *)Mem.mallocForever((SIZE_T)(pInterface->numVirtualMethods * sizeof(uint)));
pMap->ppMethodVLookup = (tMD_MethodDef **)Mem.mallocForever((SIZE_T)(pInterface->numVirtualMethods * sizeof(tMD_MethodDef *)));
// Discover interface mapping for each interface method
for (i = 0; i < pInterface->numVirtualMethods; i++)
{
tMD_MethodDef *pInterfaceMethod;
tMD_MethodDef *pOverriddenMethod;
pInterfaceMethod = pInterface->pVTable[i];
pOverriddenMethod = FindVirtualOverriddenMethod(pTypeDef, pInterfaceMethod);
pMap->pVTableLookup[i] = pOverriddenMethod->vTableOfs;
pMap->ppMethodVLookup[i] = pOverriddenMethod;
}
}
else
{
Sys.Crash("Problem with interface class");
}
}
}
}
}
if (pTypeDef->fillState >= resolve)
{
return;
}
}
if (pTypeDef->fillState < Type.TYPE_FILL_ALL)
{
pTypeDef->fillState = Type.TYPE_FILL_ALL;
if (pTypeDef->isGenericDefinition == 0 && pTypeDef->stackSize == 0)
{
j = 0;
}
if (pParent != null && pParent->fillState < Type.TYPE_FILL_ALL)
{
MetaData.Fill_TypeDef(pParent, null, null, Type.TYPE_FILL_ALL);
}
if (isDeferred != 0)
{
Fill_ResolveDeferred();
}
}
Sys.log_f(2, "Type: %s.%s\n", (PTR)pTypeDef->nameSpace, (PTR)pTypeDef->name);
}
public static void Init()
{
methodNameBuf = (byte *)Mem.malloc((SIZE_T)METHOD_NAME_BUF_SIZE);
}
public static void SetParameters(tMethodState *pMethodState, tMD_MethodDef *pCallMethod, byte *pParams)
{
Mem.memcpy(pMethodState->pParamsLocals, pParams, pCallMethod->parameterStackSize);
}
public static void Fill_MethodDef(tMD_TypeDef *pParentType, tMD_MethodDef *pMethodDef,
tMD_TypeDef **ppClassTypeArgs, tMD_TypeDef **ppMethodTypeArgs)
{
/*SIG*/ byte *sig;
uint i, entry, totalSize, start;
if (pMethodDef->isFilled == 1)
{
return;
}
// Note: parent type can be null for module level methods (not typical in C# assemblies)
pMethodDef->pParentType = pParentType;
pMethodDef->pMethodDef = pMethodDef;
pMethodDef->isFilled = 1;
if (pMethodDef->isGenericDefinition != 0)
{
// Generic definition method, so can't do any more.
//Sys.log_f("Method<>: %s.%s.%s()\n", pParentType->nameSpace, pParentType->name, pMethodDef->name);
return;
}
sig = MetaData.GetBlob(pMethodDef->signature, null);
entry = MetaData.DecodeSigEntry(&sig);
if ((entry & SIG_METHODDEF_GENERIC) != 0)
{
// Has generic parameters. Read how many, but don't care about the answer
MetaData.DecodeSigEntry(&sig);
}
pMethodDef->numberOfParameters = (ushort)(MetaData.DecodeSigEntry(&sig) + (MetaData.METHOD_ISSTATIC(pMethodDef)?0:1));
pMethodDef->pReturnType = Type.GetTypeFromSig(pMethodDef->pMetaData, &sig, ppClassTypeArgs, ppMethodTypeArgs, null);
if (pMethodDef->pReturnType != null && pMethodDef->pReturnType->fillState < Type.TYPE_FILL_ALL)
{
Fill_Defer(pMethodDef->pReturnType, ppClassTypeArgs, ppMethodTypeArgs);
}
pMethodDef->pParams = (tParameter *)Mem.malloc((SIZE_T)(pMethodDef->numberOfParameters * sizeof(tParameter)));
totalSize = 0;
start = 0;
if (!MetaData.METHOD_ISSTATIC(pMethodDef))
{
// Fill in parameter info for the 'this' pointer
pMethodDef->pParams->offset = 0;
if (pParentType->isValueType != 0)
{
// If this is a value-type then the 'this' pointer is actually an IntPtr to the value-type's location
pMethodDef->pParams->size = sizeof(PTR);
pMethodDef->pParams->pStackTypeDef = Type.types[Type.TYPE_SYSTEM_INTPTR];
}
else
{
pMethodDef->pParams->size = sizeof(PTR);
pMethodDef->pParams->pStackTypeDef = pParentType;
}
totalSize = sizeof(PTR);
start = 1;
}
for (i = start; i < pMethodDef->numberOfParameters; i++)
{
tMD_TypeDef *pStackTypeDef;
tMD_TypeDef *pByRefTypeDef;
uint size;
pByRefTypeDef = null;
pStackTypeDef = Type.GetTypeFromSig(pMethodDef->pMetaData, &sig, ppClassTypeArgs, ppMethodTypeArgs, &pByRefTypeDef);
if (pStackTypeDef != null)
{
if (pStackTypeDef->fillState < Type.TYPE_FILL_LAYOUT)
{
MetaData.Fill_TypeDef(pStackTypeDef, null, null, Type.TYPE_FILL_LAYOUT);
}
else if (pStackTypeDef->fillState < Type.TYPE_FILL_ALL)
{
MetaData.Fill_Defer(pStackTypeDef, null, null);
}
size = pStackTypeDef->stackSize;
}
else
{
size = 0;
}
if (pByRefTypeDef != null)
{
if (pByRefTypeDef->fillState < Type.TYPE_FILL_LAYOUT)
{
MetaData.Fill_TypeDef(pByRefTypeDef, null, null, Type.TYPE_FILL_LAYOUT);
}
else if (pByRefTypeDef->fillState < Type.TYPE_FILL_ALL)
{
MetaData.Fill_Defer(pByRefTypeDef, null, null);
}
}
pMethodDef->pParams[i].pStackTypeDef = pStackTypeDef;
pMethodDef->pParams[i].pByRefTypeDef = pByRefTypeDef;
pMethodDef->pParams[i].offset = totalSize;
pMethodDef->pParams[i].size = size;
totalSize += size;
}
pMethodDef->parameterStackSize = totalSize;
}
static tMD_MethodDef *FindMethodInType(tMD_TypeDef *pTypeDef, /*STRING*/ byte *name, tMetaData *pSigMetaData,
/*BLOB_*/ byte *sigBlob, tMD_TypeDef **ppClassTypeArgs, tMD_TypeDef **ppMethodTypeArgs)
{
uint i;
tMD_TypeDef *pLookInType = pTypeDef;
if (pLookInType->fillState < Type.TYPE_FILL_MEMBERS)
{
MetaData.Fill_TypeDef(pTypeDef, ppClassTypeArgs, ppMethodTypeArgs, Type.TYPE_FILL_MEMBERS);
}
do
{
for (i = 0; i < pLookInType->numMethods; i++)
{
if (MetaData.CompareNameAndSig(name, sigBlob, pSigMetaData, ppClassTypeArgs, ppMethodTypeArgs,
pLookInType->ppMethods[i], pLookInType->ppClassTypeArgs, null) != 0)
{
return(pLookInType->ppMethods[i]);
}
}
pLookInType = pLookInType->pParent;
} while (pLookInType != null);
{
// Error reporting!!
uint entry, numParams, j;
/*SIG*/ byte * sig;
/*char**/ byte *pMsg, pMsgPos, pMsgEnd;
tMD_TypeDef * pParamTypeDef;
pMsgPos = pMsg = (byte *)Mem.malloc(MSG_BUF_SIZE);
pMsgEnd = pMsg + MSG_BUF_SIZE;
*pMsg = 0;
sig = MetaData.GetBlob(sigBlob, &j);
entry = MetaData.DecodeSigEntry(&sig);
if ((entry & SIG_METHODDEF_HASTHIS) == 0)
{
pMsgPos = S.scatprintf(pMsgPos, pMsgEnd, "static ");
}
if ((entry & SIG_METHODDEF_GENERIC) != 0)
{
// read number of generic type args - don't care what it is
MetaData.DecodeSigEntry(&sig);
}
numParams = MetaData.DecodeSigEntry(&sig);
pParamTypeDef = Type.GetTypeFromSig(pSigMetaData, &sig, ppClassTypeArgs, ppMethodTypeArgs, null); // return type
if (pParamTypeDef != null)
{
pMsgPos = S.scatprintf(pMsgPos, pMsgEnd, "%s ", (PTR)pParamTypeDef->name);
}
pMsgPos = S.scatprintf(pMsgPos, pMsgEnd, "%s.%s.%s(", (PTR)pTypeDef->nameSpace, (PTR)pTypeDef->name, (PTR)name);
for (j = 0; j < numParams; j++)
{
pParamTypeDef = Type.GetTypeFromSig(pSigMetaData, &sig, ppClassTypeArgs, ppMethodTypeArgs, null);
if (j > 0)
{
pMsgPos = S.scatprintf(pMsgPos, pMsgEnd, ",");
}
if (pParamTypeDef != null)
{
pMsgPos = S.scatprintf(pMsgPos, pMsgEnd, "%s", (PTR)pParamTypeDef->name);
}
else
{
pMsgPos = S.scatprintf(pMsgPos, pMsgEnd, "???");
}
}
Sys.Crash("FindMethodInType(): Cannot find method %s)", (PTR)pMsg);
}
return(null);
}
// Value-Type.types will be boxed
public static tAsyncCall *Internal_SetValue(tJITCallNative *pCallNative, byte *pThis_, byte *pParams, byte *pReturnValue)
{
tSystemArray * pArray = (tSystemArray *)pThis_;
tMD_TypeDef * pArrayType, pObjType;
uint index, elementSize;
/*HEAP_PTR*/ byte *obj;
tMD_TypeDef * pElementType;
byte * pElement;
pArrayType = Heap.GetType(pThis_);
obj = (*((byte **)(pParams + 0)));
pObjType = Heap.GetType(obj);
pElementType = pArrayType->pArrayElementType;
// Check to see if the Type is ok to put in the array
if (!(Type.IsAssignableFrom(pElementType, pObjType) != 0 ||
(pElementType->pGenericDefinition == Type.types[Type.TYPE_SYSTEM_NULLABLE] &&
pElementType->ppClassTypeArgs[0] == pObjType)))
{
// Can't be done
Sys.INTERNALCALL_RESULT_U32(pReturnValue, 0);
return(null);
}
index = (*((uint *)(pParams + Sys.S_PTR)));
#if WIN32 && _DEBUG
// Do a bounds-check
if (index >= pArray->length)
{
printf("[Array] Internal_SetValue() Bounds-check failed\n");
__debugbreak();
}
#endif
elementSize = pElementType->arrayElementSize;
pElement = tSystemArray.GetElements(pArray) + elementSize * index;
if (pElementType->isValueType != 0)
{
if (pElementType->pGenericDefinition == Type.types[Type.TYPE_SYSTEM_NULLABLE])
{
// Nullable type, so treat specially
if (obj == null)
{
Mem.memset(pElement, 0, elementSize);
}
else
{
*(uint *)pElement = 1;
Mem.memcpy(pElement + 4, obj, elementSize - 4);
}
}
else
{
// Get the value out of the box
Mem.memcpy(pElement, obj, elementSize);
}
}
else
{
// This must be a reference type, so it must be 32-bits wide
*(/*HEAP_PTR*/ byte **)pElement = obj;
}
Sys.INTERNALCALL_RESULT_U32(pReturnValue, 1);
return(null);
}
public static void GarbageCollect()
{
#if NO
tHeapRoots heapRoots;
tHeapEntry * pNode;
tHeapEntry **pUp = stackalloc tHeapEntry *[MAX_TREE_DEPTH * 2];
int top;
tHeapEntry * pToDelete = null;
SIZE_T orgHeapSize = trackHeapSize;
uint orgNumNodes = numNodes;
#if DIAG_GC
ulong startTime;
#endif
Mem.heapcheck();
numCollections++;
#if DIAG_GC
startTime = microTime();
#endif
heapRoots.capacity = 64;
heapRoots.num = 0;
heapRoots.pHeapEntries = (tHeapRootEntry *)Mem.malloc(heapRoots.capacity * (SIZE_T)sizeof(tHeapRootEntry));
Thread.GetHeapRoots(&heapRoots);
CLIFile.GetHeapRoots(&heapRoots);
// Mark phase
while (heapRoots.num > 0)
{
tHeapRootEntry *pRootsEntry;
uint i;
uint moreRootsAdded = 0;
uint rootsEntryNumPointers;
void ** pRootsEntryMem;
// Get a piece of memory off the list of heap memory roots.
pRootsEntry = &heapRoots.pHeapEntries[heapRoots.num - 1];
rootsEntryNumPointers = pRootsEntry->numPointers;
pRootsEntryMem = pRootsEntry->pMem;
// Mark this entry as done
pRootsEntry->numPointers = 0;
pRootsEntry->pMem = null;
// Iterate through all pointers in it
for (i = 0; i < rootsEntryNumPointers; i++)
{
void *pMemRef = pRootsEntryMem[i];
// Quick escape for known non-memory
if (pMemRef == null)
{
continue;
}
// Find this piece of heap memory in the tracking tree.
// Note that the 2nd memory address comparison MUST be >, not >= as might be expected,
// to allow for a zero-sized memory to be detected (and not garbage collected) properly.
// E.g. The object class has zero memory.
pNode = pHeapTreeRoot;
while (pNode != nil)
{
if (pMemRef < (void *)pNode)
{
pNode = (tHeapEntry *)pNode->pLink[0];
}
else if ((byte *)pMemRef > ((byte *)pNode) + GetSize(pNode) + sizeof(tHeapEntry))
{
pNode = (tHeapEntry *)pNode->pLink[1];
}
else
{
// Found memory. See if it's already been marked.
// If it's already marked, then don't do anything.
// It it's not marked, then add all of its memory to the roots, and mark it.
if (pNode->marked == 0)
{
tMD_TypeDef *pType = pNode->pTypeDef;
// Not yet marked, so mark it, and add it to heap roots.
pNode->marked = 1;
// Don't look at the contents of strings, arrays of primitive Type.types, or WeakReferences
if (pType->stackType == EvalStack.EVALSTACK_O ||
pType->stackType == EvalStack.EVALSTACK_VALUETYPE ||
pType->stackType == EvalStack.EVALSTACK_PTR)
{
if (pType != Type.types[Type.TYPE_SYSTEM_STRING] &&
(!MetaData.TYPE_ISARRAY(pType) ||
pType->pArrayElementType->stackType == EvalStack.EVALSTACK_O ||
pType->pArrayElementType->stackType == EvalStack.EVALSTACK_VALUETYPE ||
pType->pArrayElementType->stackType == EvalStack.EVALSTACK_PTR))
{
if (pType != Type.types[Type.TYPE_SYSTEM_WEAKREFERENCE])
{
Heap.SetRoots(&heapRoots, ((byte *)&pNode->pSync + sizeof(PTR)), GetSize(pNode));
moreRootsAdded = 1;
}
}
}
}
break;
}
}
}
if (moreRootsAdded == 0)
{
heapRoots.num--;
}
}
Mem.free(heapRoots.pHeapEntries);
// Sweep phase
// Traverse nodes
pUp[0] = pHeapTreeRoot;
top = 1;
while (top != 0)
{
// Get this node
pNode = pUp[--top];
// Act on this node
if (pNode->marked != 0)
{
if (pNode->marked != 0xff)
{
// Still in use (but not marked undeletable), so unmark
pNode->marked = 0;
}
}
else
{
// Not in use any more, so put in deletion queue if it does not need Finalizing
// If it does need Finalizing, then don't garbage collect, and put in Finalization queue.
if (pNode->needToFinalize != 0)
{
if (pNode->needToFinalize == 1)
{
Finalizer.AddFinalizer((/*HEAP_PTR*/ byte *)pNode + sizeof(tHeapEntry));
// Mark it has having been placed in the finalization queue.
// When it has been finalized, then this will be set to 0
pNode->needToFinalize = 2;
// If this object is being targetted by weak-ref(s), handle it
if (pNode->pSync != null)
{
RemoveWeakRefTarget(pNode, 0);
Mem.free(pNode->pSync);
}
}
}
else
{
// If this object is being targetted by weak-ref(s), handle it
if (pNode->pSync != null)
{
RemoveWeakRefTarget(pNode, 1);
Mem.free(pNode->pSync);
}
// Use pSync to point to next entry in this linked-list.
pNode->pSync = (tSync *)pToDelete;
pToDelete = pNode;
}
}
// Get next node(s)
if (pNode->pLink[1] != (PTR)nil)
{
pUp[top++] = (tHeapEntry *)pNode->pLink[1];
}
if (pNode->pLink[0] != (PTR)nil)
{
pUp[top++] = (tHeapEntry *)pNode->pLink[0];
}
}
// Delete all unused memory nodes.
while (pToDelete != null)
{
tHeapEntry *pThis = pToDelete;
pToDelete = (tHeapEntry *)(pToDelete->pSync);
pHeapTreeRoot = TreeRemove(pHeapTreeRoot, pThis);
if (pThis->monoGCHandle == 1)
{
void *hptr = *(void **)((byte *)pThis + sizeof(tHeapEntry));
if (hptr != null)
{
GCHandle h = System.Runtime.InteropServices.GCHandle.FromIntPtr((System.IntPtr)hptr);
h.Free();
}
}
numNodes--;
trackHeapSize -= GetSize(pThis) + (uint)sizeof(tHeapEntry);
Mem.free(pThis);
}
Mem.heapcheck();
#if DIAG_GC
gcTotalTime += microTime() - startTime;
#endif
Sys.log_f(1, "--- GARBAGE --- [Size: %d -> %d] [Nodes: %d -> %d]\n",
orgHeapSize, trackHeapSize, orgNumNodes, numNodes);
#if DIAG_GC
Sys.log_f(1, "GC time = %d ms\n", gcTotalTime / 1000);
#endif
#endif
}
public static tAsyncCall *InternalReplace(tJITCallNative *pCallNative, byte *pThis_, byte *pParams, byte *pReturnValue)
{
tSystemString *pThis = (tSystemString *)pThis_;
tSystemString *pOld = (*((tSystemString **)(pParams + 0)));
tSystemString *pNew = (*((tSystemString **)(pParams + Sys.S_PTR)));
tSystemString *pResult;
uint thisLen, oldLen, newLen;
char * pThisChar0, pOldChar0, pNewChar0, pResultChar0;
uint i, j, replacements, dstIndex;
uint resultLen;
// This function (correctly) assumes that the old string is not empty
thisLen = pThis->length;
oldLen = pOld->length;
newLen = pNew->length;
pThisChar0 = tSystemString.GetChars(pThis);
pOldChar0 = tSystemString.GetChars(pOld);
pNewChar0 = tSystemString.GetChars(pNew);
replacements = 0;
for (i = 0; i < thisLen - oldLen + 1; i++)
{
uint match = 1;
for (j = 0; j < oldLen; j++)
{
if (pThisChar0[i + j] != pOldChar0[j])
{
match = 0;
break;
}
}
if (match != 0)
{
i += oldLen - 1;
replacements++;
}
}
resultLen = thisLen - (oldLen - newLen) * replacements;
pResult = CreateStringHeapObj(resultLen);
pResultChar0 = tSystemString.GetChars(pResult);
dstIndex = 0;
for (i = 0; i < thisLen; i++)
{
uint match = 1;
if (i < thisLen - oldLen + 1)
{
for (j = 0; j < oldLen; j++)
{
match = 1;
if (pThisChar0[i + j] != pOldChar0[j])
{
match = 0;
break;
}
}
}
else
{
match = 0;
}
if (match != 0)
{
Mem.memcpy(&pResultChar0[dstIndex], pNewChar0, newLen << 1);
dstIndex += newLen;
i += oldLen - 1;
}
else
{
pResultChar0[dstIndex++] = pThisChar0[i];
}
}
Sys.INTERNALCALL_RESULT_PTR(pReturnValue, pResult);
return(null);
}
public static tAsyncCall *InternalTrim(tJITCallNative *pCallNative, byte *pThis_, byte *pParams, byte *pReturnValue)
{
tSystemString * pThis = (tSystemString *)pThis_;
/*HEAP_PTR*/ byte *pWhiteChars;
uint trimType, i, j, checkCharsLen;
uint ofsStart, ofsEnd;
ushort * pCheckChars;
uint isWhiteSpace;
tSystemString *pRet;
ushort c;
char * pChars, pRetChars;
pWhiteChars = (*((/*HEAP_PTR*/ byte **)(pParams + 0)));
trimType = (*((uint *)(pParams + Sys.S_PTR)));
pCheckChars = (ushort *)System_Array.GetElements(pWhiteChars);
checkCharsLen = System_Array.GetLength(pWhiteChars);
ofsStart = 0;
ofsEnd = pThis->length;
pChars = tSystemString.GetChars(pThis);
if ((trimType & 1) != 0)
{
// Trim start
for (i = ofsStart; i < ofsEnd; i++)
{
// Check if each char is in the array
isWhiteSpace = 0;
c = pChars[i];
for (j = 0; j < checkCharsLen; j++)
{
if (c == pCheckChars[j])
{
isWhiteSpace = 1;
break;
}
}
if (isWhiteSpace == 0)
{
ofsStart = i;
break;
}
}
}
if ((trimType & 2) != 0)
{
// Trim end
for (i = ofsEnd - 1; i >= ofsStart; i--)
{
// Check if each char is in the array
isWhiteSpace = 0;
c = pChars[i];
for (j = 0; j < checkCharsLen; j++)
{
if (c == pCheckChars[j])
{
isWhiteSpace = 1;
break;
}
}
if (isWhiteSpace == 0)
{
ofsEnd = i + 1;
break;
}
}
}
pRet = CreateStringHeapObj(ofsEnd - ofsStart);
pRetChars = tSystemString.GetChars(pRet);
Mem.memcpy(pRetChars, &pChars[ofsStart], (SIZE_T)((ofsEnd - ofsStart) << 1));
Sys.INTERNALCALL_RESULT_PTR(pReturnValue, pRet);
return(null);
}
