int is_invalid_line(char *line, t_map *map)
{
if (is_empty_line(line))
return (1);
/*if (is_comment(line) == 0)
{
printf("pas un comment ");
if (is_attribute(line, map) == 0)
{
printf("pas un attr ");
if (is_room(line) == 0)
{
printf("pas une room ");
if (is_link(line) == 0)
{
printf("pas un link ");
if (is_nbr_ant(line) == 0)
{
printf("pas le nb de fourmi\n");
return (1);
}
else
printf("c le nb fourmi\n");
}
printf("c un link ");
return (0);
}
printf("c une rooom ");
return (0);
}
printf("c un attr ");
return (0);
}
printf("c un comment ");
return (0);*/
return (!is_comment(line) && !is_attribute(line, map) && !is_room(line)
&& !is_link(line) && !is_nbr_ant(line));
}
const char *format_subject(struct strbuf *sb, const char *msg,
const char *line_separator)
{
int first = 1;
for (;;) {
const char *line = msg;
int linelen = get_one_line(line);
msg += linelen;
if (!linelen || is_empty_line(line, &linelen))
break;
if (!sb)
continue;
strbuf_grow(sb, linelen + 2);
if (!first)
strbuf_addstr(sb, line_separator);
strbuf_add(sb, line, linelen);
first = 0;
}
return msg;
}
static void
skipblanksb(void)
{
while (lback(DOT.l) != buf_head(curbp) && is_empty_line(DOT))
DOT.l = lback(DOT.l);
}
static void
skipblanksf(void)
{
while (lforw(DOT.l) != buf_head(curbp) && is_empty_line(DOT))
DOT.l = lforw(DOT.l);
}
void
POParser::parse()
{
next_line();
// skip UTF-8 intro that some text editors produce
// see http://en.wikipedia.org/wiki/Byte-order_mark
if (current_line.size() >= 3 &&
current_line[0] == static_cast<char>(0xef) &&
current_line[1] == static_cast<char>(0xbb) &&
current_line[2] == static_cast<char>(0xbf))
{
current_line = current_line.substr(3);
}
// Parser structure
while (!eof)
{
try
{
bool fuzzy = false;
bool has_msgctxt = false;
std::string msgctxt;
std::string msgid;
while (prefix("#"))
{
if (current_line.size() >= 2 && current_line[1] == ',')
{
// FIXME: Rather simplistic hunt for fuzzy flag
if (current_line.find("fuzzy", 2) != std::string::npos)
{
fuzzy = true;
}
}
next_line();
}
if (!is_empty_line())
{
if (prefix("msgctxt"))
{
has_msgctxt = true;
msgctxt = get_string(7);
}
if (prefix("msgid"))
{
msgid = get_string(5);
}
else
{
error("expected 'msgid'");
}
if (prefix("msgid_plural"))
{
std::string msgid_plural = get_string(12);
std::vector<std::string> msgstr_num;
bool saw_nonempty_msgstr = false;
next:
if (is_empty_line())
{
if (msgstr_num.empty())
{
error("expected 'msgstr[N] (0 <= N <= 9)'");
}
}
else if (prefix("msgstr[") &&
current_line.size() > 8 &&
isdigit(current_line[7]) && current_line[8] == ']')
{
unsigned int number = static_cast<unsigned int>(current_line[7] - '0');
std::string msgstr = get_string(9);
if (!msgstr.empty())
{
saw_nonempty_msgstr = true;
}
if (number >= msgstr_num.size())
{
msgstr_num.resize(number + 1);
}
msgstr_num[number] = conv.convert(msgstr);
goto next;
}
else
{
error("expected 'msgstr[N]'");
}
if (!is_empty_line())
{
error("expected 'msgstr[N]' or empty line");
}
if (saw_nonempty_msgstr)
{
if (use_fuzzy || !fuzzy)
{
if (!dict.get_plural_forms())
{
warning("msgstr[N] seen, but no Plural-Forms given");
}
else
{
if (msgstr_num.size() != dict.get_plural_forms().get_nplural())
{
warning("msgstr[N] count doesn't match Plural-Forms.nplural");
}
}
if (has_msgctxt)
{
dict.add_translation(msgctxt, msgid, msgid_plural, msgstr_num);
}
else
{
dict.add_translation(msgid, msgid_plural, msgstr_num);
}
}
if (0)
{
std::cout << (fuzzy ? "fuzzy" : "not-fuzzy") << std::endl;
std::cout << "msgid \"" << msgid << "\"" << std::endl;
std::cout << "msgid_plural \"" << msgid_plural << "\"" << std::endl;
for (std::vector<std::string>::size_type i = 0; i < msgstr_num.size(); ++i)
std::cout << "msgstr[" << i << "] \"" << conv.convert(msgstr_num[i]) << "\"" << std::endl;
std::cout << std::endl;
}
}
}
else if (prefix("msgstr"))
{
std::string msgstr = get_string(6);
if (msgid.empty())
{
parse_header(msgstr);
}
else if (!msgstr.empty())
{
if (use_fuzzy || !fuzzy)
{
if (has_msgctxt)
{
dict.add_translation(msgctxt, msgid, conv.convert(msgstr));
}
else
{
dict.add_translation(msgid, conv.convert(msgstr));
}
}
if (0)
{
std::cout << (fuzzy ? "fuzzy" : "not-fuzzy") << std::endl;
std::cout << "msgid \"" << msgid << "\"" << std::endl;
std::cout << "msgstr \"" << conv.convert(msgstr) << "\"" << std::endl;
std::cout << std::endl;
}
}
}
else
{
error("expected 'msgstr' or 'msgid_plural'");
}
}
if (!is_empty_line())
{
error("expected empty line");
}
next_line();
}
catch (POParserError&)
{
}
}
}
void parse_line(const char* line, size_t line_count, Operation* op)
{
if (op == NULL)
return;
size_t length = strlen(line);
if (length <= 0)
return;
if (line[0] == '#')
return;
if (is_empty_line(line, length))
return;
char* ac = NULL;
char* bc = NULL;
char* cc = NULL;
char* token = strtok((char*)line, " \n");
char* number_end = NULL;
uint8_t code_number = INVALID_OPERATION_CODE;
while (token != NULL)
{
if (strlen(token))
{
if (code_number == INVALID_OPERATION_CODE)
{
code_number = get_operation_code(token);
if (code_number == INVALID_OPERATION_CODE)
{
fprintf(stderr, "COMPILATION ERROR: Invalid operation '%s' found at line %zu\n", token, line_count);
exit(ERR_COMPILATION_FAILED);
}
}
else if (ac == NULL)
{
ac = token;
}
else if (bc == NULL)
{
bc = token;
}
else
{
cc = token;
}
}
token = strtok(NULL, " \n");
}
if (code_number < 13)
{
if (ac == NULL || bc == NULL || cc == NULL)
{
fprintf(stderr, "COMPILATION ERROR: Wrong number of arguments at line %zu\n", line_count);
exit(ERR_COMPILATION_FAILED);
}
uint8_t a = strtol(ac, &number_end, 10);
uint8_t b = strtol(bc, &number_end, 10);
uint8_t c = strtol(cc, &number_end, 10);
if (errno == ERANGE)
{
fprintf(stderr, "COMPILATION ERROR: One of the registers as a wrong value at line %zu\n", line_count);
exit(ERR_COMPILATION_FAILED);
}
if (a >= 8)
{
fprintf(stderr, "COMPILATION ERROR: Wrong register number for a '%d' at line %zu\n", a, line_count);
exit(ERR_COMPILATION_FAILED);
}
if (b >= 8)
{
fprintf(stderr, "COMPILATION ERROR: Wrong register number for b '%d' at line %zu\n", a, line_count);
exit(ERR_COMPILATION_FAILED);
}
if (c >= 8)
{
fprintf(stderr, "COMPILATION ERROR: Wrong register number for c '%d' at line %zu\n", a, line_count);
exit(ERR_COMPILATION_FAILED);
}
op->standard.number = code_number;
op->standard.a = a;
op->standard.b = b;
op->standard.c = c;
}
else
{
if (ac == NULL || bc == NULL)
{
fprintf(stderr, "COMPILATION ERROR: Wrong number of arguments at line %zu\n", line_count);
exit(ERR_COMPILATION_FAILED);
}
uint8_t a = strtol(ac, &number_end, 10);
uint32_t value = strtol(bc, &number_end, 10);
if (errno == ERANGE)
{
fprintf(stderr, "COMPILATION ERROR: The register or value has a wrong value at line %zu\n", line_count);
exit(ERR_COMPILATION_FAILED);
}
if (a >= 8)
{
fprintf(stderr, "COMPILATION ERROR: Wrong register number for a '%d' at line %zu\n", a, line_count);
exit(ERR_COMPILATION_FAILED);
}
if (value >= 33554432) // 25 bits
{
fprintf(stderr, "COMPILATION ERROR: Out of range value '%d' at line %zu\n", value, line_count);
exit(ERR_COMPILATION_FAILED);
}
op->put.number = code_number;
op->put.a = a;
op->put.value = value;
}
}
unsigned long pretty_print_commit(enum cmit_fmt fmt, const char *msg, unsigned long len, char *buf, unsigned long space)
{
int hdr = 1, body = 0;
unsigned long offset = 0;
int parents = 0;
int indent = (fmt == CMIT_FMT_ONELINE) ? 0 : 4;
for (;;) {
const char *line = msg;
int linelen = get_one_line(msg, len);
if (!linelen)
break;
/*
* We want some slop for indentation and a possible
* final "...". Thus the "+ 20".
*/
if (offset + linelen + 20 > space) {
memcpy(buf + offset, " ...\n", 8);
offset += 8;
break;
}
msg += linelen;
len -= linelen;
if (hdr) {
if (linelen == 1) {
hdr = 0;
if (fmt != CMIT_FMT_ONELINE)
buf[offset++] = '\n';
continue;
}
if (fmt == CMIT_FMT_RAW) {
memcpy(buf + offset, line, linelen);
offset += linelen;
continue;
}
if (!memcmp(line, "parent ", 7)) {
if (linelen != 48)
die("bad parent line in commit");
offset += add_parent_info(fmt, buf + offset, line, ++parents);
}
/*
* MEDIUM == DEFAULT shows only author with dates.
* FULL shows both authors but not dates.
* FULLER shows both authors and dates.
*/
if (!memcmp(line, "author ", 7))
offset += add_user_info("Author", fmt,
buf + offset,
line + 7);
if (!memcmp(line, "committer ", 10) &&
(fmt == CMIT_FMT_FULL || fmt == CMIT_FMT_FULLER))
offset += add_user_info("Commit", fmt,
buf + offset,
line + 10);
continue;
}
if (is_empty_line(line, linelen)) {
if (!body)
continue;
if (fmt == CMIT_FMT_SHORT)
break;
} else {
body = 1;
}
memset(buf + offset, ' ', indent);
memcpy(buf + offset + indent, line, linelen);
offset += linelen + indent;
if (fmt == CMIT_FMT_ONELINE)
break;
}
if (fmt == CMIT_FMT_ONELINE) {
/* We do not want the terminating newline */
if (buf[offset - 1] == '\n')
offset--;
}
else {
/* Make sure there is an EOLN */
if (buf[offset - 1] != '\n')
buf[offset++] = '\n';
}
buf[offset] = '\0';
return offset;
}
static int grep_source_1(struct grep_opt *opt, struct grep_source *gs, int collect_hits)
{
char *bol;
char *peek_bol = NULL;
unsigned long left;
unsigned lno = 1;
unsigned last_hit = 0;
int binary_match_only = 0;
unsigned count = 0;
int try_lookahead = 0;
int show_function = 0;
struct userdiff_driver *textconv = NULL;
enum grep_context ctx = GREP_CONTEXT_HEAD;
xdemitconf_t xecfg;
if (!opt->output)
opt->output = std_output;
if (opt->pre_context || opt->post_context || opt->file_break ||
opt->funcbody) {
/* Show hunk marks, except for the first file. */
if (opt->last_shown)
opt->show_hunk_mark = 1;
/*
* If we're using threads then we can't easily identify
* the first file. Always put hunk marks in that case
* and skip the very first one later in work_done().
*/
if (opt->output != std_output)
opt->show_hunk_mark = 1;
}
opt->last_shown = 0;
if (opt->allow_textconv) {
grep_source_load_driver(gs);
/*
* We might set up the shared textconv cache data here, which
* is not thread-safe.
*/
grep_attr_lock();
textconv = userdiff_get_textconv(gs->driver);
grep_attr_unlock();
}
/*
* We know the result of a textconv is text, so we only have to care
* about binary handling if we are not using it.
*/
if (!textconv) {
switch (opt->binary) {
case GREP_BINARY_DEFAULT:
if (grep_source_is_binary(gs))
binary_match_only = 1;
break;
case GREP_BINARY_NOMATCH:
if (grep_source_is_binary(gs))
return 0; /* Assume unmatch */
break;
case GREP_BINARY_TEXT:
break;
default:
die("BUG: unknown binary handling mode");
}
}
memset(&xecfg, 0, sizeof(xecfg));
opt->priv = &xecfg;
try_lookahead = should_lookahead(opt);
if (fill_textconv_grep(textconv, gs) < 0)
return 0;
bol = gs->buf;
left = gs->size;
while (left) {
char *eol, ch;
int hit;
/*
* look_ahead() skips quickly to the line that possibly
* has the next hit; don't call it if we need to do
* something more than just skipping the current line
* in response to an unmatch for the current line. E.g.
* inside a post-context window, we will show the current
* line as a context around the previous hit when it
* doesn't hit.
*/
if (try_lookahead
&& !(last_hit
&& (show_function ||
lno <= last_hit + opt->post_context))
&& look_ahead(opt, &left, &lno, &bol))
break;
eol = end_of_line(bol, &left);
ch = *eol;
*eol = 0;
if ((ctx == GREP_CONTEXT_HEAD) && (eol == bol))
ctx = GREP_CONTEXT_BODY;
hit = match_line(opt, bol, eol, ctx, collect_hits);
*eol = ch;
if (collect_hits)
goto next_line;
/* "grep -v -e foo -e bla" should list lines
* that do not have either, so inversion should
* be done outside.
*/
if (opt->invert)
hit = !hit;
if (opt->unmatch_name_only) {
if (hit)
return 0;
goto next_line;
}
if (hit) {
count++;
if (opt->status_only)
return 1;
if (opt->name_only) {
show_name(opt, gs->name);
return 1;
}
if (opt->count)
goto next_line;
if (binary_match_only) {
opt->output(opt, "Binary file ", 12);
output_color(opt, gs->name, strlen(gs->name),
opt->color_filename);
opt->output(opt, " matches\n", 9);
return 1;
}
/* Hit at this line. If we haven't shown the
* pre-context lines, we would need to show them.
*/
if (opt->pre_context || opt->funcbody)
show_pre_context(opt, gs, bol, eol, lno);
else if (opt->funcname)
show_funcname_line(opt, gs, bol, lno);
show_line(opt, bol, eol, gs->name, lno, ':');
last_hit = lno;
if (opt->funcbody)
show_function = 1;
goto next_line;
}
if (show_function && (!peek_bol || peek_bol < bol)) {
unsigned long peek_left = left;
char *peek_eol = eol;
/*
* Trailing empty lines are not interesting.
* Peek past them to see if they belong to the
* body of the current function.
*/
peek_bol = bol;
while (is_empty_line(peek_bol, peek_eol)) {
peek_bol = peek_eol + 1;
peek_eol = end_of_line(peek_bol, &peek_left);
}
if (match_funcname(opt, gs, peek_bol, peek_eol))
show_function = 0;
}
if (show_function ||
(last_hit && lno <= last_hit + opt->post_context)) {
/* If the last hit is within the post context,
* we need to show this line.
*/
show_line(opt, bol, eol, gs->name, lno, '-');
}
next_line:
bol = eol + 1;
if (!left)
break;
left--;
lno++;
}
if (collect_hits)
return 0;
if (opt->status_only)
return 0;
if (opt->unmatch_name_only) {
/* We did not see any hit, so we want to show this */
show_name(opt, gs->name);
return 1;
}
xdiff_clear_find_func(&xecfg);
opt->priv = NULL;
/* NEEDSWORK:
* The real "grep -c foo *.c" gives many "bar.c:0" lines,
* which feels mostly useless but sometimes useful. Maybe
* make it another option? For now suppress them.
*/
if (opt->count && count) {
char buf[32];
if (opt->pathname) {
output_color(opt, gs->name, strlen(gs->name),
opt->color_filename);
output_sep(opt, ':');
}
xsnprintf(buf, sizeof(buf), "%u\n", count);
opt->output(opt, buf, strlen(buf));
return 1;
}
return !!last_hit;
}
static void
parse_line(GSList **cookies_p,
const char *line,
const char *end,
const char *domain_filter,
int port_filter,
const char *name_filter,
HippoBrowserKind browser)
{
const char *p;
const char *start;
int field;
Field fields[N_FIELDS];
// see if it's an empty or comment line
if (is_empty_line(line, end))
return;
for (field = 0; field < N_FIELDS; ++field) {
fields[field].which = field;
fields[field].text = NULL;
}
start = line;
field = 0;
for (p = line; p <= end; ++p) {
g_assert(p >= start);
if (*p == '\t' || p == end) {
if (field >= N_FIELDS) {
// too many fields on this line, give up
goto out;
}
fields[field].text = g_strndup(start, p - start);
start = p + 1;
++field;
}
}
/* ATTR_VALUE is optional, the other fields are not */
for (field = 0; field < N_FIELDS; ++field) {
if (field != ATTR_VALUE && fields[field].text == NULL)
goto out;
}
{
char *domain;
int port;
gboolean all_hosts_match;
gboolean secure_connection_required;
GTime timestamp;
if (!parse_bool(fields[DOMAIN_FLAG].text, &all_hosts_match))
goto out;
if (!parse_bool(fields[SECURE_FLAG].text, &secure_connection_required))
goto out;
if (!parse_time(fields[TIMESTAMP].text, ×tamp))
goto out;
if (!parse_domain(fields[DOMAIN].text, &domain, &port))
goto out;
if ((domain_filter == NULL || strcmp(domain_filter, domain) == 0) &&
(port_filter < 0 || port_filter == port) &&
(name_filter == NULL || strcmp(name_filter, fields[ATTR_NAME].text) == 0)) {
HippoCookie *cookie;
cookie = hippo_cookie_new(browser,
domain, port, all_hosts_match,
fields[PATH].text,
secure_connection_required, timestamp,
fields[ATTR_NAME].text,
fields[ATTR_VALUE].text);
*cookies_p = g_slist_prepend(*cookies_p, cookie);
}
g_free(domain);
}
out:
for (field = 0; field < N_FIELDS; ++field) {
g_free(fields[field].text);
}
}
void pretty_print_commit(enum cmit_fmt fmt, const struct commit *commit,
struct strbuf *sb, int abbrev,
const char *subject, const char *after_subject,
enum date_mode dmode, int need_8bit_cte)
{
unsigned long beginning_of_body;
int indent = 4;
const char *msg = commit->buffer;
char *reencoded;
const char *encoding;
if (fmt == CMIT_FMT_USERFORMAT) {
format_commit_message(commit, user_format, sb);
return;
}
encoding = (git_log_output_encoding
? git_log_output_encoding
: git_commit_encoding);
if (!encoding)
encoding = "utf-8";
reencoded = logmsg_reencode(commit, encoding);
if (reencoded) {
msg = reencoded;
}
if (fmt == CMIT_FMT_ONELINE || fmt == CMIT_FMT_EMAIL)
indent = 0;
/*
* We need to check and emit Content-type: to mark it
* as 8-bit if we haven't done so.
*/
if (fmt == CMIT_FMT_EMAIL && need_8bit_cte == 0) {
int i, ch, in_body;
for (in_body = i = 0; (ch = msg[i]); i++) {
if (!in_body) {
/* author could be non 7-bit ASCII but
* the log may be so; skip over the
* header part first.
*/
if (ch == '\n' && msg[i+1] == '\n')
in_body = 1;
}
else if (non_ascii(ch)) {
need_8bit_cte = 1;
break;
}
}
}
pp_header(fmt, abbrev, dmode, encoding, commit, &msg, sb);
if (fmt != CMIT_FMT_ONELINE && !subject) {
strbuf_addch(sb, '\n');
}
/* Skip excess blank lines at the beginning of body, if any... */
for (;;) {
int linelen = get_one_line(msg);
int ll = linelen;
if (!linelen)
break;
if (!is_empty_line(msg, &ll))
break;
msg += linelen;
}
/* These formats treat the title line specially. */
if (fmt == CMIT_FMT_ONELINE || fmt == CMIT_FMT_EMAIL)
pp_title_line(fmt, &msg, sb, subject,
after_subject, encoding, need_8bit_cte);
beginning_of_body = sb->len;
if (fmt != CMIT_FMT_ONELINE)
pp_remainder(fmt, &msg, sb, indent);
strbuf_rtrim(sb);
/* Make sure there is an EOLN for the non-oneline case */
if (fmt != CMIT_FMT_ONELINE)
strbuf_addch(sb, '\n');
/*
* The caller may append additional body text in e-mail
* format. Make sure we did not strip the blank line
* between the header and the body.
*/
if (fmt == CMIT_FMT_EMAIL && sb->len <= beginning_of_body)
strbuf_addch(sb, '\n');
free(reencoded);
}
QStringList tabtoh::parse_and_convert_instr(QStringList &instr_desc){
QString instr_name;
QString instr_name_stripped;
QString instr_name_quoted;
QString mem_type_str;
QString tempr_domain_str;
QString volt_domain_str;
QString freq_domain_str;
QString num_of_operands;
QStringList converted_instr;
QStringList init_names;
QStringList init_values;
QString mem_sz_str;
QString tempr_sz_str;
QString volt_sz_str;
QString freq_sz_str;
QString num_of_ops_sz;
instr_name = instr_desc.at(0).section("\t", 1, 1);
instr_name_quoted = instr_name;
instr_name_quoted.prepend("\"");
instr_name_quoted.append("\"");
instr_name_stripped = convert_dot_to_slash(instr_name);
detect_domain_sizes(instr_desc, mem_sz_str, tempr_sz_str, volt_sz_str, freq_sz_str, num_of_ops_sz);
insert_struct("const instruction_t", instr_name_stripped.toLatin1().data(), 0, converted_instr);
insert_struct_field("instr_mnemonic", instr_name_quoted.toLatin1().data(), 1, converted_instr);
insert_struct_field("num_of_mem_domains", mem_sz_str.toLatin1().data(), 1, converted_instr);
insert_struct_field("num_of_tempr_domains", tempr_sz_str.toLatin1().data(), 1, converted_instr);
insert_struct_field("num_of_volt_domains", volt_sz_str.toLatin1().data(), 1, converted_instr);
insert_struct_field("num_of_freq_domains", freq_sz_str.toLatin1().data(), 1, converted_instr);
insert_struct_field("num_of_operand_domains", num_of_ops_sz.toLatin1().data(), 1, converted_instr);
insert_struct_struct_field("domains", 1, converted_instr);
for(int i = 2; i < instr_desc.size(); i++){
if(is_empty_line(instr_desc.at(i))){
break;
}
mem_type_str = instr_desc.at(i).section('\t', 0, 0);
tempr_domain_str = instr_desc.at(i).section('\t', 1, 1);
volt_domain_str = instr_desc.at(i).section('\t', 2, 2);
freq_domain_str = instr_desc.at(i).section('\t', 3, 3);
num_of_operands = instr_desc.at(i).section('\t', 4, 4);
init_names << "mem_addr";
init_values << "0";
init_names << "mem_type";
init_values << mem_type_str;
init_names << "tempr_domain";
init_values << tempr_domain_str;
init_names << "volt_domain";
init_values << volt_domain_str;
init_names << "freq_domain";
init_values << freq_domain_str;
init_names << "num_of_operands";
init_values << num_of_operands;
{
QString energy_time, energy_current;
energy_time = instr_desc.at(i).section('\t', 5, 5);
init_names << "consumed_time";
init_values << energy_time.section(',', 0, 0);
init_names << "consumed_current";
init_values << energy_time.section(',', 1, 1);
}
insert_struct_initializers(init_names, init_values, 2, converted_instr);
init_names.clear();
init_values.clear();
}
converted_instr << "\t}\r\n";
converted_instr << "};\r\n\r\n";
return converted_instr;
}
