static void DeallocateFileCommandData(
void *theEnv)
{
struct batchEntry *theEntry, *nextEntry;
theEntry = FileCommandData(theEnv)->TopOfBatchList;
while (theEntry != NULL)
{
nextEntry = theEntry->next;
if (theEntry->batchType == FILE_BATCH)
{ GenClose(theEnv,(FILE *) FileCommandData(theEnv)->TopOfBatchList->inputSource); }
else
{ rm(theEnv,theEntry->theString,strlen(theEntry->theString) + 1); }
rtn_struct(theEnv,batchEntry,theEntry);
theEntry = nextEntry;
}
if (FileCommandData(theEnv)->BatchBuffer != NULL)
{ rm(theEnv,FileCommandData(theEnv)->BatchBuffer,FileCommandData(theEnv)->BatchMaximumPosition); }
#if DEBUGGING_FUNCTIONS
if (FileCommandData(theEnv)->DribbleBuffer != NULL)
{ rm(theEnv,FileCommandData(theEnv)->DribbleBuffer,FileCommandData(theEnv)->DribbleMaximumPosition); }
if (FileCommandData(theEnv)->DribbleFP != NULL)
{ GenClose(theEnv,FileCommandData(theEnv)->DribbleFP); }
#endif
}
globle int CloseFile(
void *theEnv,
char *fid)
{
struct fileRouter *fptr, *prev;
for (fptr = FileRouterData(theEnv)->ListOfFileRouters, prev = NULL;
fptr != NULL;
fptr = fptr->next)
{
if (strcmp(fptr->logicalName,fid) == 0)
{
GenClose(theEnv,fptr->stream);
rm(theEnv,fptr->logicalName,strlen(fptr->logicalName) + 1);
if (prev == NULL)
{ FileRouterData(theEnv)->ListOfFileRouters = fptr->next; }
else
{ prev->next = fptr->next; }
rm(theEnv,fptr,(int) sizeof(struct fileRouter));
return(TRUE);
}
prev = fptr;
}
return(FALSE);
}
globle intBool EnvDribbleOff(
void *theEnv)
{
int rv = 0;
/*================================================*/
/* Call the dribble status function. This is used */
/* by some of the machine specific interfaces to */
/* do things such as changing the wording of menu */
/* items from "Turn Dribble On..." to */
/* "Turn Dribble Off..." */
/*================================================*/
if (FileCommandData(theEnv)->DribbleStatusFunction != NULL)
{
(*FileCommandData(theEnv)->DribbleStatusFunction)(theEnv,FALSE);
}
/*=======================================*/
/* Close the dribble file and deactivate */
/* the dribble router. */
/*=======================================*/
if (FileCommandData(theEnv)->DribbleFP != NULL)
{
if (FileCommandData(theEnv)->DribbleCurrentPosition > 0)
{
fprintf(FileCommandData(theEnv)->DribbleFP,"%s",FileCommandData(theEnv)->DribbleBuffer);
}
EnvDeleteRouter(theEnv,(char*)"dribble");
if (GenClose(theEnv,FileCommandData(theEnv)->DribbleFP) == 0) rv = 1;
}
else
{
rv = 1;
}
FileCommandData(theEnv)->DribbleFP = NULL;
/*============================================*/
/* Free the space used by the dribble buffer. */
/*============================================*/
if (FileCommandData(theEnv)->DribbleBuffer != NULL)
{
rm(theEnv,FileCommandData(theEnv)->DribbleBuffer,FileCommandData(theEnv)->DribbleMaximumPosition);
FileCommandData(theEnv)->DribbleBuffer = NULL;
}
FileCommandData(theEnv)->DribbleCurrentPosition = 0;
FileCommandData(theEnv)->DribbleMaximumPosition = 0;
/*============================================*/
/* Return TRUE if the dribble file was closed */
/* without error, otherwise return FALSE. */
/*============================================*/
return(rv);
}
globle int EnvSave(
void *theEnv,
EXEC_STATUS,
char *fileName)
{
struct callFunctionItem *saveFunction;
FILE *filePtr;
void *defmodulePtr;
/*=====================*/
/* Open the save file. */
/*=====================*/
if ((filePtr = GenOpen(theEnv,execStatus,fileName,"w")) == NULL)
{ return(FALSE); }
/*===========================*/
/* Bypass the router system. */
/*===========================*/
SetFastSave(theEnv,execStatus,filePtr);
/*======================*/
/* Save the constructs. */
/*======================*/
for (defmodulePtr = EnvGetNextDefmodule(theEnv,execStatus,NULL);
defmodulePtr != NULL;
defmodulePtr = EnvGetNextDefmodule(theEnv,execStatus,defmodulePtr))
{
for (saveFunction = ConstructData(theEnv,execStatus)->ListOfSaveFunctions;
saveFunction != NULL;
saveFunction = saveFunction->next)
{
((* (void (*)(void *,EXEC_STATUS,void *,char *)) saveFunction->func))(theEnv,execStatus,defmodulePtr,(char *) filePtr);
}
}
/*======================*/
/* Close the save file. */
/*======================*/
GenClose(theEnv,execStatus,filePtr);
/*===========================*/
/* Remove the router bypass. */
/*===========================*/
SetFastSave(theEnv,execStatus,NULL);
/*=========================*/
/* Return TRUE to indicate */
/* successful completion. */
/*=========================*/
return(TRUE);
}
static int ExitDribble(
void *theEnv,
int num)
{
if (FileCommandData(theEnv)->DribbleCurrentPosition > 0)
{
fprintf(FileCommandData(theEnv)->DribbleFP,"%s",FileCommandData(theEnv)->DribbleBuffer);
}
if (FileCommandData(theEnv)->DribbleFP != NULL) GenClose(theEnv,FileCommandData(theEnv)->DribbleFP);
return(1);
}
static int ExitDribble(
void *theEnv,
int num)
{
#if MAC_XCD
#pragma unused(num)
#endif
if (FileCommandData(theEnv)->DribbleCurrentPosition > 0)
{ fprintf(FileCommandData(theEnv)->DribbleFP,"%s",FileCommandData(theEnv)->DribbleBuffer); }
if (FileCommandData(theEnv)->DribbleFP != NULL) GenClose(theEnv,FileCommandData(theEnv)->DribbleFP);
return(1);
}
static void ExitDribbleCallback(
Environment *theEnv,
int num,
void *context)
{
#if MAC_XCD
#pragma unused(num)
#endif
if (FileCommandData(theEnv)->DribbleCurrentPosition > 0)
{ fprintf(FileCommandData(theEnv)->DribbleFP,"%s",FileCommandData(theEnv)->DribbleBuffer); }
if (FileCommandData(theEnv)->DribbleFP != NULL) GenClose(theEnv,FileCommandData(theEnv)->DribbleFP);
}
globle intBool EnvLoadFacts(
void *theEnv,
char *fileName)
{
FILE *filePtr;
struct token theToken;
struct expr *testPtr;
DATA_OBJECT rv;
/*======================================================*/
/* Open the file. Use either "fast save" or I/O Router. */
/*======================================================*/
if ((filePtr = GenOpen(theEnv,fileName,(char*)"r")) == NULL)
{
OpenErrorMessage(theEnv,(char*)"load-facts",fileName);
return(FALSE);
}
SetFastLoad(theEnv,filePtr);
/*=================*/
/* Load the facts. */
/*=================*/
theToken.type = LPAREN;
while (theToken.type != STOP)
{
testPtr = StandardLoadFact(theEnv,(char *) filePtr,&theToken);
if (testPtr == NULL) theToken.type = STOP;
else EvaluateExpression(theEnv,testPtr,&rv);
ReturnExpression(theEnv,testPtr);
}
/*=================*/
/* Close the file. */
/*=================*/
SetFastLoad(theEnv,NULL);
GenClose(theEnv,filePtr);
/*================================================*/
/* Return TRUE if no error occurred while loading */
/* the facts, otherwise return FALSE. */
/*================================================*/
if (EvaluationData(theEnv)->EvaluationError) return(FALSE);
return(TRUE);
}
static void DeallocateFileRouterData(
void *theEnv)
{
struct fileRouter *tmpPtr, *nextPtr;
tmpPtr = FileRouterData(theEnv)->ListOfFileRouters;
while (tmpPtr != NULL)
{
nextPtr = tmpPtr->next;
GenClose(theEnv,tmpPtr->stream);
rm(theEnv,tmpPtr->logicalName,strlen(tmpPtr->logicalName) + 1);
rtn_struct(theEnv,fileRouter,tmpPtr);
tmpPtr = nextPtr;
}
}
globle int CloseAllFiles(
void *theEnv)
{
struct fileRouter *fptr, *prev;
if (FileRouterData(theEnv)->ListOfFileRouters == NULL) return(FALSE);
fptr = FileRouterData(theEnv)->ListOfFileRouters;
while (fptr != NULL)
{
GenClose(theEnv,fptr->stream);
prev = fptr;
rm(theEnv,fptr->logicalName,strlen(fptr->logicalName) + 1);
fptr = fptr->next;
rm(theEnv,prev,(int) sizeof(struct fileRouter));
}
FileRouterData(theEnv)->ListOfFileRouters = NULL;
return(TRUE);
}
globle int EnvLoad(
void *theEnv,
char *fileName)
{
FILE *theFile;
int noErrorsDetected;
/*=======================================*/
/* Open the file specified by file name. */
/*=======================================*/
if ((theFile = GenOpen(theEnv,fileName,"r")) == NULL) return(0);
/*===================================================*/
/* Read in the constructs. Enabling fast load allows */
/* the router system to be bypassed for quicker load */
/* times. */
/*===================================================*/
SetFastLoad(theEnv,theFile);
noErrorsDetected = LoadConstructsFromLogicalName(theEnv,(char *) theFile);
SetFastLoad(theEnv,NULL);
/*=================*/
/* Close the file. */
/*=================*/
GenClose(theEnv,theFile);
/*========================================*/
/* If no errors occurred during the load, */
/* return 1, otherwise return -1. */
/*========================================*/
if (noErrorsDetected) return(1);
return(-1);
}
static int ConstructToCode(
void *theEnv,
char *fileName,
char *pathName,
char *fileNameBuffer,
int fileID,
FILE *headerFP,
int imageID,
int maxIndices)
{
struct defmodule *theConstruct;
FILE *moduleFile = NULL, *itemsFile;
int portItemCount = 0;
struct portItem *portItemPtr;
int mihCount = 0, moduleCount = 0;
int j;
struct moduleItem *theItem;
int moduleArrayVersion = 1;
int fileCount = 2;
/*================================================*/
/* Include the appropriate defmodule header file. */
/*================================================*/
fprintf(headerFP,"#include \"moduldef.h\"\n");
/*============================================*/
/* Open up the items file for the defmodules. */
/* Only one file of this type is created so */
/* the maximum number of indices is ignored. */
/*============================================*/
if ((itemsFile = NewCFile(theEnv,fileName,pathName,fileNameBuffer,fileID,1,FALSE)) == NULL)
{ return(FALSE); }
fprintf(itemsFile,"struct defmoduleItemHeader *%s%d_%d[] = {\n",ItemPrefix(),imageID,1);
fprintf(headerFP,"extern struct defmoduleItemHeader *%s%d_%d[];\n",ItemPrefix(),imageID,1);
/*======================================================*/
/* Loop through all the defmodules writing their C code */
/* representation to the file as they are traversed. */
/*======================================================*/
for (theConstruct = (struct defmodule *) EnvGetNextDefmodule(theEnv,NULL);
theConstruct != NULL;
theConstruct = (struct defmodule *) EnvGetNextDefmodule(theEnv,theConstruct))
{
/*===========================================*/
/* Open a new file to write to if necessary. */
/*===========================================*/
moduleFile = OpenFileIfNeeded(theEnv,moduleFile,fileName,pathName,fileNameBuffer,fileID,imageID,
&fileCount,moduleArrayVersion,headerFP,
"struct defmodule",DefmodulePrefix(),
FALSE,NULL);
if (moduleFile == NULL)
{
moduleCount = maxIndices;
CloseFileIfNeeded(theEnv,moduleFile,&moduleCount,
&moduleArrayVersion,maxIndices,NULL,NULL);
GenClose(theEnv,itemsFile);
return(FALSE);
}
/*======================================*/
/* Write the construct name and ppform. */
/*======================================*/
fprintf(moduleFile,"{");
PrintSymbolReference(theEnv,moduleFile,theConstruct->name);
fprintf(moduleFile,",NULL,");
/*=====================================================*/
/* Write the items array pointers to other constructs. */
/*=====================================================*/
fprintf(moduleFile,"&%s%d_1[%d],",ItemPrefix(),imageID,mihCount);
for (j = 0, theItem = GetListOfModuleItems(theEnv);
(j < GetNumberOfModuleItems(theEnv)) && (theItem != NULL) ;
j++, theItem = theItem->next)
{
mihCount++;
if (theItem->constructsToCModuleReference == NULL)
{ fprintf(itemsFile,"NULL"); }
else
{ (*theItem->constructsToCModuleReference)(theEnv,itemsFile,(int) theConstruct->bsaveID,imageID,maxIndices); }
if ((j + 1) < GetNumberOfModuleItems(theEnv)) fprintf(itemsFile,",");
else if (theConstruct->next != NULL) fprintf(itemsFile,",\n");
}
/*=================================*/
/* Write the importList reference. */
/*=================================*/
if (theConstruct->importList == NULL)
{ fprintf(moduleFile,"NULL,"); }
else
{
fprintf(moduleFile,"&%s%d_%d[%d],",PortPrefix(),imageID,
(portItemCount / maxIndices) + 1,
portItemCount % maxIndices);
for (portItemPtr = theConstruct->importList;
portItemPtr != NULL;
portItemPtr = portItemPtr->next)
{ portItemCount++; }
}
/*=================================*/
/* Write the exportList reference. */
/*=================================*/
if (theConstruct->exportList == NULL)
{ fprintf(moduleFile,"NULL,"); }
else
{
fprintf(moduleFile,"&%s%d_%d[%d],",PortPrefix(),imageID,
(portItemCount / maxIndices) + 1,
portItemCount % maxIndices);
for (portItemPtr = theConstruct->exportList;
portItemPtr != NULL;
portItemPtr = portItemPtr->next)
{ portItemCount++; }
}
/*=====================*/
/* Write the bsave id. */
/*=====================*/
fprintf(moduleFile,"0,%ld,",theConstruct->bsaveID);
/*======================*/
/* Write the user data. */
/*======================*/
fprintf(moduleFile,"NULL,");
/*===========================*/
/* Write the next reference. */
/*===========================*/
if (theConstruct->next == NULL)
{ fprintf(moduleFile,"NULL}"); }
else
{
fprintf(moduleFile,"&%s%d_%d[%d]}",ConstructPrefix(DefmoduleData(theEnv)->DefmoduleCodeItem),imageID,
(int) (theConstruct->next->bsaveID / maxIndices) + 1,
(int) theConstruct->next->bsaveID % maxIndices);
}
/*===================================================*/
/* Increment the number of defmodule data structures */
/* written and close the output file if necessary. */
/*===================================================*/
moduleCount++;
moduleFile = CloseFileIfNeeded(theEnv,moduleFile,&moduleCount,&moduleArrayVersion,
maxIndices,NULL,NULL);
}
/*=========================*/
/* Close the output files. */
/*=========================*/
moduleCount = maxIndices;
CloseFileIfNeeded(theEnv,moduleFile,&moduleCount,
&moduleArrayVersion,maxIndices,NULL,NULL);
fprintf(itemsFile,"};\n");
GenClose(theEnv,itemsFile);
/*=========================================*/
/* Write out the portItem data structures. */
/*=========================================*/
if (portItemCount == 0) return(TRUE);
return(PortItemsToCode(theEnv,fileName,pathName,fileNameBuffer,fileID,headerFP,imageID,maxIndices,&fileCount));
}
globle intBool EnvSaveFacts(
void *theEnv,
char *fileName,
int saveCode,
struct expr *theList)
{
int tempValue1, tempValue2, tempValue3;
struct fact *theFact;
FILE *filePtr;
struct defmodule *theModule;
DATA_OBJECT_PTR theDOArray;
int count, i, printFact, error;
/*======================================================*/
/* Open the file. Use either "fast save" or I/O Router. */
/*======================================================*/
if ((filePtr = GenOpen(theEnv,fileName,(char*)"w")) == NULL)
{
OpenErrorMessage(theEnv,(char*)"save-facts",fileName);
return(FALSE);
}
SetFastSave(theEnv,filePtr);
/*===========================================*/
/* Set the print flags so that addresses and */
/* strings are printed properly to the file. */
/*===========================================*/
tempValue1 = PrintUtilityData(theEnv)->PreserveEscapedCharacters;
PrintUtilityData(theEnv)->PreserveEscapedCharacters = TRUE;
tempValue2 = PrintUtilityData(theEnv)->AddressesToStrings;
PrintUtilityData(theEnv)->AddressesToStrings = TRUE;
tempValue3 = PrintUtilityData(theEnv)->InstanceAddressesToNames;
PrintUtilityData(theEnv)->InstanceAddressesToNames = TRUE;
/*===================================================*/
/* Determine the list of specific facts to be saved. */
/*===================================================*/
theDOArray = GetSaveFactsDeftemplateNames(theEnv,theList,saveCode,&count,&error);
if (error)
{
PrintUtilityData(theEnv)->PreserveEscapedCharacters = tempValue1;
PrintUtilityData(theEnv)->AddressesToStrings = tempValue2;
PrintUtilityData(theEnv)->InstanceAddressesToNames = tempValue3;
GenClose(theEnv,filePtr);
SetFastSave(theEnv,NULL);
return(FALSE);
}
/*=================*/
/* Save the facts. */
/*=================*/
theModule = ((struct defmodule *) EnvGetCurrentModule(theEnv));
for (theFact = (struct fact *) GetNextFactInScope(theEnv,NULL);
theFact != NULL;
theFact = (struct fact *) GetNextFactInScope(theEnv,theFact))
{
/*===========================================================*/
/* If we're doing a local save and the facts's corresponding */
/* deftemplate isn't in the current module, then don't save */
/* the fact. */
/*===========================================================*/
if ((saveCode == LOCAL_SAVE) &&
(theFact->whichDeftemplate->header.whichModule->theModule != theModule))
{ printFact = FALSE; }
/*=====================================================*/
/* Otherwise, if the list of facts to be printed isn't */
/* restricted, then set the print flag to TRUE. */
/*=====================================================*/
else if (theList == NULL)
{ printFact = TRUE; }
/*=======================================================*/
/* Otherwise see if the fact's corresponding deftemplate */
/* is in the list of deftemplates whose facts are to be */
/* saved. If it's in the list, then set the print flag */
/* to TRUE, otherwise set it to FALSE. */
/*=======================================================*/
else
{
printFact = FALSE;
for (i = 0; i < count; i++)
{
if (theDOArray[i].value == (void *) theFact->whichDeftemplate)
{
printFact = TRUE;
break;
}
}
}
/*===================================*/
/* If the print flag is set to TRUE, */
/* then save the fact to the file. */
/*===================================*/
if (printFact)
{
PrintFact(theEnv,(char *) filePtr,theFact,FALSE,FALSE);
EnvPrintRouter(theEnv,(char *) filePtr,(char*)"\n");
}
}
/*==========================*/
/* Restore the print flags. */
/*==========================*/
PrintUtilityData(theEnv)->PreserveEscapedCharacters = tempValue1;
PrintUtilityData(theEnv)->AddressesToStrings = tempValue2;
PrintUtilityData(theEnv)->InstanceAddressesToNames = tempValue3;
/*=================*/
/* Close the file. */
/*=================*/
GenClose(theEnv,filePtr);
SetFastSave(theEnv,NULL);
/*==================================*/
/* Free the deftemplate name array. */
/*==================================*/
if (theList != NULL) rm3(theEnv,theDOArray,(long) sizeof(DATA_OBJECT) * count);
/*===================================*/
/* Return TRUE to indicate no errors */
/* occurred while saving the facts. */
/*===================================*/
return(TRUE);
}
bool Save(
Environment *theEnv,
const char *fileName)
{
struct saveCallFunctionItem *saveFunction;
FILE *filePtr;
Defmodule *defmodulePtr;
bool updated = false;
bool unvisited = true;
/*=====================================*/
/* If embedded, clear the error flags. */
/*=====================================*/
if (EvaluationData(theEnv)->CurrentExpression == NULL)
{ ResetErrorFlags(theEnv); }
/*=====================*/
/* Open the save file. */
/*=====================*/
if ((filePtr = GenOpen(theEnv,fileName,"w")) == NULL)
{ return false; }
/*===========================*/
/* Bypass the router system. */
/*===========================*/
SetFastSave(theEnv,filePtr);
/*================================*/
/* Mark all modules as unvisited. */
/*================================*/
MarkModulesAsUnvisited(theEnv);
/*===============================================*/
/* Save the constructs. Repeatedly loop over the */
/* modules until each module has been save. */
/*===============================================*/
while (unvisited)
{
unvisited = false;
updated = false;
for (defmodulePtr = GetNextDefmodule(theEnv,NULL);
defmodulePtr != NULL;
defmodulePtr = GetNextDefmodule(theEnv,defmodulePtr))
{
/*=================================================================*/
/* We only want to save a module if all of the modules it imports */
/* from have already been saved. Since there can't be circular */
/* dependencies in imported modules, this should save the modules */
/* that don't import anything first and then work back from those. */
/*=================================================================*/
if (defmodulePtr->visitedFlag)
{ /* Module has already been saved. */ }
else if (AllImportedModulesVisited(theEnv,defmodulePtr))
{
for (saveFunction = ConstructData(theEnv)->ListOfSaveFunctions;
saveFunction != NULL;
saveFunction = saveFunction->next)
{ (*saveFunction->func)(theEnv,defmodulePtr,(char *) filePtr,saveFunction->context); }
updated = true;
defmodulePtr->visitedFlag = true;
}
else
{ unvisited = true; }
}
/*=====================================================================*/
/* At least one module should be saved in every pass. If all have been */
/* visited/saved, then both flags will be false. If all remaining */
/* unvisited/unsaved modules were visited/saved, then unvisited will */
/* be false and updated will be true. If some, but not all, remaining */
/* unvisited/unsaved modules are visited/saved, then unvisited will */
/* be true and updated will be true. This leaves the case where there */
/* are remaining unvisited/unsaved modules, but none were */
/* visited/saved: unvisited is true and updated is false. */
/*=====================================================================*/
if (unvisited && (! updated))
{
SystemError(theEnv,"CONSTRCT",2);
break;
}
}
/*======================*/
/* Close the save file. */
/*======================*/
GenClose(theEnv,filePtr);
/*===========================*/
/* Remove the router bypass. */
/*===========================*/
SetFastSave(theEnv,NULL);
/*=========================*/
/* Return true to indicate */
/* successful completion. */
/*=========================*/
return true;
}
static int BitMapValuesToCode(
void *theEnv,
EXEC_STATUS,
char *fileName,
char *pathName,
char *fileNameBuffer,
int version)
{
int i, j, k;
unsigned l;
struct bitMapHashNode *hashPtr;
int count;
int numberOfEntries;
struct bitMapHashNode **bitMapTable;
int newHeader = TRUE;
int arrayVersion = 1;
FILE *fp;
unsigned long tmpLong;
int longsReqd;
/*====================================*/
/* Count the total number of entries. */
/*====================================*/
bitMapTable = GetBitMapTable(theEnv,execStatus);
count = numberOfEntries = 0;
for (i = 0; i < BITMAP_HASH_SIZE; i++)
{
for (hashPtr = bitMapTable[i];
hashPtr != NULL;
hashPtr = hashPtr->next)
{
numberOfEntries += (int) (hashPtr->size / sizeof(unsigned long));
if ((hashPtr->size % sizeof(unsigned long)) != 0)
{ numberOfEntries++; }
}
}
if (numberOfEntries == 0) return(version);
for (i = 1; i <= (numberOfEntries / ConstructCompilerData(theEnv,execStatus)->MaxIndices) + 1 ; i++)
{ fprintf(ConstructCompilerData(theEnv,execStatus)->HeaderFP,"extern unsigned long L%d_%d[];\n",ConstructCompilerData(theEnv,execStatus)->ImageID,i); }
/*==================*/
/* Create the file. */
/*==================*/
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,version,FALSE)) == NULL) return(-1);
/*===================*/
/* List the entries. */
/*===================*/
j = 0;
for (i = 0; i < BITMAP_HASH_SIZE; i++)
{
for (hashPtr = bitMapTable[i];
hashPtr != NULL;
hashPtr = hashPtr->next)
{
if (newHeader)
{
fprintf(fp,"unsigned long L%d_%d[] = {\n",ConstructCompilerData(theEnv,execStatus)->ImageID,arrayVersion);
newHeader = FALSE;
}
longsReqd = (int) (hashPtr->size / sizeof(unsigned long));
if ((hashPtr->size % sizeof(unsigned long)) != 0)
longsReqd++;
for (k = 0 ; k < longsReqd ; k++)
{
if (k > 0)
fprintf(fp,",");
tmpLong = 0L;
for (l = 0 ;
((l < sizeof(unsigned long)) &&
(((k * sizeof(unsigned long)) + l) < (size_t) hashPtr->size)) ;
l++)
((char *) &tmpLong)[l] = hashPtr->contents[(k * sizeof(unsigned long)) + l];
fprintf(fp,"0x%lxL",tmpLong);
}
count += longsReqd;
j += longsReqd;
if ((count == numberOfEntries) || (j >= ConstructCompilerData(theEnv,execStatus)->MaxIndices))
{
fprintf(fp,"};\n");
GenClose(theEnv,execStatus,fp);
j = 0;
arrayVersion++;
version++;
if (count < numberOfEntries)
{
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,version,FALSE)) == NULL) return(0);
newHeader = TRUE;
}
}
else
{ fprintf(fp,",\n"); }
}
}
return(version);
}
globle int ConstraintsToCode(
void *theEnv,
char *fileName,
int fileID,
FILE *headerFP,
int imageID,
int maxIndices)
{
int i, j, count;
int newHeader = TRUE;
FILE *fp;
int version = 1;
int arrayVersion = 1;
unsigned short numberOfConstraints = 0;
CONSTRAINT_RECORD *tmpPtr;
/*===============================================*/
/* Count the total number of constraint records. */
/*===============================================*/
for (i = 0 ; i < SIZE_CONSTRAINT_HASH; i++)
{
for (tmpPtr = ConstraintData(theEnv)->ConstraintHashtable[i];
tmpPtr != NULL;
tmpPtr = tmpPtr->next)
{ tmpPtr->bsaveIndex = numberOfConstraints++; }
}
/*=====================================================*/
/* If dynamic constraint checking is disabled, then */
/* contraints won't be saved. If there are constraints */
/* which could be saved, then issue a warning message. */
/*=====================================================*/
if ((! EnvGetDynamicConstraintChecking(theEnv)) && (numberOfConstraints != 0))
{
numberOfConstraints = 0;
PrintWarningID(theEnv,"CSTRNCMP",1,FALSE);
EnvPrintRouter(theEnv,WWARNING,"Constraints are not saved with a constructs-to-c image\n");
EnvPrintRouter(theEnv,WWARNING," when dynamic constraint checking is disabled.\n");
}
if (numberOfConstraints == 0) return(-1);
/*=================================================*/
/* Print the extern definition in the header file. */
/*=================================================*/
for (i = 1; i <= (numberOfConstraints / maxIndices) + 1 ; i++)
{ fprintf(headerFP,"extern CONSTRAINT_RECORD C%d_%d[];\n",imageID,i); }
/*==================*/
/* Create the file. */
/*==================*/
if ((fp = NewCFile(theEnv,fileName,fileID,version,FALSE)) == NULL) return(-1);
/*===================*/
/* List the entries. */
/*===================*/
j = 0;
count = 0;
for (i = 0; i < SIZE_CONSTRAINT_HASH; i++)
{
for (tmpPtr = ConstraintData(theEnv)->ConstraintHashtable[i];
tmpPtr != NULL;
tmpPtr = tmpPtr->next)
{
if (newHeader)
{
fprintf(fp,"CONSTRAINT_RECORD C%d_%d[] = {\n",imageID,arrayVersion);
newHeader = FALSE;
}
fprintf(fp,"{%d,%d,%d,%d,%d,%d,%d,%d,%d,%d,%d,%d,%d,%d,%d,%d,%d,%d",
tmpPtr->anyAllowed,
tmpPtr->symbolsAllowed,
tmpPtr->stringsAllowed,
tmpPtr->floatsAllowed,
tmpPtr->integersAllowed,
tmpPtr->instanceNamesAllowed,
tmpPtr->instanceAddressesAllowed,
tmpPtr->externalAddressesAllowed,
tmpPtr->factAddressesAllowed,
0, /* void allowed */
tmpPtr->anyRestriction,
tmpPtr->symbolRestriction,
tmpPtr->stringRestriction,
tmpPtr->floatRestriction,
tmpPtr->integerRestriction,
tmpPtr->instanceNameRestriction,
tmpPtr->multifieldsAllowed,
tmpPtr->singlefieldsAllowed);
fprintf(fp,",0,"); /* bsaveIndex */
PrintHashedExpressionReference(theEnv,fp,tmpPtr->restrictionList,imageID,maxIndices);
fprintf(fp,",");
PrintHashedExpressionReference(theEnv,fp,tmpPtr->minValue,imageID,maxIndices);
fprintf(fp,",");
PrintHashedExpressionReference(theEnv,fp,tmpPtr->maxValue,imageID,maxIndices);
fprintf(fp,",");
PrintHashedExpressionReference(theEnv,fp,tmpPtr->minFields,imageID,maxIndices);
fprintf(fp,",");
PrintHashedExpressionReference(theEnv,fp,tmpPtr->maxFields,imageID,maxIndices);
/* multifield slot */
fprintf(fp,",NULL");
/* next slot */
if (tmpPtr->next == NULL)
{ fprintf(fp,",NULL,"); }
else
{
if ((j + 1) >= maxIndices)
{ fprintf(fp,",&C%d_%d[%d],",imageID,arrayVersion + 1,0); }
else
{ fprintf(fp,",&C%d_%d[%d],",imageID,arrayVersion,j + 1); }
}
fprintf(fp,"%d,%d",tmpPtr->bucket,tmpPtr->count + 1);
count++;
j++;
if ((count == numberOfConstraints) || (j >= maxIndices))
{
fprintf(fp,"}};\n");
GenClose(fp);
j = 0;
version++;
arrayVersion++;
if (count < numberOfConstraints)
{
if ((fp = NewCFile(theEnv,fileName,1,version,FALSE)) == NULL) return(0);
newHeader = TRUE;
}
}
else
{ fprintf(fp,"},\n"); }
}
}
return(version);
}
static int SymbolHashNodesToCode(
void *theEnv,
EXEC_STATUS,
char *fileName,
char *pathName,
char *fileNameBuffer,
int version)
{
unsigned long i, j;
struct symbolHashNode *hashPtr;
int count;
int numberOfEntries;
struct symbolHashNode **symbolTable;
int newHeader = TRUE;
int arrayVersion = 1;
FILE *fp;
/*====================================*/
/* Count the total number of entries. */
/*====================================*/
symbolTable = GetSymbolTable(theEnv,execStatus);
count = numberOfEntries = 0;
for (i = 0; i < SYMBOL_HASH_SIZE; i++)
{
for (hashPtr = symbolTable[i];
hashPtr != NULL;
hashPtr = hashPtr->next)
{ numberOfEntries++; }
}
if (numberOfEntries == 0) return(version);
for (i = 1; i <= (unsigned long) (numberOfEntries / ConstructCompilerData(theEnv,execStatus)->MaxIndices) + 1 ; i++)
{ fprintf(ConstructCompilerData(theEnv,execStatus)->HeaderFP,"extern struct symbolHashNode S%d_%ld[];\n",ConstructCompilerData(theEnv,execStatus)->ImageID,i); }
/*==================*/
/* Create the file. */
/*==================*/
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,version,FALSE)) == NULL) return(-1);
/*===================*/
/* List the entries. */
/*===================*/
j = 0;
for (i = 0; i < SYMBOL_HASH_SIZE; i++)
{
for (hashPtr = symbolTable[i];
hashPtr != NULL;
hashPtr = hashPtr->next)
{
if (newHeader)
{
fprintf(fp,"struct symbolHashNode S%d_%d[] = {\n",ConstructCompilerData(theEnv,execStatus)->ImageID,arrayVersion);
newHeader = FALSE;
}
if (hashPtr->next == NULL)
{ fprintf(fp,"{NULL,"); }
else
{
if ((j + 1) >= (unsigned long) ConstructCompilerData(theEnv,execStatus)->MaxIndices)
{ fprintf(fp,"{&S%d_%d[%d],",ConstructCompilerData(theEnv,execStatus)->ImageID,arrayVersion + 1,0); }
else
{ fprintf(fp,"{&S%d_%d[%ld],",ConstructCompilerData(theEnv,execStatus)->ImageID,arrayVersion,j + 1); }
}
fprintf(fp,"%ld,0,1,0,0,%ld,",hashPtr->count + 1,i);
PrintCString(fp,hashPtr->contents);
count++;
j++;
if ((count == numberOfEntries) || (j >= (unsigned) ConstructCompilerData(theEnv,execStatus)->MaxIndices))
{
fprintf(fp,"}};\n");
GenClose(theEnv,execStatus,fp);
j = 0;
arrayVersion++;
version++;
if (count < numberOfEntries)
{
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,version,FALSE)) == NULL) return(0);
newHeader = TRUE;
}
}
else
{ fprintf(fp,"},\n"); }
}
}
return(version);
}
static int IntegerHashNodesToCode(
void *theEnv,
const char *fileName,
const char *pathName,
char *fileNameBuffer,
int version)
{
int i, j;
struct integerHashNode *hashPtr;
int count;
int numberOfEntries;
struct integerHashNode **integerTable;
bool newHeader = true;
FILE *fp;
int arrayVersion = 1;
/*====================================*/
/* Count the total number of entries. */
/*====================================*/
integerTable = GetIntegerTable(theEnv);
count = numberOfEntries = 0;
for (i = 0; i < INTEGER_HASH_SIZE; i++)
{
for (hashPtr = integerTable[i];
hashPtr != NULL;
hashPtr = hashPtr->next)
{ numberOfEntries++; }
}
if (numberOfEntries == 0) return(version);
for (i = 1; i <= (numberOfEntries / ConstructCompilerData(theEnv)->MaxIndices) + 1 ; i++)
{ fprintf(ConstructCompilerData(theEnv)->HeaderFP,"extern struct integerHashNode I%d_%d[];\n",ConstructCompilerData(theEnv)->ImageID,i); }
/*==================*/
/* Create the file. */
/*==================*/
if ((fp = NewCFile(theEnv,fileName,pathName,fileNameBuffer,1,version,false)) == NULL) return(-1);
/*===================*/
/* List the entries. */
/*===================*/
j = 0;
for (i = 0; i < INTEGER_HASH_SIZE; i++)
{
for (hashPtr = integerTable[i];
hashPtr != NULL;
hashPtr = hashPtr->next)
{
if (newHeader)
{
fprintf(fp,"struct integerHashNode I%d_%d[] = {\n",ConstructCompilerData(theEnv)->ImageID,arrayVersion);
newHeader = false;
}
if (hashPtr->next == NULL)
{ fprintf(fp,"{NULL,"); }
else
{
if ((j + 1) >= ConstructCompilerData(theEnv)->MaxIndices)
{ fprintf(fp,"{&I%d_%d[%d],",ConstructCompilerData(theEnv)->ImageID,arrayVersion + 1,0); }
else
{ fprintf(fp,"{&I%d_%d[%d],",ConstructCompilerData(theEnv)->ImageID,arrayVersion,j + 1); }
}
fprintf(fp,"%ld,1,0,0,%d,",hashPtr->count + 1,i);
fprintf(fp,"%lldLL",hashPtr->contents);
count++;
j++;
if ((count == numberOfEntries) || (j >= ConstructCompilerData(theEnv)->MaxIndices))
{
fprintf(fp,"}};\n");
GenClose(theEnv,fp);
j = 0;
version++;
arrayVersion++;
if (count < numberOfEntries)
{
if ((fp = NewCFile(theEnv,fileName,pathName,fileNameBuffer,1,version,false)) == NULL) return(0);
newHeader = true;
}
}
else
{ fprintf(fp,"},\n"); }
}
}
return(version);
}
/***********************************************************
NAME : AlphaPatternNodesToCode
DESCRIPTION : Writes out data structures for run-time
creation of object pattern alpha memories
INPUTS : 1) The base image output file name
2) The base image file id
3) A pointer to the header output file
4) The id of constructs-to-c image
5) The maximum number of indices
allowed in any single array
in the image
RETURNS : Next version file to open, 0 if error
SIDE EFFECTS : Object patterns code written to files
NOTES : None
***********************************************************/
static int AlphaPatternNodesToCode(
void *theEnv,
char *fileName,
int fileID,
FILE *headerFP,
int imageID,
int maxIndices,
int version)
{
FILE *fp;
int arrayVersion;
int newHeader;
int i;
OBJECT_ALPHA_NODE *thePattern;
/* ================
Create the file.
================ */
if (ObjectNetworkTerminalPointer(theEnv) == NULL)
return(version);
/* =================================
Dump the pattern node structures.
================================= */
if ((fp = NewCFile(theEnv,fileName,fileID,version,FALSE)) == NULL)
return(0);
newHeader = TRUE;
arrayVersion = 1;
i = 1;
thePattern = ObjectNetworkTerminalPointer(theEnv);
while (thePattern != NULL)
{
if (newHeader)
{
fprintf(fp,"OBJECT_ALPHA_NODE %s%d_%d[] = {\n",
ObjectANPrefix(),imageID,arrayVersion);
fprintf(headerFP,"extern OBJECT_ALPHA_NODE %s%d_%d[];\n",
ObjectANPrefix(),imageID,arrayVersion);
newHeader = FALSE;
}
fprintf(fp,"{");
PatternNodeHeaderToCode(theEnv,fp,&thePattern->header,imageID,maxIndices);
fprintf(fp,",0L,");
PrintBitMapReference(theEnv,fp,thePattern->classbmp);
fprintf(fp,",");
PrintBitMapReference(theEnv,fp,thePattern->slotbmp);
fprintf(fp,",");
IntermediatePatternNodeReference(theEnv,thePattern->patternNode,fp,imageID,maxIndices);
fprintf(fp,",");
ObjectPatternNodeReference(theEnv,thePattern->nxtInGroup,fp,imageID,maxIndices);
fprintf(fp,",");
ObjectPatternNodeReference(theEnv,thePattern->nxtTerminal,fp,imageID,maxIndices);
fprintf(fp,",0L}");
i++;
thePattern = thePattern->nxtTerminal;
if ((i > maxIndices) || (thePattern == NULL))
{
fprintf(fp,"};\n");
GenClose(fp);
i = 1;
version++;
arrayVersion++;
if (thePattern != NULL)
{
if ((fp = NewCFile(theEnv,fileName,fileID,version,FALSE)) == NULL)
return(0);
newHeader = TRUE;
}
}
else if (thePattern != NULL)
{ fprintf(fp,",\n"); }
}
return(version);
}
/*************************************************************
NAME : IntermediatePatternNodesToCode
DESCRIPTION : Writes out data structures for run-time
creation of object pattern intermediate nodes
INPUTS : 1) The base image output file name
2) The base image file id
3) A pointer to the header output file
4) The id of constructs-to-c image
5) The maximum number of indices
allowed in any single array
in the image
RETURNS : Next version file to open, 0 if error
SIDE EFFECTS : Object patterns code written to files
NOTES : None
*************************************************************/
static int IntermediatePatternNodesToCode(
void *theEnv,
char *fileName,
int fileID,
FILE *headerFP,
int imageID,
int maxIndices,
int version)
{
FILE *fp;
int arrayVersion;
int newHeader;
int i;
OBJECT_PATTERN_NODE *thePattern;
/* ================
Create the file.
================ */
if (ObjectNetworkPointer(theEnv) == NULL)
return(1);
fprintf(headerFP,"#include \"objrtmch.h\"\n");
/* =================================
Dump the pattern node structures.
================================= */
if ((fp = NewCFile(theEnv,fileName,fileID,version,FALSE)) == NULL)
return(0);
newHeader = TRUE;
arrayVersion = 1;
i = 1;
thePattern = ObjectNetworkPointer(theEnv);
while (thePattern != NULL)
{
if (newHeader)
{
fprintf(fp,"OBJECT_PATTERN_NODE %s%d_%d[] = {\n",
ObjectPNPrefix(),imageID,arrayVersion);
fprintf(headerFP,"extern OBJECT_PATTERN_NODE %s%d_%d[];\n",
ObjectPNPrefix(),imageID,arrayVersion);
newHeader = FALSE;
}
fprintf(fp,"{0,%u,%u,%u,%u,0L,%u,",thePattern->multifieldNode,
thePattern->endSlot,
thePattern->whichField,
thePattern->leaveFields,
thePattern->slotNameID);
PrintHashedExpressionReference(theEnv,fp,thePattern->networkTest,imageID,maxIndices);
fprintf(fp,",");
IntermediatePatternNodeReference(theEnv,thePattern->nextLevel,fp,imageID,maxIndices);
fprintf(fp,",");
IntermediatePatternNodeReference(theEnv,thePattern->lastLevel,fp,imageID,maxIndices);
fprintf(fp,",");
IntermediatePatternNodeReference(theEnv,thePattern->leftNode,fp,imageID,maxIndices);
fprintf(fp,",");
IntermediatePatternNodeReference(theEnv,thePattern->rightNode,fp,imageID,maxIndices);
fprintf(fp,",");
ObjectPatternNodeReference(theEnv,(void *) thePattern->alphaNode,fp,imageID,maxIndices);
fprintf(fp,",0L}");
i++;
thePattern = GetNextObjectPatternNode(thePattern);
if ((i > maxIndices) || (thePattern == NULL))
{
fprintf(fp,"};\n");
GenClose(fp);
i = 1;
version++;
arrayVersion++;
if (thePattern != NULL)
{
if ((fp = NewCFile(theEnv,fileName,fileID,version,FALSE)) == NULL)
return(0);
newHeader = TRUE;
}
}
else if (thePattern != NULL)
{ fprintf(fp,",\n"); }
}
return(version);
}
bool RemoveBatch(
Environment *theEnv)
{
struct batchEntry *bptr;
bool rv, fileBatch = false;
if (FileCommandData(theEnv)->TopOfBatchList == NULL) return false;
/*==================================================*/
/* Close the source from which batch input is read. */
/*==================================================*/
if (FileCommandData(theEnv)->TopOfBatchList->batchType == FILE_BATCH)
{
fileBatch = true;
GenClose(theEnv,FileCommandData(theEnv)->TopOfBatchList->fileSource);
#if (! RUN_TIME) && (! BLOAD_ONLY)
FlushParsingMessages(theEnv);
DeleteErrorCaptureRouter(theEnv);
#endif
}
else
{
CloseStringSource(theEnv,FileCommandData(theEnv)->TopOfBatchList->logicalSource);
rm(theEnv,(void *) FileCommandData(theEnv)->TopOfBatchList->theString,
strlen(FileCommandData(theEnv)->TopOfBatchList->theString) + 1);
}
/*=================================*/
/* Remove the entry from the list. */
/*=================================*/
DeleteString(theEnv,(char *) FileCommandData(theEnv)->TopOfBatchList->fileName);
bptr = FileCommandData(theEnv)->TopOfBatchList;
FileCommandData(theEnv)->TopOfBatchList = FileCommandData(theEnv)->TopOfBatchList->next;
DeleteString(theEnv,(char *) bptr->logicalSource);
rtn_struct(theEnv,batchEntry,bptr);
/*========================================================*/
/* If there are no batch files remaining to be processed, */
/* then free the space used by the batch buffer. */
/*========================================================*/
if (FileCommandData(theEnv)->TopOfBatchList == NULL)
{
FileCommandData(theEnv)->BottomOfBatchList = NULL;
FileCommandData(theEnv)->BatchFileSource = NULL;
FileCommandData(theEnv)->BatchLogicalSource = NULL;
if (FileCommandData(theEnv)->BatchBuffer != NULL)
{
rm(theEnv,FileCommandData(theEnv)->BatchBuffer,FileCommandData(theEnv)->BatchMaximumPosition);
FileCommandData(theEnv)->BatchBuffer = NULL;
}
FileCommandData(theEnv)->BatchCurrentPosition = 0;
FileCommandData(theEnv)->BatchMaximumPosition = 0;
rv = false;
#if (! RUN_TIME) && (! BLOAD_ONLY)
if (fileBatch)
{
SetParsingFileName(theEnv,FileCommandData(theEnv)->batchPriorParsingFile);
DeleteString(theEnv,FileCommandData(theEnv)->batchPriorParsingFile);
FileCommandData(theEnv)->batchPriorParsingFile = NULL;
}
#endif
}
/*===========================================*/
/* Otherwise move on to the next batch file. */
/*===========================================*/
else
{
FileCommandData(theEnv)->BatchType = FileCommandData(theEnv)->TopOfBatchList->batchType;
FileCommandData(theEnv)->BatchFileSource = FileCommandData(theEnv)->TopOfBatchList->fileSource;
FileCommandData(theEnv)->BatchLogicalSource = FileCommandData(theEnv)->TopOfBatchList->logicalSource;
FileCommandData(theEnv)->BatchCurrentPosition = 0;
rv = true;
#if (! RUN_TIME) && (! BLOAD_ONLY)
if (FileCommandData(theEnv)->TopOfBatchList->batchType == FILE_BATCH)
{ SetParsingFileName(theEnv,FileCommandData(theEnv)->TopOfBatchList->fileName); }
SetLineCount(theEnv,FileCommandData(theEnv)->TopOfBatchList->lineNumber);
#endif
}
/*====================================================*/
/* Return true if a batch file if there are remaining */
/* batch files to be processed, otherwise false. */
/*====================================================*/
return(rv);
}
bool BatchStar(
Environment *theEnv,
const char *fileName)
{
int inchar;
bool done = false;
FILE *theFile;
char *theString = NULL;
size_t position = 0;
size_t maxChars = 0;
#if (! RUN_TIME) && (! BLOAD_ONLY)
char *oldParsingFileName;
long oldLineCountValue;
#endif
/*======================*/
/* Open the batch file. */
/*======================*/
theFile = GenOpen(theEnv,fileName,"r");
if (theFile == NULL)
{
OpenErrorMessage(theEnv,"batch",fileName);
return false;
}
/*======================================*/
/* Setup for capturing errors/warnings. */
/*======================================*/
#if (! RUN_TIME) && (! BLOAD_ONLY)
oldParsingFileName = CopyString(theEnv,GetParsingFileName(theEnv));
SetParsingFileName(theEnv,fileName);
CreateErrorCaptureRouter(theEnv);
oldLineCountValue = SetLineCount(theEnv,1);
#endif
/*=====================================*/
/* If embedded, clear the error flags. */
/*=====================================*/
if (EvaluationData(theEnv)->CurrentExpression == NULL)
{ ResetErrorFlags(theEnv); }
/*=============================================*/
/* Evaluate commands from the file one by one. */
/*=============================================*/
while (! done)
{
inchar = getc(theFile);
if (inchar == EOF)
{
inchar = '\n';
done = true;
}
theString = ExpandStringWithChar(theEnv,inchar,theString,&position,
&maxChars,maxChars+80);
if (CompleteCommand(theString) != 0)
{
FlushPPBuffer(theEnv);
SetPPBufferStatus(theEnv,false);
RouteCommand(theEnv,theString,false);
FlushPPBuffer(theEnv);
SetHaltExecution(theEnv,false);
SetEvaluationError(theEnv,false);
FlushBindList(theEnv,NULL);
genfree(theEnv,theString,maxChars);
theString = NULL;
maxChars = 0;
position = 0;
#if (! RUN_TIME) && (! BLOAD_ONLY)
FlushParsingMessages(theEnv);
#endif
}
if ((inchar == '\r') || (inchar == '\n'))
{ IncrementLineCount(theEnv); }
}
if (theString != NULL)
{ genfree(theEnv,theString,maxChars); }
/*=======================*/
/* Close the batch file. */
/*=======================*/
GenClose(theEnv,theFile);
/*========================================*/
/* Cleanup for capturing errors/warnings. */
/*========================================*/
#if (! RUN_TIME) && (! BLOAD_ONLY)
FlushParsingMessages(theEnv);
DeleteErrorCaptureRouter(theEnv);
SetLineCount(theEnv,oldLineCountValue);
SetParsingFileName(theEnv,oldParsingFileName);
DeleteString(theEnv,oldParsingFileName);
#endif
return true;
}
globle int RemoveBatch(
void *theEnv)
{
struct batchEntry *bptr;
int rv;
if (FileCommandData(theEnv)->TopOfBatchList == NULL) return(FALSE);
/*==================================================*/
/* Close the source from which batch input is read. */
/*==================================================*/
if (FileCommandData(theEnv)->TopOfBatchList->batchType == FILE_BATCH)
{ GenClose(theEnv,(FILE *) FileCommandData(theEnv)->TopOfBatchList->inputSource); }
else
{
CloseStringSource(theEnv,(char *) FileCommandData(theEnv)->TopOfBatchList->inputSource);
rm(theEnv,FileCommandData(theEnv)->TopOfBatchList->theString,strlen(FileCommandData(theEnv)->TopOfBatchList->theString) + 1);
}
/*=================================*/
/* Remove the entry from the list. */
/*=================================*/
bptr = FileCommandData(theEnv)->TopOfBatchList;
FileCommandData(theEnv)->TopOfBatchList = FileCommandData(theEnv)->TopOfBatchList->next;
rtn_struct(theEnv,batchEntry,bptr);
/*========================================================*/
/* If there are no batch files remaining to be processed, */
/* then free the space used by the batch buffer. */
/*========================================================*/
if (FileCommandData(theEnv)->TopOfBatchList == NULL)
{
FileCommandData(theEnv)->BottomOfBatchList = NULL;
FileCommandData(theEnv)->BatchSource = NULL;
if (FileCommandData(theEnv)->BatchBuffer != NULL)
{
rm(theEnv,FileCommandData(theEnv)->BatchBuffer,FileCommandData(theEnv)->BatchMaximumPosition);
FileCommandData(theEnv)->BatchBuffer = NULL;
}
FileCommandData(theEnv)->BatchCurrentPosition = 0;
FileCommandData(theEnv)->BatchMaximumPosition = 0;
rv = 0;
}
/*===========================================*/
/* Otherwise move on to the next batch file. */
/*===========================================*/
else
{
FileCommandData(theEnv)->BatchType = FileCommandData(theEnv)->TopOfBatchList->batchType;
FileCommandData(theEnv)->BatchSource = FileCommandData(theEnv)->TopOfBatchList->inputSource;
FileCommandData(theEnv)->BatchCurrentPosition = 0;
rv = 1;
}
/*====================================================*/
/* Return TRUE if a batch file if there are remaining */
/* batch files to be processed, otherwise FALSE. */
/*====================================================*/
return(rv);
}
static int BitMapHashNodesToCode(
void *theEnv,
EXEC_STATUS,
char *fileName,
char *pathName,
char *fileNameBuffer,
int version)
{
int i, j;
struct bitMapHashNode *hashPtr;
int count;
int numberOfEntries;
struct bitMapHashNode **bitMapTable;
int newHeader = TRUE;
int arrayVersion = 1;
FILE *fp;
int longsReqdPartition = 1,longsReqdPartitionCount = 0;
/*====================================*/
/* Count the total number of entries. */
/*====================================*/
bitMapTable = GetBitMapTable(theEnv,execStatus);
count = numberOfEntries = 0;
for (i = 0; i < BITMAP_HASH_SIZE; i++)
{
for (hashPtr = bitMapTable[i];
hashPtr != NULL;
hashPtr = hashPtr->next)
{ numberOfEntries++; }
}
if (numberOfEntries == 0) return(version);
for (i = 1; i <= (numberOfEntries / ConstructCompilerData(theEnv,execStatus)->MaxIndices) + 1 ; i++)
{ fprintf(ConstructCompilerData(theEnv,execStatus)->HeaderFP,"extern struct bitMapHashNode B%d_%d[];\n",ConstructCompilerData(theEnv,execStatus)->ImageID,i); }
/*==================*/
/* Create the file. */
/*==================*/
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,version,FALSE)) == NULL) return(-1);
/*===================*/
/* List the entries. */
/*===================*/
j = 0;
for (i = 0; i < BITMAP_HASH_SIZE; i++)
{
for (hashPtr = bitMapTable[i];
hashPtr != NULL;
hashPtr = hashPtr->next)
{
if (newHeader)
{
fprintf(fp,"struct bitMapHashNode B%d_%d[] = {\n",ConstructCompilerData(theEnv,execStatus)->ImageID,arrayVersion);
newHeader = FALSE;
}
if (hashPtr->next == NULL)
{ fprintf(fp,"{NULL,"); }
else
{
if ((j + 1) >= ConstructCompilerData(theEnv,execStatus)->MaxIndices)
{ fprintf(fp,"{&B%d_%d[%d],",ConstructCompilerData(theEnv,execStatus)->ImageID,arrayVersion + 1,0); }
else
{ fprintf(fp,"{&B%d_%d[%d],",ConstructCompilerData(theEnv,execStatus)->ImageID,arrayVersion,j + 1); }
}
fprintf(fp,"%ld,0,1,0,0,%d,(char *) &L%d_%d[%d],%d",
hashPtr->count + 1,i,
ConstructCompilerData(theEnv,execStatus)->ImageID,longsReqdPartition,longsReqdPartitionCount,
hashPtr->size);
longsReqdPartitionCount += (int) (hashPtr->size / sizeof(unsigned long));
if ((hashPtr->size % sizeof(unsigned long)) != 0)
longsReqdPartitionCount++;
if (longsReqdPartitionCount >= ConstructCompilerData(theEnv,execStatus)->MaxIndices)
{
longsReqdPartitionCount = 0;
longsReqdPartition++;
}
count++;
j++;
if ((count == numberOfEntries) || (j >= ConstructCompilerData(theEnv,execStatus)->MaxIndices))
{
fprintf(fp,"}};\n");
GenClose(theEnv,execStatus,fp);
j = 0;
arrayVersion++;
version++;
if (count < numberOfEntries)
{
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,version,FALSE)) == NULL) return(0);
newHeader = TRUE;
}
}
else
{ fprintf(fp,"},\n"); }
}
}
return(version);
}
globle int EnvBatchStar(
void *theEnv,
char *fileName)
{
int inchar;
FILE *theFile;
char *theString = NULL;
size_t position = 0;
size_t maxChars = 0;
/*======================*/
/* Open the batch file. */
/*======================*/
theFile = GenOpen(theEnv,fileName,"r");
if (theFile == NULL)
{
OpenErrorMessage(theEnv,"batch",fileName);
return(FALSE);
}
/*========================*/
/* Reset the error state. */
/*========================*/
SetHaltExecution(theEnv,FALSE);
SetEvaluationError(theEnv,FALSE);
/*=============================================*/
/* Evaluate commands from the file one by one. */
/*=============================================*/
while ((inchar = getc(theFile)) != EOF)
{
theString = ExpandStringWithChar(theEnv,inchar,theString,&position,
&maxChars,maxChars+80);
if (CompleteCommand(theString) != 0)
{
FlushPPBuffer(theEnv);
SetPPBufferStatus(theEnv,OFF);
RouteCommand(theEnv,theString,FALSE);
FlushPPBuffer(theEnv);
SetHaltExecution(theEnv,FALSE);
SetEvaluationError(theEnv,FALSE);
FlushBindList(theEnv);
genfree(theEnv,theString,(unsigned) maxChars);
theString = NULL;
maxChars = 0;
position = 0;
}
}
if (theString != NULL)
{ genfree(theEnv,theString,(unsigned) maxChars); }
/*=======================*/
/* Close the batch file. */
/*=======================*/
GenClose(theEnv,theFile);
return(TRUE);
}
static int HashTablesToCode(
void *theEnv,
EXEC_STATUS,
char *fileName,
char *pathName,
char *fileNameBuffer)
{
unsigned long i;
FILE *fp;
struct symbolHashNode **symbolTable;
struct floatHashNode **floatTable;
struct integerHashNode **integerTable;
struct bitMapHashNode **bitMapTable;
/*======================================*/
/* Write the code for the symbol table. */
/*======================================*/
symbolTable = GetSymbolTable(theEnv,execStatus);
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,1,FALSE)) == NULL) return(0);
fprintf(ConstructCompilerData(theEnv,execStatus)->HeaderFP,"extern struct symbolHashNode *sht%d[];\n",ConstructCompilerData(theEnv,execStatus)->ImageID);
fprintf(fp,"struct symbolHashNode *sht%d[%ld] = {\n",ConstructCompilerData(theEnv,execStatus)->ImageID,SYMBOL_HASH_SIZE);
for (i = 0; i < SYMBOL_HASH_SIZE; i++)
{
PrintSymbolReference(theEnv,execStatus,fp,symbolTable[i]);
if (i + 1 != SYMBOL_HASH_SIZE) fprintf(fp,",\n");
}
fprintf(fp,"};\n");
GenClose(theEnv,execStatus,fp);
/*=====================================*/
/* Write the code for the float table. */
/*=====================================*/
floatTable = GetFloatTable(theEnv,execStatus);
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,2,FALSE)) == NULL) return(0);
fprintf(ConstructCompilerData(theEnv,execStatus)->HeaderFP,"extern struct floatHashNode *fht%d[];\n",ConstructCompilerData(theEnv,execStatus)->ImageID);
fprintf(fp,"struct floatHashNode *fht%d[%d] = {\n",ConstructCompilerData(theEnv,execStatus)->ImageID,FLOAT_HASH_SIZE);
for (i = 0; i < FLOAT_HASH_SIZE; i++)
{
if (floatTable[i] == NULL) { fprintf(fp,"NULL"); }
else PrintFloatReference(theEnv,execStatus,fp,floatTable[i]);
if (i + 1 != FLOAT_HASH_SIZE) fprintf(fp,",\n");
}
fprintf(fp,"};\n");
GenClose(theEnv,execStatus,fp);
/*=======================================*/
/* Write the code for the integer table. */
/*=======================================*/
integerTable = GetIntegerTable(theEnv,execStatus);
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,3,FALSE)) == NULL) return(0);
fprintf(ConstructCompilerData(theEnv,execStatus)->HeaderFP,"extern struct integerHashNode *iht%d[];\n",ConstructCompilerData(theEnv,execStatus)->ImageID);
fprintf(fp,"struct integerHashNode *iht%d[%d] = {\n",ConstructCompilerData(theEnv,execStatus)->ImageID,INTEGER_HASH_SIZE);
for (i = 0; i < INTEGER_HASH_SIZE; i++)
{
if (integerTable[i] == NULL) { fprintf(fp,"NULL"); }
else PrintIntegerReference(theEnv,execStatus,fp,integerTable[i]);
if (i + 1 != INTEGER_HASH_SIZE) fprintf(fp,",\n");
}
fprintf(fp,"};\n");
GenClose(theEnv,execStatus,fp);
/*======================================*/
/* Write the code for the bitmap table. */
/*======================================*/
bitMapTable = GetBitMapTable(theEnv,execStatus);
if ((fp = NewCFile(theEnv,execStatus,fileName,pathName,fileNameBuffer,1,4,FALSE)) == NULL) return(0);
fprintf(ConstructCompilerData(theEnv,execStatus)->HeaderFP,"extern struct bitMapHashNode *bmht%d[];\n",ConstructCompilerData(theEnv,execStatus)->ImageID);
fprintf(fp,"struct bitMapHashNode *bmht%d[%d] = {\n",ConstructCompilerData(theEnv,execStatus)->ImageID,BITMAP_HASH_SIZE);
for (i = 0; i < BITMAP_HASH_SIZE; i++)
{
PrintBitMapReference(theEnv,execStatus,fp,bitMapTable[i]);
if (i + 1 != BITMAP_HASH_SIZE) fprintf(fp,",\n");
}
fprintf(fp,"};\n");
GenClose(theEnv,execStatus,fp);
return(1);
}
globle intBool EnvBsave(
void *theEnv,
EXEC_STATUS,
char *fileName)
{
FILE *fp;
struct BinaryItem *biPtr;
char constructBuffer[CONSTRUCT_HEADER_SIZE];
long saveExpressionCount;
/*===================================*/
/* A bsave can't occur when a binary */
/* image is already loaded. */
/*===================================*/
if (Bloaded(theEnv,execStatus))
{
PrintErrorID(theEnv,execStatus,"BSAVE",1,FALSE);
EnvPrintRouter(theEnv,execStatus,WERROR,
"Cannot perform a binary save while a binary load is in effect.\n");
return(0);
}
/*================*/
/* Open the file. */
/*================*/
if ((fp = GenOpen(theEnv,execStatus,fileName,"wb")) == NULL)
{
OpenErrorMessage(theEnv,execStatus,"bsave",fileName);
return(0);
}
/*==============================*/
/* Remember the current module. */
/*==============================*/
SaveCurrentModule(theEnv,execStatus);
/*==================================*/
/* Write binary header to the file. */
/*==================================*/
WriteBinaryHeader(theEnv,execStatus,fp);
/*===========================================*/
/* Initialize count variables, index values, */
/* and determine some of the data structures */
/* which need to be saved. */
/*===========================================*/
ExpressionData(theEnv,execStatus)->ExpressionCount = 0;
InitializeFunctionNeededFlags(theEnv,execStatus);
InitAtomicValueNeededFlags(theEnv,execStatus);
FindHashedExpressions(theEnv,execStatus);
FindNeededItems(theEnv,execStatus);
SetAtomicValueIndices(theEnv,execStatus,FALSE);
/*===============================*/
/* Save the functions and atoms. */
/*===============================*/
WriteNeededFunctions(theEnv,execStatus,fp);
WriteNeededAtomicValues(theEnv,execStatus,fp);
/*=========================================*/
/* Write out the number of expression data */
/* structures in the binary image. */
/*=========================================*/
GenWrite((void *) &ExpressionData(theEnv,execStatus)->ExpressionCount,(unsigned long) sizeof(unsigned long),fp);
/*===========================================*/
/* Save the numbers indicating the amount of */
/* memory needed to bload the constructs. */
/*===========================================*/
for (biPtr = BsaveData(theEnv,execStatus)->ListOfBinaryItems;
biPtr != NULL;
biPtr = biPtr->next)
{
if (biPtr->bsaveStorageFunction != NULL)
{
genstrncpy(constructBuffer,biPtr->name,CONSTRUCT_HEADER_SIZE);
GenWrite(constructBuffer,(unsigned long) CONSTRUCT_HEADER_SIZE,fp);
(*biPtr->bsaveStorageFunction)(theEnv,execStatus,fp);
}
}
/*====================================*/
/* Write a binary footer to the file. */
/*====================================*/
WriteBinaryFooter(theEnv,execStatus,fp);
/*===================*/
/* Save expressions. */
/*===================*/
ExpressionData(theEnv,execStatus)->ExpressionCount = 0;
BsaveHashedExpressions(theEnv,execStatus,fp);
saveExpressionCount = ExpressionData(theEnv,execStatus)->ExpressionCount;
BsaveConstructExpressions(theEnv,execStatus,fp);
ExpressionData(theEnv,execStatus)->ExpressionCount = saveExpressionCount;
/*===================*/
/* Save constraints. */
/*===================*/
WriteNeededConstraints(theEnv,execStatus,fp);
/*==================*/
/* Save constructs. */
/*==================*/
for (biPtr = BsaveData(theEnv,execStatus)->ListOfBinaryItems;
biPtr != NULL;
biPtr = biPtr->next)
{
if (biPtr->bsaveFunction != NULL)
{
genstrncpy(constructBuffer,biPtr->name,CONSTRUCT_HEADER_SIZE);
GenWrite(constructBuffer,(unsigned long) CONSTRUCT_HEADER_SIZE,fp);
(*biPtr->bsaveFunction)(theEnv,execStatus,fp);
}
}
/*===================================*/
/* Save a binary footer to the file. */
/*===================================*/
WriteBinaryFooter(theEnv,execStatus,fp);
/*===========*/
/* Clean up. */
/*===========*/
RestoreAtomicValueBuckets(theEnv,execStatus);
/*=================*/
/* Close the file. */
/*=================*/
GenClose(theEnv,execStatus,fp);
/*=============================*/
/* Restore the current module. */
/*=============================*/
RestoreCurrentModule(theEnv,execStatus);
/*========================================*/
/* Return TRUE to indicate success. */
/*========================================*/
return(TRUE);
}
globle int EnvSave(
void *theEnv,
const char *fileName)
{
struct callFunctionItem *saveFunction;
FILE *filePtr;
struct defmodule *defmodulePtr;
intBool updated = FALSE;
intBool unvisited = TRUE;
/*=====================*/
/* Open the save file. */
/*=====================*/
if ((filePtr = GenOpen(theEnv,fileName,"w")) == NULL)
{ return(FALSE); }
/*===========================*/
/* Bypass the router system. */
/*===========================*/
SetFastSave(theEnv,filePtr);
/*================================*/
/* Mark all modules as unvisited. */
/*================================*/
MarkModulesAsUnvisited(theEnv);
/*===============================================*/
/* Save the constructs. Repeatedly loop over the */
/* modules until each module has been save. */
/*===============================================*/
while (unvisited)
{
unvisited = FALSE;
updated = FALSE;
for (defmodulePtr = (struct defmodule *) EnvGetNextDefmodule(theEnv,NULL);
defmodulePtr != NULL;
defmodulePtr = (struct defmodule *) EnvGetNextDefmodule(theEnv,defmodulePtr))
{
/*=================================================================*/
/* We only want to save a module if all of the modules it imports */
/* from have already been saved. Since there can't be circular */
/* dependencies in imported modules, this should save the modules */
/* that don't import anything first and then work back from those. */
/*=================================================================*/
if (defmodulePtr->visitedFlag)
{ /* Module has already been saved. */ }
else if (AllImportedModulesVisited(theEnv,defmodulePtr))
{
for (saveFunction = ConstructData(theEnv)->ListOfSaveFunctions;
saveFunction != NULL;
saveFunction = saveFunction->next)
{
((* (void (*)(void *,void *,char *)) saveFunction->func))(theEnv,defmodulePtr,(char *) filePtr);
}
updated = TRUE;
defmodulePtr->visitedFlag = TRUE;
}
else
{ unvisited = TRUE; }
}
/*=====================================================================*/
/* At least one module should be saved in every pass. If all have been */
/* visited/saved, then both flags will be FALSE. If all remaining */
/* unvisited/unsaved modules were visited/saved, then unvisited will */
/* be FALSE and updated will be TRUE. If some, but not all, remaining */
/* unvisited/unsaved modules are visited/saved, then unvisited will */
/* be TRUE and updated will be TRUE. This leaves the case where there */
/* are remaining unvisited/unsaved modules, but none were */
/* visited/saved: unvisited is TRUE and updated is FALSE. */
/*=====================================================================*/
if (unvisited && (! updated))
{
SystemError(theEnv,"CONSTRCT",2);
break;
}
}
/*======================*/
/* Close the save file. */
/*======================*/
GenClose(theEnv,filePtr);
/*===========================*/
/* Remove the router bypass. */
/*===========================*/
SetFastSave(theEnv,NULL);
/*=========================*/
/* Return TRUE to indicate */
/* successful completion. */
/*=========================*/
return(TRUE);
}
/***********************************************************
NAME : ClassAlphaLinksToCode
DESCRIPTION : Writes out data structures for run-time
creation of class alpha link
INPUTS : 1) The base image output file name
2) The base image file id
3) A pointer to the header output file
4) The id of constructs-to-c image
5) The maximum number of indices
allowed in any single array
in the image
RETURNS : Next version file to open, 0 if error
SIDE EFFECTS : Class alpha links code written to files
NOTES : None
***********************************************************/
static int ClassAlphaLinksToCode(
void *theEnv,
const char *fileName,
const char *pathName,
char *fileNameBuffer,
int fileID,
FILE *headerFP,
int imageID,
int maxIndices,
int version)
{
FILE *fp;
int arrayVersion;
int newHeader;
int i;
struct defmodule *theModule = NULL;
DEFCLASS *theDefclass = NULL;
CLASS_ALPHA_LINK *theLink = NULL;
/* =================================
Dump the alpha link structures.
================================= */
if ((fp = NewCFile(theEnv,fileName,pathName,fileNameBuffer,fileID,version,FALSE)) == NULL)
return(0);
newHeader = TRUE;
arrayVersion = 1;
i = 1;
theLink = GetNextAlphaLink(theEnv,&theModule,&theDefclass,theLink);
while (theLink != NULL)
{
if (newHeader)
{
fprintf(fp,"CLASS_ALPHA_LINK %s%d_%d[] = {\n",
ObjectALPrefix(),imageID,arrayVersion);
fprintf(headerFP,"extern CLASS_ALPHA_LINK %s%d_%d[];\n",
ObjectALPrefix(),imageID,arrayVersion);
newHeader = FALSE;
}
fprintf(fp,"{");
ObjectPatternNodeReference(theEnv,theLink->alphaNode,fp,imageID,maxIndices);
fprintf(fp,",");
ClassAlphaLinkReference(theEnv,theLink->next,fp,imageID,maxIndices);
fprintf(fp,"}");
theLink = GetNextAlphaLink(theEnv,&theModule,&theDefclass,theLink);
if ((i > maxIndices) || (theLink == NULL))
{
fprintf(fp,"};\n");
GenClose(theEnv,fp);
i = 1;
version++;
arrayVersion++;
if (theLink != NULL)
{
if ((fp = NewCFile(theEnv,fileName,pathName,fileNameBuffer,fileID,version,FALSE)) == NULL)
return(0);
newHeader = TRUE;
}
}
else if (theLink != NULL)
{ fprintf(fp,",\n"); }
}
return(version);
}