blob: d303003dc94033cff4f26554b819cd8a49a5d4a0 [file] [log] [blame]
/*
********************************************************************************
*
* Copyright (C) 1998-1999, International Business Machines
* Corporation and others. All Rights Reserved.
*
********************************************************************************
*
*
* makeconv.c:
* tool creating a binary (compressed) representation of the conversion mapping
* table (IBM NLTC ucmap format).
*/
#include <stdio.h>
#include "ucmp16.h"
#include "ucmp8.h"
#include "ucnv_io.h"
#include "unicode/ucnv_bld.h"
#include "unicode/ucnv_err.h"
#include "ucnv_imp.h"
#include "cstring.h"
#include "cmemory.h"
#include "filestrm.h"
#include "toolutil.h"
#include "unicode/udata.h"
#include "unewdata.h"
#include "ucmpwrit.h"
/*Reads the header of the table file and fills in basic knowledge about the converter
*in "converter"
*/
static void readHeaderFromFile(UConverter* myConverter, FileStream* convFile, const char* converterName, UErrorCode* err);
/*Reads the rest of the file, and fills up the shared objects if necessary*/
static void loadMBCSTableFromFile(FileStream* convFile, UConverter* converter, UErrorCode* err);
/*Reads the rest of the file, and fills up the shared objects if necessary*/
static void loadEBCDIC_STATEFULTableFromFile(FileStream* convFile, UConverter* converter, UErrorCode* err);
/*Reads the rest of the file, and fills up the shared objects if necessary*/
static void loadSBCSTableFromFile(FileStream* convFile, UConverter* converter, UErrorCode* err);
/*Reads the rest of the file, and fills up the shared objects if necessary*/
static void loadDBCSTableFromFile(FileStream* convFile, UConverter* converter, UErrorCode* err);
/* creates a UConverterSharedData from a mapping file, fills in necessary links to it the
* appropriate function pointers
* if the data tables are already in memory
*/
static UConverterSharedData* createConverterFromTableFile(const char* realName, UErrorCode* err);
/*writes a CompactShortArray to a file*/
static void writeCompactShortArrayToFile(FileStream* outfile, const CompactShortArray* myArray);
/*writes a CompactByteArray to a file*/
static void writeCompactByteArrayToFile(FileStream* outfile, const CompactByteArray* myArray);
/*writes a binary to a file*/
static void writeUConverterSharedDataToFile(const char* filename,
UConverterSharedData* mySharedData,
UErrorCode* err);
static void WriteConverterSharedData(UNewDataMemory *pData, const UConverterSharedData* data);
static UConverterPlatform getPlatformFromName(char* name);
static int32_t getCodepageNumberFromName(char* name);
static const char NLTC_SEPARATORS[9] = { '\r', '\n', '\t', ' ', '<', '>' ,'"' , 'U', '\0' };
static const char PLAIN_SEPARATORS[9] = { '\r', '\n', '\t', ' ', '<', '>' ,'"' , '\0' };
static const char CODEPOINT_SEPARATORS[8] = { '\r', '>', '\\', 'x', '\n', ' ', '\t', '\0' };
static const char UNICODE_CODEPOINT_SEPARATORS[6] = { '<', '>', 'U', ' ', '\t', '\0' };
/* Remove all characters followed by '#'
*/
char *
removeComments (char *line)
{
char *pound = uprv_strchr (line, '#');
if (pound != NULL)
*pound = '\0';
return line;
}
/*Returns uppercased string */
char *
strtoupper (char *name)
{
int32_t i = 0;
while (name[i] = uprv_toupper (name[i]))
i++;
return name;
}
/* Returns true in c is a in set 'setOfChars', false otherwise
*/
bool_t
isInSet (char c, const char *setOfChars)
{
uint8_t i = 0;
while (setOfChars[i] != '\0')
{
if (c == setOfChars[i++])
return TRUE;
}
return FALSE;
}
/* Returns pointer to the next non-whitespace (or non-separator)
*/
int32_t
nextTokenOffset (const char *line, const char *separators)
{
int32_t i = 0;
while (line[i] && isInSet (line[i], separators))
i++;
return i;
}
/* Returns pointer to the next token based on the set of separators
*/
char *
getToken (char *token, char *line, const char *separators)
{
int32_t i = nextTokenOffset (line, separators);
int8_t j = 0;
while (line[i] && (!isInSet (line[i], separators)))
token[j++] = line[i++];
token[j] = '\0';
return line + i;
}
static const UDataInfo dataInfo={
sizeof(UDataInfo),
0,
U_IS_BIG_ENDIAN,
U_CHARSET_FAMILY,
sizeof(UChar),
0,
0x63, 0x6e, 0x76, 0x74, /* dataFormat="cnvt" */
2, 0, 0, 0, /* formatVersion */
1, 3, 1, 0 /* dataVersion */
};
void writeConverterData(UConverterSharedData *mySharedData, const char *cName, UErrorCode *status)
{
UNewDataMemory *mem;
const char *cnvName, *cnvName2;
uint32_t sz2;
cnvName = uprv_strrchr(cName, '/');
cnvName2 = uprv_strrchr(cName, '\\'); /* aliu - this is for Windows - what we
really need is a platform-independent
call to get the path separator */
if (cnvName2 > cnvName) {
cnvName = cnvName2; /* assume unix names don't contain '\\'! */
}
if(cnvName)
{
cnvName++;
}
else
cnvName = cName;
mem = udata_create("cnv", cnvName, &dataInfo, U_COPYRIGHT_STRING, status);
WriteConverterSharedData(mem, mySharedData);
sz2 = udata_finish(mem, status);
/* printf("Done. Wrote %d bytes.\n", sz2); */
}
int main(int argc, char** argv)
{
UConverterSharedData* mySharedData = NULL;
UErrorCode err = U_ZERO_ERROR;
char outFileName[UCNV_MAX_FULL_FILE_NAME_LENGTH];
char* dot = NULL, *arg;
char cnvName[UCNV_MAX_FULL_FILE_NAME_LENGTH];
if (argc == 1)
{
/*prints out a usage message*/
printf("usage: %s file1 file2 file3 ...\n", argv[0]);
}
while (--argc)
{
err = U_ZERO_ERROR;
arg = getLongPathname(argv[argc]);
/*removes the extension if any is found*/
uprv_strcpy(outFileName, arg);
if (dot = uprv_strchr(outFileName + uprv_strlen(outFileName) - 4, '.'))
{
*dot = '\0';
}
/*Adds the target extension*/
uprv_strcpy(cnvName, outFileName);
uprv_strcat(outFileName, CONVERTER_FILE_EXTENSION);
mySharedData = createConverterFromTableFile(arg, &err);
if (U_FAILURE(err) || (mySharedData == NULL))
{
/* in an error is found, print out a error msg and keep going*/
printf("Error creating \"%s\" file for \"%s\" (error code %d - %s)\n", outFileName, arg, err,
u_errorName(err));
err = U_ZERO_ERROR;
}
else
{
/* writeUConverterSharedDataToFile(outFileName, mySharedData, &err); */
writeConverterData(mySharedData, cnvName, &err);
deleteSharedConverterData(mySharedData);
if(U_FAILURE(err))
{
/* in an error is found, print out a error msg and keep going*/
printf("Error writing \"%s\" file for \"%s\" (error code %d - %s)\n", outFileName, arg, err,
u_errorName(err));
}
else
{
puts(outFileName);
}
}
}
return err;
}
void copyPlatformString(char* platformString, UConverterPlatform pltfrm)
{
switch (pltfrm)
{
case UCNV_IBM: {uprv_strcpy(platformString, "ibm");break;}
default: {uprv_strcpy(platformString, "");break;}
};
return;
}
UConverterPlatform getPlatformFromName(char* name)
{
char myPlatform[10];
char mySeparators[2] = { '-', '\0' };
getToken(myPlatform, name, mySeparators);
strtoupper(myPlatform);
if (uprv_strcmp(myPlatform, "IBM") == 0) return UCNV_IBM;
else return UCNV_UNKNOWN;
}
int32_t getCodepageNumberFromName(char* name)
{
char myNumber[10];
char mySeparators[2] = { '-', '\0' };
char* line = NULL;
line = getToken(myNumber, name, mySeparators);
getToken(myNumber, line, mySeparators);
return T_CString_stringToInteger(myNumber, 10);
}
/*Reads the header of the table file and fills in basic knowledge about the converter in "converter"*/
void readHeaderFromFile(UConverter* myConverter,
FileStream* convFile,
const char* converterName,
UErrorCode* err)
{
char storeLine[UCNV_MAX_LINE_TEXT];
char key[15];
char value[30];
char* line = storeLine;
bool_t endOfHeader = FALSE;
bool_t hasConvClass = FALSE;
bool_t hasSubChar = FALSE;
char codepointByte[3];
if (U_FAILURE(*err)) return;
while (!endOfHeader && T_FileStream_readLine(convFile, line, UCNV_MAX_LINE_TEXT))
{
removeComments(line);
/*skip blank lines*/
if (*(line + nextTokenOffset(line, NLTC_SEPARATORS)) != '\0')
{
/*gets the key that will qualify adjacent information*/
/*gets the adjacent value*/
line = getToken(key, line, NLTC_SEPARATORS);
if (uprv_strcmp(key, "uconv_class"))
line = getToken(value, line, NLTC_SEPARATORS);
else
line = getToken(value, line, PLAIN_SEPARATORS);
/*
Figure out what key was found and fills in myConverter with the appropriate values
a switch statement for strings...
*/
/*Checks for end of header marker*/
if (uprv_strcmp(key, "CHARMAP") == 0) endOfHeader = TRUE;
/*get name tag*/
else if (uprv_strcmp(key, "code_set_name") == 0)
{
if (uprv_strlen(value) != 0) {
uprv_strcpy(myConverter->sharedData->name, value);
myConverter->sharedData->platform = getPlatformFromName(value);
myConverter->sharedData->codepage = getCodepageNumberFromName(value);
} else {
uprv_strcpy(myConverter->sharedData->name, converterName);
myConverter->sharedData->platform = UCNV_IBM;
}
}
/*get conversion type*/
else if (uprv_strcmp(key, "uconv_class") == 0)
{
hasConvClass = TRUE;
if (uprv_strcmp(value, "DBCS") == 0)
{
myConverter->sharedData->conversionType = UCNV_DBCS;
}
else if (uprv_strcmp(value, "SBCS") == 0)
{
myConverter->sharedData->conversionType = UCNV_SBCS;
}
else if (uprv_strcmp(value, "MBCS") == 0)
{
myConverter->sharedData->conversionType = UCNV_MBCS;
}
else if (uprv_strcmp(value, "EBCDIC_STATEFUL") == 0)
{
myConverter->sharedData->conversionType = UCNV_EBCDIC_STATEFUL;
}
else
{
*err = U_INVALID_TABLE_FORMAT;
return;
}
}
/*get mb_cur_max amount*/
else if (uprv_strcmp(key, "mb_cur_max") == 0)
myConverter->sharedData->maxBytesPerChar = (int8_t)T_CString_stringToInteger(value, 10);
/*get mb_cur_max amount*/
else if (uprv_strcmp(key, "mb_cur_min") == 0)
myConverter->sharedData->minBytesPerChar = (int8_t)T_CString_stringToInteger(value, 10);
else if (uprv_strcmp(key, "subchar") == 0)
{
hasSubChar = TRUE;
myConverter->sharedData->defaultConverterValues.subCharLen = 0;
/*readies value for tokenizing, we want to break each byte of the codepoint into single tokens*/
line = value;
while (*line)
{
line = getToken(codepointByte, line, CODEPOINT_SEPARATORS);
myConverter->sharedData->defaultConverterValues.subChar[(myConverter->sharedData->defaultConverterValues.subCharLen++)] =
(unsigned char)T_CString_stringToInteger(codepointByte, 16);
}
/*Initializes data from the mutable area to that found in the immutable area*/
}
}
/*make line point to the beginning of the storage buffer again*/
line = storeLine;
}
if (!hasSubChar) {myConverter->subCharLen = myConverter->sharedData->defaultConverterValues.subCharLen = 0;}
else
{
myConverter->subCharLen = myConverter->sharedData->defaultConverterValues.subCharLen;
uprv_memcpy(myConverter->subChar,
myConverter->sharedData->defaultConverterValues.subChar,
myConverter->subCharLen);
}
if (!endOfHeader || !hasConvClass) *err = U_INVALID_TABLE_FORMAT;
return;
}
void loadSBCSTableFromFile(FileStream* convFile, UConverter* myConverter, UErrorCode* err)
{
char storageLine[UCNV_MAX_LINE_TEXT];
char* line = NULL;
UConverterTable* myUConverterTable = NULL;
UChar unicodeValue = 0xFFFF;
int32_t sbcsCodepageValue = 0;
char codepointBytes[5];
unsigned char replacementChar = '\0';
int32_t i = 0;
CompactByteArray* myFromUnicode = NULL;
if (U_FAILURE(*err)) return;
replacementChar = myConverter->subChar[0];
myUConverterTable = (UConverterTable*)uprv_malloc(sizeof(UConverterSBCSTable));
if (myUConverterTable == NULL)
{
*err = U_MEMORY_ALLOCATION_ERROR;
return;
}
/*create a compact array with replacement chars as default chars*/
myFromUnicode = ucmp8_open(0);
if (myFromUnicode == NULL)
{
uprv_free(myUConverterTable);
*err = U_MEMORY_ALLOCATION_ERROR;
return;
}
myUConverterTable->sbcs.toUnicode = (UChar*)malloc(sizeof(UChar)*256);
/*fills in the toUnicode array with the Unicode Replacement Char*/
for (i=0;i<255;i++) myUConverterTable->sbcs.toUnicode[i] = unicodeValue;
while (T_FileStream_readLine(convFile, storageLine, UCNV_MAX_LINE_TEXT))
{
/*removes comments*/
removeComments(storageLine);
/*set alias pointer back to the beginning of the buffer*/
line = storageLine;
/*skips empty lines*/
if (line[nextTokenOffset(line, NLTC_SEPARATORS)] != '\0')
{
line = getToken(codepointBytes, line, UNICODE_CODEPOINT_SEPARATORS);
if (!uprv_strcmp(codepointBytes, "END")) break;
unicodeValue = (UChar)T_CString_stringToInteger(codepointBytes, 16);
line = getToken(codepointBytes, line, CODEPOINT_SEPARATORS);
sbcsCodepageValue = T_CString_stringToInteger(codepointBytes, 16);
/*Store in the toUnicode array*/
myUConverterTable->sbcs.toUnicode[sbcsCodepageValue] = unicodeValue;
/*Store in the fromUnicode compact array*/
ucmp8_set(myFromUnicode, unicodeValue, (int8_t)sbcsCodepageValue);
}
}
ucmp8_compact(myFromUnicode, 1);
myUConverterTable->sbcs.fromUnicode = myFromUnicode;
/*Initially sets the referenceCounter to 1*/
myConverter->sharedData->referenceCounter = 1;
myConverter->sharedData->table = myUConverterTable;
return;
}
void loadMBCSTableFromFile(FileStream* convFile, UConverter* myConverter, UErrorCode* err)
{
char storageLine[UCNV_MAX_LINE_TEXT];
char* line = NULL;
UConverterTable* myUConverterTable = NULL;
UChar unicodeValue = 0xFFFF;
int32_t mbcsCodepageValue = '\0';
char codepointBytes[6];
int32_t replacementChar = 0x0000;
uint16_t i = 0;
CompactShortArray* myFromUnicode = NULL;
CompactShortArray* myToUnicode = NULL;
/*Evaluates the replacement codepoint*/
replacementChar = 0xFFFF;
myUConverterTable = (UConverterTable*)uprv_malloc(sizeof(UConverterMBCSTable));
if (myUConverterTable == NULL)
{
*err = U_MEMORY_ALLOCATION_ERROR;
return;
}
myUConverterTable->mbcs.starters = (bool_t*)(uprv_malloc(sizeof(bool_t)*256));
if (myUConverterTable->mbcs.starters == NULL)
{
*err = U_MEMORY_ALLOCATION_ERROR;
return;
}
/*Initializes the mbcs.starters to FALSE*/
for (i=0; i<=255; i++)
{
myUConverterTable->mbcs.starters[i] = FALSE;
}
myFromUnicode = ucmp16_open((uint16_t)replacementChar);
myToUnicode = ucmp16_open((int16_t)0xFFFD);
while (T_FileStream_readLine(convFile, storageLine, UCNV_MAX_LINE_TEXT))
{
removeComments(storageLine);
line = storageLine;
if (line[nextTokenOffset(line, NLTC_SEPARATORS)] != '\0')
{
line = getToken(codepointBytes, line, UNICODE_CODEPOINT_SEPARATORS);
if (!uprv_strcmp(codepointBytes, "END")) break;
unicodeValue = (UChar)T_CString_stringToInteger(codepointBytes, 16);
line = getToken(codepointBytes, line, CODEPOINT_SEPARATORS);
if (line[nextTokenOffset(line, CODEPOINT_SEPARATORS)] != '\0')
{
/*When there is a second byte*/
myUConverterTable->mbcs.starters[T_CString_stringToInteger(codepointBytes, 16)] = TRUE;
line = getToken(codepointBytes+2, line, CODEPOINT_SEPARATORS);
}
mbcsCodepageValue = T_CString_stringToInteger(codepointBytes, 16);
ucmp16_set(myToUnicode, (int16_t)mbcsCodepageValue, unicodeValue);
ucmp16_set(myFromUnicode, unicodeValue, (int16_t)mbcsCodepageValue);
}
}
ucmp16_compact(myFromUnicode);
ucmp16_compact(myToUnicode);
myUConverterTable->mbcs.fromUnicode = myFromUnicode;
myUConverterTable->mbcs.toUnicode = myToUnicode;
myConverter->sharedData->referenceCounter = 1;
myConverter->sharedData->table = myUConverterTable;
/* if the default subCharLen is > 1 we need to insert it in the data structure
so that we know how to transition */
if (myConverter->subCharLen > 1)
{
myConverter->sharedData->table->mbcs.starters[(uint8_t)(myConverter->subChar[0])] = TRUE;
}
return;
}
void loadEBCDIC_STATEFULTableFromFile(FileStream* convFile, UConverter* myConverter, UErrorCode* err)
{
char storageLine[UCNV_MAX_LINE_TEXT];
char* line = NULL;
UConverterTable* myUConverterTable = NULL;
UChar unicodeValue = 0xFFFF;
int32_t mbcsCodepageValue = '\0';
char codepointBytes[6];
int32_t replacementChar = 0x0000;
uint8_t i = 0;
CompactShortArray* myFromUnicode = NULL;
CompactShortArray* myToUnicode = NULL;
/*Evaluates the replacement codepoint*/
replacementChar = 0xFFFF;
myUConverterTable = (UConverterTable*)uprv_malloc(sizeof(UConverterMBCSTable));
if (myUConverterTable == NULL)
{
*err = U_MEMORY_ALLOCATION_ERROR;
return;
}
myFromUnicode = ucmp16_open((uint16_t)replacementChar);
myToUnicode = ucmp16_open((int16_t)0xFFFD);
while (T_FileStream_readLine(convFile, storageLine, UCNV_MAX_LINE_TEXT))
{
removeComments(storageLine);
line = storageLine;
if (line[nextTokenOffset(line, NLTC_SEPARATORS)] != '\0')
{
line = getToken(codepointBytes, line, UNICODE_CODEPOINT_SEPARATORS);
if (!uprv_strcmp(codepointBytes, "END")) break;
unicodeValue = (UChar)T_CString_stringToInteger(codepointBytes, 16);
line = getToken(codepointBytes, line, CODEPOINT_SEPARATORS);
if (line[nextTokenOffset(line, CODEPOINT_SEPARATORS)] != '\0')
{
/*two-byter!*/
line = getToken(codepointBytes+2, line, CODEPOINT_SEPARATORS);
}
mbcsCodepageValue = T_CString_stringToInteger(codepointBytes, 16);
ucmp16_set(myToUnicode, (int16_t)mbcsCodepageValue, unicodeValue);
ucmp16_set(myFromUnicode, unicodeValue, (int16_t)mbcsCodepageValue);
}
}
ucmp16_compact(myFromUnicode);
ucmp16_compact(myToUnicode);
myUConverterTable->dbcs.fromUnicode = myFromUnicode;
myUConverterTable->dbcs.toUnicode = myToUnicode;
myConverter->sharedData->referenceCounter = 1;
myConverter->sharedData->table = myUConverterTable;
return;
}
void loadDBCSTableFromFile(FileStream* convFile, UConverter* myConverter, UErrorCode* err)
{
char storageLine[UCNV_MAX_LINE_TEXT];
char* line = NULL;
UConverterTable* myUConverterTable = NULL;
UChar unicodeValue = 0xFFFD;
int32_t dbcsCodepageValue = '\0';
char codepointBytes[6];
int32_t replacementChar = 0x0000;
uint8_t i = 0;
CompactShortArray* myFromUnicode = NULL;
CompactShortArray* myToUnicode = NULL;
/*Evaluates the replacement codepoint*/
replacementChar = 0xFFFF;
myUConverterTable = (UConverterTable*)uprv_malloc(sizeof(UConverterDBCSTable));
if (myUConverterTable == NULL)
{
*err = U_MEMORY_ALLOCATION_ERROR;
return;
}
myFromUnicode = ucmp16_open((int16_t)replacementChar);
myToUnicode = ucmp16_open((int16_t)0xFFFD);
while (T_FileStream_readLine(convFile, storageLine, UCNV_MAX_LINE_TEXT))
{
removeComments(storageLine);
line = storageLine;
if (line[nextTokenOffset(line, NLTC_SEPARATORS)] != '\0')
{
line = getToken(codepointBytes, line, UNICODE_CODEPOINT_SEPARATORS);
if (!uprv_strcmp(codepointBytes, "END")) break;
unicodeValue = (UChar)T_CString_stringToInteger(codepointBytes, 16);
/*first byte*/
line = getToken(codepointBytes, line, CODEPOINT_SEPARATORS);
/*second byte*/
line = getToken(codepointBytes+2, line, CODEPOINT_SEPARATORS);
}
dbcsCodepageValue = T_CString_stringToInteger(codepointBytes, 16);
ucmp16_set(myToUnicode, (int16_t)dbcsCodepageValue, unicodeValue);
ucmp16_set(myFromUnicode, unicodeValue, (int16_t)dbcsCodepageValue);
}
ucmp16_compact(myFromUnicode);
ucmp16_compact(myToUnicode);
myUConverterTable->dbcs.fromUnicode = myFromUnicode;
myUConverterTable->dbcs.toUnicode = myToUnicode;
myConverter->sharedData->referenceCounter = 1;
myConverter->sharedData->table = myUConverterTable;
return;
}
/*deletes the "shared" type object*/
bool_t deleteSharedConverterData(UConverterSharedData* deadSharedData)
{
if (deadSharedData->conversionType == UCNV_SBCS)
{
ucmp8_close(deadSharedData->table->sbcs.fromUnicode);
uprv_free(deadSharedData->table);
uprv_free(deadSharedData);
}
else if (deadSharedData->conversionType == UCNV_MBCS)
{
ucmp16_close(deadSharedData->table->mbcs.fromUnicode);
ucmp16_close(deadSharedData->table->mbcs.toUnicode);
uprv_free(deadSharedData->table);
uprv_free(deadSharedData);
}
else if ((deadSharedData->conversionType == UCNV_DBCS) || (deadSharedData->conversionType == UCNV_EBCDIC_STATEFUL))
{
ucmp16_close(deadSharedData->table->dbcs.fromUnicode);
ucmp16_close(deadSharedData->table->dbcs.toUnicode);
uprv_free(deadSharedData->table);
uprv_free(deadSharedData);
}
else
{
uprv_free(deadSharedData);
}
return TRUE;
}
/*creates a UConverter, fills in necessary links to it the appropriate function pointers*/
UConverterSharedData* createConverterFromTableFile(const char* converterName, UErrorCode* err)
{
FileStream* convFile = NULL;
int32_t i = 0;
UConverterSharedData* mySharedData = NULL;
UConverter myConverter;
if (U_FAILURE(*err)) return NULL;
convFile = T_FileStream_open(converterName, "r");
if (convFile == NULL)
{
*err = U_FILE_ACCESS_ERROR;
return NULL;
}
mySharedData = (UConverterSharedData*) uprv_malloc(sizeof(UConverterSharedData));
if (mySharedData == NULL)
{
*err = U_MEMORY_ALLOCATION_ERROR;
T_FileStream_close(convFile);
}
mySharedData->structSize = sizeof(UConverterSharedData);
mySharedData->dataMemory = NULL; /* for init */
myConverter.sharedData = mySharedData;
readHeaderFromFile(&myConverter, convFile, converterName, err);
if (U_FAILURE(*err)) return NULL;
switch (mySharedData->conversionType)
{
case UCNV_SBCS:
{
loadSBCSTableFromFile(convFile, &myConverter, err);
break;
}
case UCNV_MBCS:
{
loadMBCSTableFromFile(convFile, &myConverter, err);
break;
}
case UCNV_EBCDIC_STATEFUL:
{
loadEBCDIC_STATEFULTableFromFile(convFile, &myConverter, err);
break;
}
case UCNV_DBCS:
{
loadDBCSTableFromFile(convFile, &myConverter, err);
break;
}
default : break;
};
T_FileStream_close(convFile);
return mySharedData;
}
static void WriteConverterSharedData(UNewDataMemory *pData, const UConverterSharedData* data)
{
uint32_t size = 0;
udata_writeBlock(pData, data, sizeof(UConverterSharedData));
size += sizeof(UConverterSharedData); /* Is 4-aligned- it ends with a pointer */
switch (data->conversionType)
{
case UCNV_SBCS:
{
udata_writeBlock(pData, (void*)data->table->sbcs.toUnicode, sizeof(UChar)*256);
size += udata_write_ucmp8(pData, data->table->sbcs.fromUnicode);
size += sizeof(UChar)*256;
/* don't care aboutalignment */
}
break;
case UCNV_DBCS:
case UCNV_EBCDIC_STATEFUL:
{
size += udata_write_ucmp16(pData,data->table->dbcs.toUnicode);
if(size%4)
{
udata_writePadding(pData, 4-(size%4) );
size+= 4-(size%4);
}
size += udata_write_ucmp16(pData,data->table->dbcs.fromUnicode);
}
break;
case UCNV_MBCS:
{
udata_writeBlock(pData, data->table->mbcs.starters, 256*sizeof(bool_t));
size += 256*sizeof(bool_t);
size += udata_write_ucmp16(pData,data->table->mbcs.toUnicode);
if(size%4)
{
udata_writePadding(pData, 4-(size%4) );
size+= 4-(size%4);
}
size += udata_write_ucmp16(pData,data->table->mbcs.fromUnicode);
}
break;
default:
{
/*If it isn't any of the above, the file is invalid */
fprintf(stderr, "Error: bad converter type, can't write!!\n");
exit(1);
return; /* 0; */
}
}
}