/* Calculate the number of characters between begin and end, and return
* it. */
size_t get_totsize(const filestruct *begin, const filestruct *end)
{
size_t totsize = 0;
const filestruct *f;
/* Go through the lines from begin to end->prev, if we can. */
for (f = begin; f != end && f != NULL; f = f->next) {
/* Count the number of characters on this line. */
totsize += mbstrlen(f->data);
/* Count the newline if we have one. */
if (f->next != NULL)
totsize++;
}
/* Go through the line at end, if we can. */
if (f != NULL) {
/* Count the number of characters on this line. */
totsize += mbstrlen(f->data);
/* Count the newline if we have one. */
if (f->next != NULL)
totsize++;
}
return totsize;
}
/* This function is equivalent to strcasestr() for multibyte strings. */
char *mbstrcasestr(const char *haystack, const char *needle)
{
#ifdef ENABLE_UTF8
if (use_utf8) {
size_t haystack_len, needle_len;
assert(haystack != NULL && needle != NULL);
if (*needle == '\0')
return (char *)haystack;
haystack_len = mbstrlen(haystack);
needle_len = mbstrlen(needle);
for (; *haystack != '\0' && haystack_len >= needle_len;
haystack += move_mbright(haystack, 0), haystack_len--) {
if (mbstrncasecmp(haystack, needle, needle_len) == 0)
return (char *)haystack;
}
return NULL;
} else
#endif
return strcasestr(haystack, needle);
}
/* This function is equivalent to strcasestr() for multibyte strings,
* except in that it scans the string in reverse, starting at rev_start. */
char *mbrevstrcasestr(const char *haystack, const char *needle, const
char *rev_start)
{
#ifdef ENABLE_UTF8
if (use_utf8) {
size_t rev_start_len, needle_len;
if (*needle == '\0')
return (char *)rev_start;
needle_len = mbstrlen(needle);
if (mbstrlen(haystack) < needle_len)
return NULL;
rev_start_len = mbstrlen(rev_start);
while (TRUE) {
if (rev_start_len >= needle_len &&
mbstrncasecmp(rev_start, needle, needle_len) == 0)
return (char *)rev_start;
/* If we've reached the head of the haystack, we found nothing. */
if (rev_start == haystack)
return NULL;
rev_start = haystack + move_mbleft(haystack, rev_start - haystack);
rev_start_len++;
}
} else
#endif
return revstrcasestr(haystack, needle, rev_start);
}
/* Search for a match to one of the two characters in bracket_set. If
* reverse is TRUE, search backwards for the leftmost bracket.
* Otherwise, search forwards for the rightmost bracket. Return TRUE if
* we found a match, and FALSE otherwise. */
bool find_bracket_match(bool reverse, const char *bracket_set)
{
linestruct *fileptr = openfile->current;
const char *rev_start = NULL, *found = NULL;
ssize_t current_y_find = openfile->current_y;
assert(mbstrlen(bracket_set) == 2);
/* rev_start might end up 1 character before the start or after the
* end of the line. This won't be a problem because we'll skip over
* it below in that case, and rev_start will be properly set when
* the search continues on the previous or next line. */
rev_start = reverse ? fileptr->data + (openfile->current_x - 1) :
fileptr->data + (openfile->current_x + 1);
/* Look for either of the two characters in bracket_set. rev_start
* can be 1 character before the start or after the end of the line.
* In either case, just act as though no match is found. */
while (TRUE) {
found = ((rev_start > fileptr->data && *(rev_start - 1) ==
'\0') || rev_start < fileptr->data) ? NULL : (reverse ?
mbrevstrpbrk(fileptr->data, bracket_set, rev_start) :
mbstrpbrk(rev_start, bracket_set));
if (found != NULL)
/* We've found a potential match. */
break;
if (reverse) {
fileptr = fileptr->prev;
current_y_find--;
} else {
fileptr = fileptr->next;
current_y_find++;
}
if (fileptr == NULL)
/* We've reached the start or end of the buffer, so get out. */
return FALSE;
rev_start = fileptr->data;
if (reverse)
rev_start += strlen(fileptr->data);
}
/* We've definitely found something. */
openfile->current = fileptr;
openfile->current_x = found - fileptr->data;
openfile->placewewant = xplustabs();
openfile->current_y = current_y_find;
return TRUE;
}
/* This function is equivalent to strcasestr() for multibyte strings,
* except in that it scans the string in reverse, starting at
* rev_start. */
char *mbrevstrcasestr(const char *haystack, const char *needle, const
char *rev_start)
{
#ifdef ENABLE_UTF8
if (use_utf8) {
bool begin_line = FALSE;
size_t rev_start_len, needle_len;
assert(haystack != NULL && needle != NULL && rev_start != NULL);
if (*needle == '\0')
return (char *)rev_start;
needle_len = mbstrlen(needle);
if (mbstrlen(haystack) < needle_len)
return NULL;
rev_start_len = mbstrlen(rev_start);
while (!begin_line) {
if (rev_start_len >= needle_len &&
mbstrncasecmp(rev_start, needle, needle_len) == 0 &&
mblen(rev_start, MB_CUR_MAX) > 0)
return (char *)rev_start;
if (rev_start == haystack)
begin_line = TRUE;
else {
rev_start = haystack + move_mbleft(haystack, rev_start -
haystack);
rev_start_len++;
}
}
return NULL;
} else
#endif
return revstrcasestr(haystack, needle, rev_start);
}
int strmax(int val, char** src)
{
int i = 0,
len = 0,
max = 0;
for (i = 0; i < val; i++) {
len = mbstrlen(src[i]);
if (max < len)
max = len;
}
return max;
}
int strmax(int val, char** src)
{
int i = 0,
len = 0,
max = 0;
while (i < val) {
len = mbstrlen(src[i]);
if (max < len)
max = len;
i++;
}
return max;
}
NMButton::NMButton(const char* text, NEvent* pevent, ...) : NStaticText(NRect(3, 20, getmaxy(stdscr)/2-3/2,getmaxx(stdscr)/2-20/2))
{
appendstring(getcolorpair(COLOR_WHITE, COLOR_CYAN)," ");
appendstring(getcolorpair(COLOR_WHITE, COLOR_CYAN) | A_BOLD ,text);
appendstring(getcolorpair(COLOR_WHITE, COLOR_CYAN)," ");
this->pevent = pevent;
//размер кнопки
resize(1, mbstrlen(text) + 2);
//список клавиш на которые реагирует эта кнопка
va_list pk;
va_start(pk, pevent);
int ch = va_arg(pk, int);
while ( ch != 0)
{
keys.push_back((char)ch);
ch = va_arg(pk, int); //следующий ключ
}
va_end(pk);
}
/* Search for a match to one of the two characters in bracket_set. If
* reverse is TRUE, search backwards for the leftmost bracket.
* Otherwise, search forwards for the rightmost bracket. Return TRUE if
* we found a match, and FALSE otherwise. */
bool find_statusbar_bracket_match(bool reverse, const char
*bracket_set)
{
const char *rev_start = NULL, *found = NULL;
assert(mbstrlen(bracket_set) == 2);
/* rev_start might end up 1 character before the start or after the
* end of the line. This won't be a problem because we'll skip over
* it below in that case. */
rev_start = reverse ? answer + (statusbar_x - 1) : answer +
(statusbar_x + 1);
while (TRUE) {
/* Look for either of the two characters in bracket_set.
* rev_start can be 1 character before the start or after the
* end of the line. In either case, just act as though no match
* is found. */
found = ((rev_start > answer && *(rev_start - 1) == '\0') ||
rev_start < answer) ? NULL : (reverse ?
mbrevstrpbrk(answer, bracket_set, rev_start) :
mbstrpbrk(rev_start, bracket_set));
/* We've found a potential match. */
if (found != NULL)
break;
/* We've reached the start or end of the statusbar text, so
* get out. */
return FALSE;
}
/* We've definitely found something. */
statusbar_x = found - answer;
statusbar_pww = statusbar_xplustabs();
return TRUE;
}
/* This function is equivalent to strcasestr() for multibyte strings. */
char *mbstrcasestr(const char *haystack, const char *needle)
{
#ifdef ENABLE_UTF8
if (use_utf8) {
size_t needle_len;
if (*needle == '\0')
return (char *)haystack;
needle_len = mbstrlen(needle);
while (*haystack != '\0') {
if (mbstrncasecmp(haystack, needle, needle_len) == 0)
return (char *)haystack;
haystack += move_mbright(haystack, 0);
}
return NULL;
} else
#endif
return (char *) strcasestr(haystack, needle);
}
static
void CheckCharToWchar16(const char *input)
{
size_t inputlen = mbstrlen(input);
if(input[0] != '\0')
MU_ASSERT(inputlen != 0);
wchar16_t *allocated = malloc((inputlen + 1) * sizeof(wchar16_t));
MU_ASSERT(allocated != NULL);
size_t converted = mbstowc16s(allocated, input, inputlen + 1);
MU_ASSERT(converted == inputlen);
MU_ASSERT(wc16slen(allocated) == inputlen);
free(allocated);
allocated = ambstowc16s(input);
MU_ASSERT(allocated != NULL);
MU_ASSERT(wc16slen(allocated) == inputlen);
char *convertedback = awc16stombs(allocated);
MU_ASSERT(convertedback != NULL);
MU_ASSERT(!strcmp(input, convertedback));
free(convertedback);
free(allocated);
}
/* Step through each replace word and prompt user before replacing.
* Parameters real_current and real_current_x are needed in order to
* allow the cursor position to be updated when a word before the cursor
* is replaced by a shorter word.
*
* needle is the string to seek. We replace it with answer. Return -1
* if needle isn't found, else the number of replacements performed. If
* canceled isn't NULL, set it to TRUE if we canceled. */
ssize_t do_replace_loop(
#ifndef DISABLE_SPELLER
bool whole_word_only,
#endif
bool *canceled, const linestruct *real_current, size_t
*real_current_x, const char *needle)
{
ssize_t numreplaced = -1;
size_t match_len;
bool replaceall = FALSE;
#ifndef NANO_TINY
bool old_mark_set = openfile->mark_set;
linestruct *top, *bot;
size_t top_x, bot_x;
bool right_side_up = FALSE;
/* TRUE if (mark_begin, mark_begin_x) is the top of the mark,
* FALSE if (current, current_x) is. */
if (old_mark_set) {
/* If the mark is on, frame the region, and turn the mark off. */
mark_order((const linestruct **)&top, &top_x,
(const linestruct **)&bot, &bot_x, &right_side_up);
openfile->mark_set = FALSE;
/* Start either at the top or the bottom of the marked region. */
if (!ISSET(BACKWARDS_SEARCH)) {
openfile->current = top;
openfile->current_x = (top_x == 0 ? 0 : top_x - 1);
} else {
openfile->current = bot;
openfile->current_x = bot_x;
}
}
#endif /* !NANO_TINY */
if (canceled != NULL)
*canceled = FALSE;
findnextstr_wrap_reset();
while (findnextstr(
#ifndef DISABLE_SPELLER
whole_word_only,
#endif
real_current, *real_current_x, needle, &match_len)) {
int i = 0;
#ifndef NANO_TINY
if (old_mark_set) {
/* When we've found an occurrence outside of the marked region,
* stop the fanfare. */
if (openfile->current->lineno > bot->lineno ||
openfile->current->lineno < top->lineno ||
(openfile->current == bot && openfile->current_x > bot_x) ||
(openfile->current == top && openfile->current_x < top_x))
break;
}
#endif
/* Indicate that we found the search string. */
if (numreplaced == -1)
numreplaced = 0;
if (!replaceall) {
size_t xpt = xplustabs();
char *exp_word = display_string(openfile->current->data,
xpt, strnlenpt(openfile->current->data,
openfile->current_x + match_len) - xpt, FALSE);
edit_refresh();
curs_set(0);
do_replace_highlight(TRUE, exp_word);
/* TRANSLATORS: This is a prompt. */
i = do_yesno_prompt(TRUE, _("Replace this instance?"));
do_replace_highlight(FALSE, exp_word);
free(exp_word);
curs_set(1);
if (i == -1) { /* We canceled the replace. */
if (canceled != NULL)
*canceled = TRUE;
break;
}
}
if (i > 0 || replaceall) { /* Yes, replace it!!!! */
char *copy;
size_t length_change;
#ifndef NANO_TINY
add_undo(REPLACE);
#endif
if (i == 2)
replaceall = TRUE;
copy = replace_line(needle);
length_change = strlen(copy) - strlen(openfile->current->data);
#ifndef NANO_TINY
/* If the mark was on and (mark_begin, mark_begin_x) was the
* top of it, don't change mark_begin_x. */
if (!old_mark_set || !right_side_up) {
/* Keep mark_begin_x in sync with the text changes. */
if (openfile->current == openfile->mark_begin &&
openfile->mark_begin_x > openfile->current_x) {
if (openfile->mark_begin_x < openfile->current_x +
match_len)
openfile->mark_begin_x = openfile->current_x;
else
openfile->mark_begin_x += length_change;
bot_x = openfile->mark_begin_x;
}
}
/* If the mark was on and (current, current_x) was the top
* of it, don't change real_current_x. */
if (!old_mark_set || right_side_up) {
#endif
/* Keep real_current_x in sync with the text changes. */
if (openfile->current == real_current &&
openfile->current_x <= *real_current_x) {
if (*real_current_x < openfile->current_x + match_len)
*real_current_x = openfile->current_x + match_len;
*real_current_x += length_change;
#ifndef NANO_TINY
bot_x = *real_current_x;
}
#endif
}
/* Set the cursor at the last character of the replacement
* text, so searching will resume after the replacement
* text. Note that current_x might be set to (size_t)-1
* here. */
#ifndef NANO_TINY
if (!ISSET(BACKWARDS_SEARCH))
#endif
openfile->current_x += match_len + length_change - 1;
/* Clean up. */
openfile->totsize += mbstrlen(copy) -
mbstrlen(openfile->current->data);
free(openfile->current->data);
openfile->current->data = copy;
#ifndef DISABLE_COLOR
/* Reset the precalculated multiline-regex hints only when
* the first replacement has been made. */
if (numreplaced == 0)
reset_multis(openfile->current, TRUE);
#endif
if (!replaceall) {
#ifndef DISABLE_COLOR
/* If color syntaxes are available and turned on, we
* need to call edit_refresh(). */
if (openfile->colorstrings != NULL &&
!ISSET(NO_COLOR_SYNTAX))
edit_refresh();
else
#endif
update_line(openfile->current, openfile->current_x);
}
set_modified();
numreplaced++;
}
}
if (numreplaced == -1)
not_found_msg(needle);
#ifndef NANO_TINY
if (old_mark_set)
openfile->mark_set = TRUE;
#endif
/* If the NO_NEWLINES flag isn't set, and text has been added to the
* magicline, make a new magicline. */
if (!ISSET(NO_NEWLINES) && openfile->filebot->data[0] != '\0')
new_magicline();
return numreplaced;
}
/* Search for a match to the bracket at the current cursor position, if
* there is one. */
void do_find_bracket(void)
{
linestruct *current_save;
size_t current_x_save, pww_save;
const char *ch;
/* The location in matchbrackets of the bracket at the current
* cursor position. */
int ch_len;
/* The length of ch in bytes. */
const char *wanted_ch;
/* The location in matchbrackets of the bracket complementing
* the bracket at the current cursor position. */
int wanted_ch_len;
/* The length of wanted_ch in bytes. */
char *bracket_set;
/* The pair of characters in ch and wanted_ch. */
size_t i;
/* Generic loop variable. */
size_t matchhalf;
/* The number of single-byte characters in one half of
* matchbrackets. */
size_t mbmatchhalf;
/* The number of multibyte characters in one half of
* matchbrackets. */
size_t count = 1;
/* The initial bracket count. */
bool reverse;
/* The direction we search. */
char *found_ch;
/* The character we find. */
assert(mbstrlen(matchbrackets) % 2 == 0);
ch = openfile->current->data + openfile->current_x;
if (ch == '\0' || (ch = mbstrchr(matchbrackets, ch)) == NULL) {
statusbar(_("Not a bracket"));
return;
}
/* Save where we are. */
current_save = openfile->current;
current_x_save = openfile->current_x;
pww_save = openfile->placewewant;
/* If we're on an opening bracket, which must be in the first half
* of matchbrackets, we want to search forwards for a closing
* bracket. If we're on a closing bracket, which must be in the
* second half of matchbrackets, we want to search backwards for an
* opening bracket. */
matchhalf = 0;
mbmatchhalf = mbstrlen(matchbrackets) / 2;
for (i = 0; i < mbmatchhalf; i++)
matchhalf += parse_mbchar(matchbrackets + matchhalf, NULL,
NULL);
reverse = ((ch - matchbrackets) >= matchhalf);
/* If we're on an opening bracket, set wanted_ch to the character
* that's matchhalf characters after ch. If we're on a closing
* bracket, set wanted_ch to the character that's matchhalf
* characters before ch. */
wanted_ch = ch;
while (mbmatchhalf > 0) {
if (reverse)
wanted_ch = matchbrackets + move_mbleft(matchbrackets,
wanted_ch - matchbrackets);
else
wanted_ch += move_mbright(wanted_ch, 0);
mbmatchhalf--;
}
ch_len = parse_mbchar(ch, NULL, NULL);
wanted_ch_len = parse_mbchar(wanted_ch, NULL, NULL);
/* Fill bracket_set in with the values of ch and wanted_ch. */
bracket_set = charalloc((mb_cur_max() * 2) + 1);
strncpy(bracket_set, ch, ch_len);
strncpy(bracket_set + ch_len, wanted_ch, wanted_ch_len);
null_at(&bracket_set, ch_len + wanted_ch_len);
found_ch = charalloc(mb_cur_max() + 1);
while (TRUE) {
if (find_bracket_match(reverse, bracket_set)) {
/* If we found an identical bracket, increment count. If we
* found a complementary bracket, decrement it. */
parse_mbchar(openfile->current->data + openfile->current_x,
found_ch, NULL);
count += (strncmp(found_ch, ch, ch_len) == 0) ? 1 : -1;
/* If count is zero, we've found a matching bracket. Update
* the screen and get out. */
if (count == 0) {
edit_redraw(current_save, pww_save);
break;
}
} else {
/* We didn't find either an opening or closing bracket.
* Indicate this, restore where we were, and get out. */
statusbar(_("No matching bracket"));
openfile->current = current_save;
openfile->current_x = current_x_save;
openfile->placewewant = pww_save;
break;
}
}
/* Clean up. */
free(bracket_set);
free(found_ch);
}
size_t IconvWrapper::SrcStrLen(const char* str) {
return mbstrlen(str, fromNulLen);
}
int print_string(int msgs, char** msg)
{
int i = 0,
j = 0,
len = 0,
maxlen = strmax(msgs, msg); /* get max length */
/*
* single line
*/
putchar(' ');
while (i <= maxlen) {
putchar('_');
i++;
}
if (msgs == 1) {
fprintf(stdout, "\n< %s >\n ", msg[0]);
while (maxlen >= 0) {
putchar('-');
maxlen--;
}
putchar('\n');
return 0;
}
/*
* multi line
*/
i = 0;
while (i < msgs) {
j = 0;
len = mbstrlen(msg[i]);
if (i == 0)
fprintf(stdout, "\n/ %s", msg[i]);
else if (i == (msgs -1))
fprintf(stdout, "\\ %s", msg[i]);
else
fprintf(stdout, "| %s", msg[i]);
while (j < (maxlen - len)) {
putchar(' ');
j++;
}
if (i == 0)
fprintf(stdout, " \\\n");
else if (i == (msgs - 1))
fprintf(stdout, " /\n ");
else
fprintf(stdout, " |\n");
i++;
}
while (maxlen >= 0) {
putchar('-');
maxlen--;
}
putchar('\n');
return 0;
}
/* Parse the rcfile, once it has been opened successfully at rcstream,
* and close it afterwards. If syntax_only is TRUE, only allow the file
* to contain color syntax commands: syntax, color, and icolor. */
void parse_rcfile(FILE *rcstream
#ifdef ENABLE_COLOR
, bool syntax_only
#endif
)
{
char *buf = NULL;
ssize_t len;
size_t n;
while ((len = getline(&buf, &n, rcstream)) > 0) {
char *ptr, *keyword, *option;
int set = 0;
size_t i;
/* Ignore the newline. */
if (buf[len - 1] == '\n')
buf[len - 1] = '\0';
lineno++;
ptr = buf;
while (isblank(*ptr))
ptr++;
/* If we have a blank line or a comment, skip to the next
* line. */
if (*ptr == '\0' || *ptr == '#')
continue;
/* Otherwise, skip to the next space. */
keyword = ptr;
ptr = parse_next_word(ptr);
/* Try to parse the keyword. */
if (strcasecmp(keyword, "set") == 0) {
#ifdef ENABLE_COLOR
if (syntax_only)
rcfile_error(
N_("Command \"%s\" not allowed in included file"),
keyword);
else
#endif
set = 1;
} else if (strcasecmp(keyword, "unset") == 0) {
#ifdef ENABLE_COLOR
if (syntax_only)
rcfile_error(
N_("Command \"%s\" not allowed in included file"),
keyword);
else
#endif
set = -1;
}
#ifdef ENABLE_COLOR
else if (strcasecmp(keyword, "include") == 0) {
if (syntax_only)
rcfile_error(
N_("Command \"%s\" not allowed in included file"),
keyword);
else
parse_include(ptr);
} else if (strcasecmp(keyword, "syntax") == 0) {
if (endsyntax != NULL && endcolor == NULL)
rcfile_error(N_("Syntax \"%s\" has no color commands"),
endsyntax->desc);
parse_syntax(ptr);
} else if (strcasecmp(keyword, "header") == 0)
parse_headers(ptr);
else if (strcasecmp(keyword, "color") == 0)
parse_colors(ptr, FALSE);
else if (strcasecmp(keyword, "icolor") == 0)
parse_colors(ptr, TRUE);
else if (strcasecmp(keyword, "bind") == 0)
parse_keybinding(ptr);
#endif /* ENABLE_COLOR */
else
rcfile_error(N_("Command \"%s\" not understood"), keyword);
if (set == 0)
continue;
if (*ptr == '\0') {
rcfile_error(N_("Missing flag"));
continue;
}
option = ptr;
ptr = parse_next_word(ptr);
for (i = 0; rcopts[i].name != NULL; i++) {
if (strcasecmp(option, rcopts[i].name) == 0) {
#ifdef DEBUG
fprintf(stderr, "parse_rcfile(): name = \"%s\"\n", rcopts[i].name);
#endif
if (set == 1) {
if (rcopts[i].flag != 0)
/* This option has a flag, so it doesn't take an
* argument. */
SET(rcopts[i].flag);
else {
/* This option doesn't have a flag, so it takes
* an argument. */
if (*ptr == '\0') {
rcfile_error(
N_("Option \"%s\" requires an argument"),
rcopts[i].name);
break;
}
option = ptr;
if (*option == '"')
option++;
ptr = parse_argument(ptr);
option = mallocstrcpy(NULL, option);
#ifdef DEBUG
fprintf(stderr, "option = \"%s\"\n", option);
#endif
/* Make sure option is a valid multibyte
* string. */
if (!is_valid_mbstring(option)) {
rcfile_error(
N_("Option is not a valid multibyte string"));
break;
}
#ifndef DISABLE_OPERATINGDIR
if (strcasecmp(rcopts[i].name, "operatingdir") == 0)
operating_dir = option;
else
#endif
#ifndef DISABLE_WRAPJUSTIFY
if (strcasecmp(rcopts[i].name, "fill") == 0) {
if (!parse_num(option, &wrap_at)) {
rcfile_error(
N_("Requested fill size \"%s\" is invalid"),
option);
wrap_at = -CHARS_FROM_EOL;
} else
free(option);
} else
#endif
#ifndef NANO_TINY
if (strcasecmp(rcopts[i].name,
"matchbrackets") == 0) {
matchbrackets = option;
if (has_blank_mbchars(matchbrackets)) {
rcfile_error(
N_("Non-blank characters required"));
free(matchbrackets);
matchbrackets = NULL;
}
} else if (strcasecmp(rcopts[i].name,
"whitespace") == 0) {
whitespace = option;
if (mbstrlen(whitespace) != 2 ||
strlenpt(whitespace) != 2) {
rcfile_error(
N_("Two single-column characters required"));
free(whitespace);
whitespace = NULL;
} else {
whitespace_len[0] =
parse_mbchar(whitespace, NULL,
NULL);
whitespace_len[1] =
parse_mbchar(whitespace +
whitespace_len[0], NULL, NULL);
}
} else
#endif
#ifndef DISABLE_JUSTIFY
if (strcasecmp(rcopts[i].name, "punct") == 0) {
punct = option;
if (has_blank_mbchars(punct)) {
rcfile_error(
N_("Non-blank characters required"));
free(punct);
punct = NULL;
}
} else if (strcasecmp(rcopts[i].name,
"brackets") == 0) {
brackets = option;
if (has_blank_mbchars(brackets)) {
rcfile_error(
N_("Non-blank characters required"));
free(brackets);
brackets = NULL;
}
} else if (strcasecmp(rcopts[i].name,
"quotestr") == 0)
quotestr = option;
else
#endif
#ifndef NANO_TINY
if (strcasecmp(rcopts[i].name,
"backupdir") == 0)
backup_dir = option;
else
#endif
#ifndef DISABLE_SPELLER
if (strcasecmp(rcopts[i].name, "speller") == 0)
alt_speller = option;
else
#endif
if (strcasecmp(rcopts[i].name,
"tabsize") == 0) {
if (!parse_num(option, &tabsize) ||
tabsize <= 0) {
rcfile_error(
N_("Requested tab size \"%s\" is invalid"),
option);
tabsize = -1;
} else
free(option);
} else
assert(FALSE);
}
#ifdef DEBUG
fprintf(stderr, "flag = %ld\n", rcopts[i].flag);
#endif
} else if (rcopts[i].flag != 0)
UNSET(rcopts[i].flag);
else
rcfile_error(N_("Cannot unset flag \"%s\""),
rcopts[i].name);
break;
}
}
if (rcopts[i].name == NULL)
rcfile_error(N_("Unknown flag \"%s\""), option);
}
#ifdef ENABLE_COLOR
if (endsyntax != NULL && endcolor == NULL)
rcfile_error(N_("Syntax \"%s\" has no color commands"),
endsyntax->desc);
#endif
free(buf);
fclose(rcstream);
lineno = 0;
check_vitals_mapped();
return;
}
DWORD
RegCopyValueAToW(
IN REG_DATA_TYPE dwType,
IN PVOID pData,
IN DWORD cbData,
OUT PVOID* ppOutData,
OUT PDWORD pcbOutDataLen
)
{
DWORD dwError = 0;
PVOID pOutData = NULL;
DWORD cbOutDataLen = 0;
BOOLEAN bIsStrType = FALSE;
if (dwType == REG_MULTI_SZ)
{
if (!pData)
{
pData = (PBYTE) "";
}
if (cbData == 0)
{
cbData = 1;
}
}
if (pData)
{
if (REG_MULTI_SZ == dwType)
{
dwError = RegConvertByteStreamA2W((PBYTE)pData,
cbData,
(PBYTE*)&pOutData,
&cbOutDataLen);
BAIL_ON_REG_ERROR(dwError);
bIsStrType = TRUE;
}
else if (REG_SZ == dwType)
{
/* Verify correct null termination of input data */
if (strlen((char *) pData) != (cbData-1))
{
dwError = ERROR_INVALID_PARAMETER;
BAIL_ON_REG_ERROR(dwError);
}
dwError = RegWC16StringAllocateFromCString((PWSTR*)&pOutData, pData);
BAIL_ON_REG_ERROR(dwError);
cbOutDataLen = (mbstrlen((const char*) pData)+1) * sizeof(WCHAR);
bIsStrType = TRUE;
}
}
if (!bIsStrType && cbData)
{
dwError = RegAllocateMemory(cbData, &pOutData);
BAIL_ON_REG_ERROR(dwError);
if (pData)
{
memcpy(pOutData, pData, cbData);
cbOutDataLen = cbData;
}
}
*ppOutData = pOutData;
*pcbOutDataLen = cbOutDataLen;
cleanup:
return dwError;
error:
LWREG_SAFE_FREE_MEMORY(pOutData);
*ppOutData = NULL;
*pcbOutDataLen = 0;
goto cleanup;
}
size_t IconvWrapper::DstStrLen(const char* str) {
return mbstrlen(str, toNulLen);
}