intl/icu/source/common/ucnvhz.c@fc2d59ddac77
intl/icu/source/common/ucnvhz.c
Wed, 31 Dec 2014 07:22:50 +0100
- author
- Michael Schloh von Bennewitz <michael@schloh.com>
- date
- Wed, 31 Dec 2014 07:22:50 +0100
- branch
- TOR_BUG_3246
- changeset 4
- fc2d59ddac77
- permissions
- -rw-r--r--
Correct previous dual key logic pending first delivery installment.
1 /*
2 **********************************************************************
3 * Copyright (C) 2000-2011, International Business Machines
4 * Corporation and others. All Rights Reserved.
5 **********************************************************************
6 * file name: ucnvhz.c
7 * encoding: US-ASCII
8 * tab size: 8 (not used)
9 * indentation:4
10 *
11 * created on: 2000oct16
12 * created by: Ram Viswanadha
13 * 10/31/2000 Ram Implemented offsets logic function
14 *
15 */
17 #include "unicode/utypes.h"
19 #if !UCONFIG_NO_CONVERSION && !UCONFIG_NO_LEGACY_CONVERSION
21 #include "cmemory.h"
22 #include "unicode/ucnv.h"
23 #include "unicode/ucnv_cb.h"
24 #include "unicode/uset.h"
25 #include "unicode/utf16.h"
26 #include "ucnv_bld.h"
27 #include "ucnv_cnv.h"
28 #include "ucnv_imp.h"
30 #define UCNV_TILDE 0x7E /* ~ */
31 #define UCNV_OPEN_BRACE 0x7B /* { */
32 #define UCNV_CLOSE_BRACE 0x7D /* } */
33 #define SB_ESCAPE "\x7E\x7D"
34 #define DB_ESCAPE "\x7E\x7B"
35 #define TILDE_ESCAPE "\x7E\x7E"
36 #define ESC_LEN 2
39 #define CONCAT_ESCAPE_MACRO( args, targetIndex,targetLength,strToAppend, err, len,sourceIndex){ \
40 while(len-->0){ \
41 if(targetIndex < targetLength){ \
42 args->target[targetIndex] = (unsigned char) *strToAppend; \
43 if(args->offsets!=NULL){ \
44 *(offsets++) = sourceIndex-1; \
45 } \
46 targetIndex++; \
47 } \
48 else{ \
49 args->converter->charErrorBuffer[(int)args->converter->charErrorBufferLength++] = (unsigned char) *strToAppend; \
50 *err =U_BUFFER_OVERFLOW_ERROR; \
51 } \
52 strToAppend++; \
53 } \
54 }
57 typedef struct{
58 UConverter* gbConverter;
59 int32_t targetIndex;
60 int32_t sourceIndex;
61 UBool isEscapeAppended;
62 UBool isStateDBCS;
63 UBool isTargetUCharDBCS;
64 UBool isEmptySegment;
65 }UConverterDataHZ;
69 static void
70 _HZOpen(UConverter *cnv, UConverterLoadArgs *pArgs, UErrorCode *errorCode){
71 UConverter *gbConverter;
72 if(pArgs->onlyTestIsLoadable) {
73 ucnv_canCreateConverter("GBK", errorCode); /* errorCode carries result */
74 return;
75 }
76 gbConverter = ucnv_open("GBK", errorCode);
77 if(U_FAILURE(*errorCode)) {
78 return;
79 }
80 cnv->toUnicodeStatus = 0;
81 cnv->fromUnicodeStatus= 0;
82 cnv->mode=0;
83 cnv->fromUChar32=0x0000;
84 cnv->extraInfo = uprv_calloc(1, sizeof(UConverterDataHZ));
85 if(cnv->extraInfo != NULL){
86 ((UConverterDataHZ*)cnv->extraInfo)->gbConverter = gbConverter;
87 }
88 else {
89 ucnv_close(gbConverter);
90 *errorCode = U_MEMORY_ALLOCATION_ERROR;
91 return;
92 }
93 }
95 static void
96 _HZClose(UConverter *cnv){
97 if(cnv->extraInfo != NULL) {
98 ucnv_close (((UConverterDataHZ *) (cnv->extraInfo))->gbConverter);
99 if(!cnv->isExtraLocal) {
100 uprv_free(cnv->extraInfo);
101 }
102 cnv->extraInfo = NULL;
103 }
104 }
106 static void
107 _HZReset(UConverter *cnv, UConverterResetChoice choice){
108 if(choice<=UCNV_RESET_TO_UNICODE) {
109 cnv->toUnicodeStatus = 0;
110 cnv->mode=0;
111 if(cnv->extraInfo != NULL){
112 ((UConverterDataHZ*)cnv->extraInfo)->isStateDBCS = FALSE;
113 ((UConverterDataHZ*)cnv->extraInfo)->isEmptySegment = FALSE;
114 }
115 }
116 if(choice!=UCNV_RESET_TO_UNICODE) {
117 cnv->fromUnicodeStatus= 0;
118 cnv->fromUChar32=0x0000;
119 if(cnv->extraInfo != NULL){
120 ((UConverterDataHZ*)cnv->extraInfo)->isEscapeAppended = FALSE;
121 ((UConverterDataHZ*)cnv->extraInfo)->targetIndex = 0;
122 ((UConverterDataHZ*)cnv->extraInfo)->sourceIndex = 0;
123 ((UConverterDataHZ*)cnv->extraInfo)->isTargetUCharDBCS = FALSE;
124 }
125 }
126 }
128 /**************************************HZ Encoding*************************************************
129 * Rules for HZ encoding
130 *
131 * In ASCII mode, a byte is interpreted as an ASCII character, unless a
132 * '~' is encountered. The character '~' is an escape character. By
133 * convention, it must be immediately followed ONLY by '~', '{' or '\n'
134 * (<LF>), with the following special meaning.
136 * 1. The escape sequence '~~' is interpreted as a '~'.
137 * 2. The escape-to-GB sequence '~{' switches the mode from ASCII to GB.
138 * 3. The escape sequence '~\n' is a line-continuation marker to be
139 * consumed with no output produced.
140 * In GB mode, characters are interpreted two bytes at a time as (pure)
141 * GB codes until the escape-from-GB code '~}' is read. This code
142 * switches the mode from GB back to ASCII. (Note that the escape-
143 * from-GB code '~}' ($7E7D) is outside the defined GB range.)
144 *
145 * Source: RFC 1842
146 *
147 * Note that the formal syntax in RFC 1842 is invalid. I assume that the
148 * intended definition of single-byte-segment is as follows (pedberg):
149 * single-byte-segment = single-byte-seq 1*single-byte-char
150 */
153 static void
154 UConverter_toUnicode_HZ_OFFSETS_LOGIC(UConverterToUnicodeArgs *args,
155 UErrorCode* err){
156 char tempBuf[2];
157 const char *mySource = ( char *) args->source;
158 UChar *myTarget = args->target;
159 const char *mySourceLimit = args->sourceLimit;
160 UChar32 targetUniChar = 0x0000;
161 int32_t mySourceChar = 0x0000;
162 UConverterDataHZ* myData=(UConverterDataHZ*)(args->converter->extraInfo);
163 tempBuf[0]=0;
164 tempBuf[1]=0;
166 /* Calling code already handles this situation. */
167 /*if ((args->converter == NULL) || (args->targetLimit < args->target) || (mySourceLimit < args->source)){
168 *err = U_ILLEGAL_ARGUMENT_ERROR;
169 return;
170 }*/
172 while(mySource< mySourceLimit){
174 if(myTarget < args->targetLimit){
176 mySourceChar= (unsigned char) *mySource++;
178 if(args->converter->mode == UCNV_TILDE) {
179 /* second byte after ~ */
180 args->converter->mode=0;
181 switch(mySourceChar) {
182 case 0x0A:
183 /* no output for ~\n (line-continuation marker) */
184 continue;
185 case UCNV_TILDE:
186 if(args->offsets) {
187 args->offsets[myTarget - args->target]=(int32_t)(mySource - args->source - 2);
188 }
189 *(myTarget++)=(UChar)mySourceChar;
190 myData->isEmptySegment = FALSE;
191 continue;
192 case UCNV_OPEN_BRACE:
193 case UCNV_CLOSE_BRACE:
194 myData->isStateDBCS = (mySourceChar == UCNV_OPEN_BRACE);
195 if (myData->isEmptySegment) {
196 myData->isEmptySegment = FALSE; /* we are handling it, reset to avoid future spurious errors */
197 *err = U_ILLEGAL_ESCAPE_SEQUENCE;
198 args->converter->toUCallbackReason = UCNV_IRREGULAR;
199 args->converter->toUBytes[0] = UCNV_TILDE;
200 args->converter->toUBytes[1] = mySourceChar;
201 args->converter->toULength = 2;
202 args->target = myTarget;
203 args->source = mySource;
204 return;
205 }
206 myData->isEmptySegment = TRUE;
207 continue;
208 default:
209 /* if the first byte is equal to TILDE and the trail byte
210 * is not a valid byte then it is an error condition
211 */
212 /*
213 * Ticket 5691: consistent illegal sequences:
214 * - We include at least the first byte in the illegal sequence.
215 * - If any of the non-initial bytes could be the start of a character,
216 * we stop the illegal sequence before the first one of those.
217 */
218 myData->isEmptySegment = FALSE; /* different error here, reset this to avoid spurious future error */
219 *err = U_ILLEGAL_ESCAPE_SEQUENCE;
220 args->converter->toUBytes[0] = UCNV_TILDE;
221 if( myData->isStateDBCS ?
222 (0x21 <= mySourceChar && mySourceChar <= 0x7e) :
223 mySourceChar <= 0x7f
224 ) {
225 /* The current byte could be the start of a character: Back it out. */
226 args->converter->toULength = 1;
227 --mySource;
228 } else {
229 /* Include the current byte in the illegal sequence. */
230 args->converter->toUBytes[1] = mySourceChar;
231 args->converter->toULength = 2;
232 }
233 args->target = myTarget;
234 args->source = mySource;
235 return;
236 }
237 } else if(myData->isStateDBCS) {
238 if(args->converter->toUnicodeStatus == 0x00){
239 /* lead byte */
240 if(mySourceChar == UCNV_TILDE) {
241 args->converter->mode = UCNV_TILDE;
242 } else {
243 /* add another bit to distinguish a 0 byte from not having seen a lead byte */
244 args->converter->toUnicodeStatus = (uint32_t) (mySourceChar | 0x100);
245 myData->isEmptySegment = FALSE; /* the segment has something, either valid or will produce a different error, so reset this */
246 }
247 continue;
248 }
249 else{
250 /* trail byte */
251 int leadIsOk, trailIsOk;
252 uint32_t leadByte = args->converter->toUnicodeStatus & 0xff;
253 targetUniChar = 0xffff;
254 /*
255 * Ticket 5691: consistent illegal sequences:
256 * - We include at least the first byte in the illegal sequence.
257 * - If any of the non-initial bytes could be the start of a character,
258 * we stop the illegal sequence before the first one of those.
259 *
260 * In HZ DBCS, if the second byte is in the 21..7e range,
261 * we report only the first byte as the illegal sequence.
262 * Otherwise we convert or report the pair of bytes.
263 */
264 leadIsOk = (uint8_t)(leadByte - 0x21) <= (0x7d - 0x21);
265 trailIsOk = (uint8_t)(mySourceChar - 0x21) <= (0x7e - 0x21);
266 if (leadIsOk && trailIsOk) {
267 tempBuf[0] = (char) (leadByte+0x80) ;
268 tempBuf[1] = (char) (mySourceChar+0x80);
269 targetUniChar = ucnv_MBCSSimpleGetNextUChar(myData->gbConverter->sharedData,
270 tempBuf, 2, args->converter->useFallback);
271 mySourceChar= (leadByte << 8) | mySourceChar;
272 } else if (trailIsOk) {
273 /* report a single illegal byte and continue with the following DBCS starter byte */
274 --mySource;
275 mySourceChar = (int32_t)leadByte;
276 } else {
277 /* report a pair of illegal bytes if the second byte is not a DBCS starter */
278 /* add another bit so that the code below writes 2 bytes in case of error */
279 mySourceChar= 0x10000 | (leadByte << 8) | mySourceChar;
280 }
281 args->converter->toUnicodeStatus =0x00;
282 }
283 }
284 else{
285 if(mySourceChar == UCNV_TILDE) {
286 args->converter->mode = UCNV_TILDE;
287 continue;
288 } else if(mySourceChar <= 0x7f) {
289 targetUniChar = (UChar)mySourceChar; /* ASCII */
290 myData->isEmptySegment = FALSE; /* the segment has something valid */
291 } else {
292 targetUniChar = 0xffff;
293 myData->isEmptySegment = FALSE; /* different error here, reset this to avoid spurious future error */
294 }
295 }
296 if(targetUniChar < 0xfffe){
297 if(args->offsets) {
298 args->offsets[myTarget - args->target]=(int32_t)(mySource - args->source - 1-(myData->isStateDBCS));
299 }
301 *(myTarget++)=(UChar)targetUniChar;
302 }
303 else /* targetUniChar>=0xfffe */ {
304 if(targetUniChar == 0xfffe){
305 *err = U_INVALID_CHAR_FOUND;
306 }
307 else{
308 *err = U_ILLEGAL_CHAR_FOUND;
309 }
310 if(mySourceChar > 0xff){
311 args->converter->toUBytes[0] = (uint8_t)(mySourceChar >> 8);
312 args->converter->toUBytes[1] = (uint8_t)mySourceChar;
313 args->converter->toULength=2;
314 }
315 else{
316 args->converter->toUBytes[0] = (uint8_t)mySourceChar;
317 args->converter->toULength=1;
318 }
319 break;
320 }
321 }
322 else{
323 *err =U_BUFFER_OVERFLOW_ERROR;
324 break;
325 }
326 }
328 args->target = myTarget;
329 args->source = mySource;
330 }
333 static void
334 UConverter_fromUnicode_HZ_OFFSETS_LOGIC (UConverterFromUnicodeArgs * args,
335 UErrorCode * err){
336 const UChar *mySource = args->source;
337 char *myTarget = args->target;
338 int32_t* offsets = args->offsets;
339 int32_t mySourceIndex = 0;
340 int32_t myTargetIndex = 0;
341 int32_t targetLength = (int32_t)(args->targetLimit - myTarget);
342 int32_t mySourceLength = (int32_t)(args->sourceLimit - args->source);
343 int32_t length=0;
344 uint32_t targetUniChar = 0x0000;
345 UChar32 mySourceChar = 0x0000;
346 UConverterDataHZ *myConverterData=(UConverterDataHZ*)args->converter->extraInfo;
347 UBool isTargetUCharDBCS = (UBool) myConverterData->isTargetUCharDBCS;
348 UBool oldIsTargetUCharDBCS = isTargetUCharDBCS;
349 int len =0;
350 const char* escSeq=NULL;
352 /* Calling code already handles this situation. */
353 /*if ((args->converter == NULL) || (args->targetLimit < myTarget) || (args->sourceLimit < args->source)){
354 *err = U_ILLEGAL_ARGUMENT_ERROR;
355 return;
356 }*/
357 if(args->converter->fromUChar32!=0 && myTargetIndex < targetLength) {
358 goto getTrail;
359 }
360 /*writing the char to the output stream */
361 while (mySourceIndex < mySourceLength){
362 targetUniChar = missingCharMarker;
363 if (myTargetIndex < targetLength){
365 mySourceChar = (UChar) mySource[mySourceIndex++];
368 oldIsTargetUCharDBCS = isTargetUCharDBCS;
369 if(mySourceChar ==UCNV_TILDE){
370 /*concatEscape(args, &myTargetIndex, &targetLength,"\x7E\x7E",err,2,&mySourceIndex);*/
371 len = ESC_LEN;
372 escSeq = TILDE_ESCAPE;
373 CONCAT_ESCAPE_MACRO(args, myTargetIndex, targetLength, escSeq,err,len,mySourceIndex);
374 continue;
375 } else if(mySourceChar <= 0x7f) {
376 length = 1;
377 targetUniChar = mySourceChar;
378 } else {
379 length= ucnv_MBCSFromUChar32(myConverterData->gbConverter->sharedData,
380 mySourceChar,&targetUniChar,args->converter->useFallback);
381 /* we can only use lead bytes 21..7D and trail bytes 21..7E */
382 if( length == 2 &&
383 (uint16_t)(targetUniChar - 0xa1a1) <= (0xfdfe - 0xa1a1) &&
384 (uint8_t)(targetUniChar - 0xa1) <= (0xfe - 0xa1)
385 ) {
386 targetUniChar -= 0x8080;
387 } else {
388 targetUniChar = missingCharMarker;
389 }
390 }
391 if (targetUniChar != missingCharMarker){
392 myConverterData->isTargetUCharDBCS = isTargetUCharDBCS = (UBool)(targetUniChar>0x00FF);
393 if(oldIsTargetUCharDBCS != isTargetUCharDBCS || !myConverterData->isEscapeAppended ){
394 /*Shifting from a double byte to single byte mode*/
395 if(!isTargetUCharDBCS){
396 len =ESC_LEN;
397 escSeq = SB_ESCAPE;
398 CONCAT_ESCAPE_MACRO(args, myTargetIndex, targetLength, escSeq,err,len,mySourceIndex);
399 myConverterData->isEscapeAppended = TRUE;
400 }
401 else{ /* Shifting from a single byte to double byte mode*/
402 len =ESC_LEN;
403 escSeq = DB_ESCAPE;
404 CONCAT_ESCAPE_MACRO(args, myTargetIndex, targetLength, escSeq,err,len,mySourceIndex);
405 myConverterData->isEscapeAppended = TRUE;
407 }
408 }
410 if(isTargetUCharDBCS){
411 if( myTargetIndex <targetLength){
412 myTarget[myTargetIndex++] =(char) (targetUniChar >> 8);
413 if(offsets){
414 *(offsets++) = mySourceIndex-1;
415 }
416 if(myTargetIndex < targetLength){
417 myTarget[myTargetIndex++] =(char) targetUniChar;
418 if(offsets){
419 *(offsets++) = mySourceIndex-1;
420 }
421 }else{
422 args->converter->charErrorBuffer[args->converter->charErrorBufferLength++] = (char) targetUniChar;
423 *err = U_BUFFER_OVERFLOW_ERROR;
424 }
425 }else{
426 args->converter->charErrorBuffer[args->converter->charErrorBufferLength++] =(char) (targetUniChar >> 8);
427 args->converter->charErrorBuffer[args->converter->charErrorBufferLength++] = (char) targetUniChar;
428 *err = U_BUFFER_OVERFLOW_ERROR;
429 }
431 }else{
432 if( myTargetIndex <targetLength){
433 myTarget[myTargetIndex++] = (char) (targetUniChar );
434 if(offsets){
435 *(offsets++) = mySourceIndex-1;
436 }
438 }else{
439 args->converter->charErrorBuffer[args->converter->charErrorBufferLength++] = (char) targetUniChar;
440 *err = U_BUFFER_OVERFLOW_ERROR;
441 }
442 }
444 }
445 else{
446 /* oops.. the code point is unassigned */
447 /*Handle surrogates */
448 /*check if the char is a First surrogate*/
449 if(U16_IS_SURROGATE(mySourceChar)) {
450 if(U16_IS_SURROGATE_LEAD(mySourceChar)) {
451 args->converter->fromUChar32=mySourceChar;
452 getTrail:
453 /*look ahead to find the trail surrogate*/
454 if(mySourceIndex < mySourceLength) {
455 /* test the following code unit */
456 UChar trail=(UChar) args->source[mySourceIndex];
457 if(U16_IS_TRAIL(trail)) {
458 ++mySourceIndex;
459 mySourceChar=U16_GET_SUPPLEMENTARY(args->converter->fromUChar32, trail);
460 args->converter->fromUChar32=0x00;
461 /* there are no surrogates in GB2312*/
462 *err = U_INVALID_CHAR_FOUND;
463 /* exit this condition tree */
464 } else {
465 /* this is an unmatched lead code unit (1st surrogate) */
466 /* callback(illegal) */
467 *err=U_ILLEGAL_CHAR_FOUND;
468 }
469 } else {
470 /* no more input */
471 *err = U_ZERO_ERROR;
472 }
473 } else {
474 /* this is an unmatched trail code unit (2nd surrogate) */
475 /* callback(illegal) */
476 *err=U_ILLEGAL_CHAR_FOUND;
477 }
478 } else {
479 /* callback(unassigned) for a BMP code point */
480 *err = U_INVALID_CHAR_FOUND;
481 }
483 args->converter->fromUChar32=mySourceChar;
484 break;
485 }
486 }
487 else{
488 *err = U_BUFFER_OVERFLOW_ERROR;
489 break;
490 }
491 targetUniChar=missingCharMarker;
492 }
494 args->target += myTargetIndex;
495 args->source += mySourceIndex;
496 myConverterData->isTargetUCharDBCS = isTargetUCharDBCS;
497 }
499 static void
500 _HZ_WriteSub(UConverterFromUnicodeArgs *args, int32_t offsetIndex, UErrorCode *err) {
501 UConverter *cnv = args->converter;
502 UConverterDataHZ *convData=(UConverterDataHZ *) cnv->extraInfo;
503 char *p;
504 char buffer[4];
505 p = buffer;
507 if( convData->isTargetUCharDBCS){
508 *p++= UCNV_TILDE;
509 *p++= UCNV_CLOSE_BRACE;
510 convData->isTargetUCharDBCS=FALSE;
511 }
512 *p++= (char)cnv->subChars[0];
514 ucnv_cbFromUWriteBytes(args,
515 buffer, (int32_t)(p - buffer),
516 offsetIndex, err);
517 }
519 /*
520 * Structure for cloning an HZ converter into a single memory block.
521 * ucnv_safeClone() of the HZ converter will align the entire cloneHZStruct,
522 * and then ucnv_safeClone() of the sub-converter may additionally align
523 * subCnv inside the cloneHZStruct, for which we need the deadSpace after
524 * subCnv. This is because UAlignedMemory may be larger than the actually
525 * necessary alignment size for the platform.
526 * The other cloneHZStruct fields will not be moved around,
527 * and are aligned properly with cloneHZStruct's alignment.
528 */
529 struct cloneHZStruct
530 {
531 UConverter cnv;
532 UConverter subCnv;
533 UAlignedMemory deadSpace;
534 UConverterDataHZ mydata;
535 };
538 static UConverter *
539 _HZ_SafeClone(const UConverter *cnv,
540 void *stackBuffer,
541 int32_t *pBufferSize,
542 UErrorCode *status)
543 {
544 struct cloneHZStruct * localClone;
545 int32_t size, bufferSizeNeeded = sizeof(struct cloneHZStruct);
547 if (U_FAILURE(*status)){
548 return 0;
549 }
551 if (*pBufferSize == 0){ /* 'preflighting' request - set needed size into *pBufferSize */
552 *pBufferSize = bufferSizeNeeded;
553 return 0;
554 }
556 localClone = (struct cloneHZStruct *)stackBuffer;
557 /* ucnv.c/ucnv_safeClone() copied the main UConverter already */
559 uprv_memcpy(&localClone->mydata, cnv->extraInfo, sizeof(UConverterDataHZ));
560 localClone->cnv.extraInfo = &localClone->mydata;
561 localClone->cnv.isExtraLocal = TRUE;
563 /* deep-clone the sub-converter */
564 size = (int32_t)(sizeof(UConverter) + sizeof(UAlignedMemory)); /* include size of padding */
565 ((UConverterDataHZ*)localClone->cnv.extraInfo)->gbConverter =
566 ucnv_safeClone(((UConverterDataHZ*)cnv->extraInfo)->gbConverter, &localClone->subCnv, &size, status);
568 return &localClone->cnv;
569 }
571 static void
572 _HZ_GetUnicodeSet(const UConverter *cnv,
573 const USetAdder *sa,
574 UConverterUnicodeSet which,
575 UErrorCode *pErrorCode) {
576 /* HZ converts all of ASCII */
577 sa->addRange(sa->set, 0, 0x7f);
579 /* add all of the code points that the sub-converter handles */
580 ucnv_MBCSGetFilteredUnicodeSetForUnicode(
581 ((UConverterDataHZ*)cnv->extraInfo)->gbConverter->sharedData,
582 sa, which, UCNV_SET_FILTER_HZ,
583 pErrorCode);
584 }
586 static const UConverterImpl _HZImpl={
588 UCNV_HZ,
590 NULL,
591 NULL,
593 _HZOpen,
594 _HZClose,
595 _HZReset,
597 UConverter_toUnicode_HZ_OFFSETS_LOGIC,
598 UConverter_toUnicode_HZ_OFFSETS_LOGIC,
599 UConverter_fromUnicode_HZ_OFFSETS_LOGIC,
600 UConverter_fromUnicode_HZ_OFFSETS_LOGIC,
601 NULL,
603 NULL,
604 NULL,
605 _HZ_WriteSub,
606 _HZ_SafeClone,
607 _HZ_GetUnicodeSet
608 };
610 static const UConverterStaticData _HZStaticData={
611 sizeof(UConverterStaticData),
612 "HZ",
613 0,
614 UCNV_IBM,
615 UCNV_HZ,
616 1,
617 4,
618 { 0x1a, 0, 0, 0 },
619 1,
620 FALSE,
621 FALSE,
622 0,
623 0,
624 { 0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0 }, /* reserved */
626 };
629 const UConverterSharedData _HZData={
630 sizeof(UConverterSharedData),
631 ~((uint32_t) 0),
632 NULL,
633 NULL,
634 &_HZStaticData,
635 FALSE,
636 &_HZImpl,
637 0
638 };
640 #endif /* #if !UCONFIG_NO_LEGACY_CONVERSION */
