/**
* @brief get i_node from filepath
* @param inono inode no (out parameter)
* @param hnd_fsmdl
* @param s_path filepath
* @return i_node
*/
struct one_inode* te2fm_namei(int* inono, SuperFS* hnd_fsmdl,
char* s_path) {
char* s_cur_path;
char s_path_buf[TFL_MAX_PATHSTR+1];
Block* blkcell;
struct ext2_dir_entry* p_dirent;
struct one_inode* p_inode;
int idx_slash;
char name[16];
unsigned int dir_blkno;
strcpy(s_path_buf, s_path);
s_cur_path = s_path_buf;
if (!strcmp(s_cur_path, "/")) { // ルートディレクトリであったら
*inono = 2;
return hnd_fsmdl->root_inode;
}
s_cur_path++; // 最初のスラッシュは除く
//TODO search all block. only block[0] searching at the moment.
dir_blkno = hnd_fsmdl->root_inode->i_block[0];
idx_slash = stridx(s_cur_path, '/');
while(idx_slash >= 0) {
strncpy(name, s_cur_path, idx_slash);
name[idx_slash] = 0;
s_cur_path += idx_slash + 1;
blkcell = tblbm_get_blkcell(dir_blkno);
p_dirent = te2fs_lookup_dirent(name, blkcell->blk, hnd_fsmdl->hnd_fs.sz_block);
if (!p_dirent)
return 0;
p_inode = tflm_get_inode_by_dirent(p_dirent);
dir_blkno = p_inode->i_block[0];
// stridx is not standard library.
// stridx must be implemented in mystring.h.
idx_slash = stridx(s_cur_path, '/');
}
blkcell = tblbm_get_blkcell(dir_blkno);
p_dirent = te2fs_lookup_dirent(s_cur_path, blkcell->blk, hnd_fsmdl->hnd_fs.sz_block); // Something Wrong Here!
return 0;
// if (!p_dirent)
// return 0;
// *inono = p_dirent->inode;
//
// p_inode = tflm_get_inode_by_dirent(p_dirent);
//
// return p_inode;
}
static int _shalg_priv_crypt(int alg, shalg_t ret_key, unsigned char *data, size_t data_len)
{
unsigned char raw[128];
unsigned char hash[128];
char cr_salt[64];
size_t len;
int idx;
int of;
int i;
memset(ret_key, 0, sizeof(ret_key));
memset(cr_salt, 0, sizeof(cr_salt));
if (alg == SHALG_CRYPT256) {
if (data_len > 4 && 0 == strncmp(data, "$5$", 3)) {
idx = stridx(data + 3, '$');
if (idx != -1)
strncpy(cr_salt, data + 3, idx);
else
strncpy(cr_salt, data + 3, sizeof(cr_salt)-1);
}
} else if (alg == SHALG_CRYPT512) {
if (data_len > 4 && 0 == strncmp(data, "$6$", 3)) {
char cr_salt[32];
memset(cr_salt, 0, sizeof(cr_salt));
idx = stridx(data + 3, '$');
if (idx != -1)
strncpy(cr_salt, data + 3, idx);
else
strncpy(cr_salt, data + 3, sizeof(cr_salt)-1);
}
} else {
return (SHERR_OPNOTSUPP);
}
if (!*cr_salt) {
memset(raw, 0, sizeof(raw));
sh_sha224(data, data_len, hash);
for (i = 0; i < 28; i++) {
of = (i/3);
raw[of] = raw[of] ^ hash[i];
}
shcrypt_b64_encode(cr_salt, raw, 9);
}
len = ((strlen(cr_salt) / 4) + 1) * 4;
memcpy((char *)ret_key, cr_salt, len);
shalg_size(ret_key) = len;
return (0);
}
main ()
{
t_text cmds; /* Unix shell commands file */
t_text fof; /* file of file names file */
FILE *fopen (); /* file open function */
int index;
char name [ MAX_LINE ]; /* list file name */
char name2 [ MAX_LINE ]; /* file name suffix */
printf ( "This is the Script program.\n\n" );
/* Prompt for the input file name. */
prompt_file ( &fof, "What is the name of the list of file names?" );
strcpy ( cmds.name, "cmds" );
cmds.data = fopen ( "cmds", "w" );
/* Process the names. */
while ( fof.eof != TRUE )
{
strcpy ( name, fof.line );
name [ stridx ( name, "\n" ) ] = '\0';
if ( ( fof.eof != TRUE ) && ( cmds.data != NULL ) )
fprintf ( cmds.data, "rm '%s'\n", name );
/* Get the next name. */
get_line ( &fof );
} /* while */
fclose ( cmds.data );
fclose ( fof.data );
} /* main */
int strridx(const string s1,const string s2) {
int pos;
string r1;
string r2;
int l1;
int l2;
if(s1==NULL) return -1;
if(s2==NULL) return -1;
l1=strlen(s1);
l2=strlen(s2);
if(l1<l2) return -1;
if(l1==l2) {
if(strcmp(s1,s2)==0) return 0;
return -1;
}
r1=strrev(strdup(s1));
r2=strrev(strdup(s2));
pos=stridx(r1,r2);
free(r1);
free(r2);
if(pos==-1) {
return -1;
}
else {
return (l1 - l2 - pos);
}
}
void reboot_main(void)
{
int types[] = {RB_AUTOBOOT, RB_HALT_SYSTEM, RB_POWER_OFF},
sigs[] = {SIGTERM, SIGUSR1, SIGUSR2}, idx;
if (!(toys.optflags & FLAG_n)) sync();
idx = stridx("hp", *toys.which->name)+1;
if (toys.optflags & FLAG_f) toys.exitval = reboot(types[idx]);
else toys.exitval = kill(1, sigs[idx]);
}
main ()
{
t_text fof; /* file of filenames */
t_text in; /* input DNA sequence file */
t_text repeat; /* repeat list for FATAL: errors */
t_text results; /* Summary of Blast results */
t_text trace; /* trace report */
FILE *fopen (); /* file open function */
printf ( "This is the Blast e-mail response output parsing program.\n\n" );
/* Open the commands file. */
results.data = fopen ( "results", "w" );
/* Open the repeat list for FATAL: errors. */
repeat.data = fopen ( "repeat", "w" );
/* Open debug trace file. */
trace.data = fopen ( "trace", "w" );
/* Prompt for the input file name. */
prompt_file ( &fof, "What is the list of sequences file name?" );
/* Process the sequences. */
while ( fof.eof != TRUE )
{
/* Open the sequence output file. */
strcpy ( in.name, fof.line );
in.name [ stridx ( in.name, "\n" ) ] = '\0';
/* Open the DNA sequence file for reading. */
open_text_file ( &in );
/* Process the BLAST results file. */
if ( fof.eof != TRUE )
process_blast ( &in, &results, &repeat, &trace );
/* Get the next file name. */
get_line ( &fof );
/* Close the BLAST results file. */
fclose ( in.data );
} /* while */
/* Close the commands file. */
fclose ( fof.data );
fclose ( results.data );
fclose ( repeat.data );
fclose ( trace.data );
printf ( "\nEnd of program.\n" );
} /* main */
/*
* match_parm() does parsing for ide_setup():
*
* 1. the first char of s must be '='.
* 2. if the remainder matches one of the supplied keywords,
* the index (1 based) of the keyword is negated and returned.
* 3. if the remainder is a series of no more than max_vals numbers
* separated by commas, the numbers are saved in vals[] and a
* count of how many were saved is returned. Base10 is assumed,
* and base16 is allowed when prefixed with "0x".
* 4. otherwise, zero is returned.
*/
static int __init match_parm (char *s, const char *keywords[], int vals[], int max_vals)
{
static const char *decimal = "0123456789";
static const char *hex = "0123456789abcdef";
int i, n;
if (*s++ == '=') {
/*
* Try matching against the supplied keywords,
* and return -(index+1) if we match one
*/
if (keywords != NULL) {
for (i = 0; *keywords != NULL; ++i) {
if (!strcmp(s, *keywords++))
return -(i+1);
}
}
/*
* Look for a series of no more than "max_vals"
* numeric values separated by commas, in base10,
* or base16 when prefixed with "0x".
* Return a count of how many were found.
*/
for (n = 0; (i = stridx(decimal, *s)) >= 0;) {
vals[n] = i;
while ((i = stridx(decimal, *++s)) >= 0)
vals[n] = (vals[n] * 10) + i;
if (*s == 'x' && !vals[n]) {
while ((i = stridx(hex, *++s)) >= 0)
vals[n] = (vals[n] * 0x10) + i;
}
if (++n == max_vals)
break;
if (*s == ',' || *s == ';')
++s;
}
if (!*s)
return n;
}
return 0; /* zero = nothing matched */
}
void test_stridx()
{
clear_all();
//non-empty char
char l='g';
a[0]='1';
a[1]='g';
a[2]='g';
int idx=stridx(l,a);
assert(idx==1);
//accepted
}
static _shalg_ver_crypt(int alg, shalg_t pub_key, shalg_t sig_key, unsigned char *data, size_t data_len)
{
unsigned char hash[128];
char hash_str[256];
char cr_salt[256];
shalg_t cmp_sig;
size_t sig_len;
char *cr_key;
char *sig;
int err;
int of;
if (strlen(data) == data_len) {
/* presume ascii */
cr_key = (char *)data;
} else {
/* presume binary */
memset(hash, 0, sizeof(hash));
sh_sha512(data, data_len, hash);
memset(hash_str, 0, sizeof(hash_str));
shcrypt_b64_encode(hash_str, hash, 64);
cr_key = hash_str;
}
sig = NULL;
memset(cr_salt, 0, sizeof(cr_salt));
shcrypt_b64_encode(cr_salt, pub_key, shalg_size(pub_key));
if (alg == SHALG_CRYPT256) {
sig = shcrypt_sha256(cr_key, cr_salt);
} else if (alg == SHALG_CRYPT512) {
sig = shcrypt_sha512(cr_key, cr_salt);
}
if (!sig || strlen(sig) < 3)
return (SHERR_INVAL);
of = stridx(sig + 3, '$');
if (of == -1)
return (SHERR_INVAL);
of += 4;
memset(cmp_sig, 0, sizeof(cmp_sig));
shcrypt_b64_decode(sig + of, (unsigned char *)cmp_sig, &sig_len);
shalg_size(cmp_sig) = sig_len;
if (sig_len != shalg_size(sig_key))
return (SHERR_ACCESS);
if (0 != memcmp(sig_key, cmp_sig, sig_len))
return (SHERR_ACCESS);
return (0);
}
int main(int argc,char** argv) {
if(argc<4) return 1;
printf("stridx(%s,%s)=%d\n",argv[1],argv[2],stridx(argv[1],argv[2]));
printf("strridx(%s,%s)=%d\n",argv[1],argv[2],strridx(argv[1],argv[2]));
printf("dstrrpl(%s, %s , %s) = %s\n",
argv[1],argv[2],argv[3],
dstrrpl(argv[1],argv[2],argv[3])
);
return 0;
}
string dstrrpl(const string str,const string txt,const string cs3) {
int l_str,l_txt,l_rpl;
string result;
int match;
int* apos;
int i,o1,o2;
string rpl = cs3;
if(str==NULL) return str;
if(txt==NULL) return str;
if(rpl==NULL) rpl="";
if(strcmp(txt,rpl)==0) return str;
l_str = strlen(str);
l_txt = strlen(txt);
match = l_str / l_txt;
if(match < 1) return str;
apos = (int*)(malloc(sizeof(int)*match + 1));
apos[0] = -l_txt;
match = 0;
o2 = 0;
while((i = stridx(str + o2,txt)) > -1) {
apos[++match] = i;
o2 += apos[match] + l_txt;
}
if(match==0) return str;
l_rpl = strlen(rpl);
result = (char*)(malloc(sizeof(char)*(l_str - (l_txt - l_rpl)*match +1)));
apos[0] = -l_txt;
o1=0;
o2=0;
for(i=1;i<=match;i++) {
memcpy(result+o1,str+o2,apos[i]);
o1 = o1 + apos[i];
o2 = o2 + apos[i];
memcpy(result+o1,rpl,l_rpl);
o1 = o1 + l_rpl;
o2 = o2 + l_txt;
}
memcpy(result + o1,str+o2,l_str - o2 + 1);
result[o1 + l_str - o2 + 1]=0;
return result;
}
static int _shalg_sign_crypt(int alg, shalg_t priv_key, shalg_t ret_sig, unsigned char *data, size_t data_len)
{
unsigned char hash[128];
char hash_str[256];
char *cr_salt;
char *cr_key;
char *sig;
size_t sig_len;
int err;
int of;
if (strlen(data) == data_len) {
/* presume ascii */
cr_key = (char *)data;
} else {
/* presume binary */
memset(hash, 0, sizeof(hash));
sh_sha512(data, data_len, hash);
memset(hash_str, 0, sizeof(hash_str));
shcrypt_b64_encode(hash_str, hash, 64);
cr_key = hash_str;
}
sig = NULL;
cr_salt = (char *)priv_key;
if (alg == SHALG_CRYPT256) {
sig = shcrypt_sha256(cr_key, cr_salt);
} else if (alg == SHALG_CRYPT512) {
sig = shcrypt_sha512(cr_key, cr_salt);
}
if (!sig || strlen(sig) < 3)
return (SHERR_INVAL);
of = stridx(sig + 3, '$');
if (of == -1)
return (SHERR_INVAL);
of += 4;
shcrypt_b64_decode(sig + of, (unsigned char *)ret_sig, &sig_len);
shalg_size(ret_sig) = sig_len;
return (0);
}
main ()
{
t_text cmds; /* Unix shell commands file */
t_text fof; /* file of file names file */
FILE *fopen (); /* file open function */
int index;
char name [ MAX_LINE ]; /* list file name */
char name2 [ MAX_LINE ]; /* file name suffix */
printf ( "This is the GENSCAN mail Script program.\n\n" );
/* Prompt for the input file name. */
prompt_file ( &fof, "What is the name of the list of file names?" );
strcpy ( cmds.name, "cmds" );
cmds.data = fopen ( "cmds", "w" );
/* Process the names. */
while ( fof.eof != TRUE )
{
strcpy ( name, fof.line );
name [ stridx ( name, "\n" ) ] = '\0';
if ( ( fof.eof != TRUE ) && ( cmds.data != NULL ) )
{
fprintf ( cmds.data, "mail [email protected] < %s\n", name );
fprintf ( cmds.data, "echo Sending %s\n", name );
fprintf ( cmds.data, "sleep 300\n" );
fprintf ( cmds.data, "\n" );
} /* if */
/* Get the next name. */
get_line ( &fof );
} /* while */
fclose ( cmds.data );
} /* main */
void inotifyd_main(void)
{
struct pollfd fds;
char *prog_args[5], **ss = toys.optargs;
char *masklist ="acew0rmyndDM uox";
fds.events = POLLIN;
*prog_args = *toys.optargs;
prog_args[4] = 0;
if ((fds.fd = inotify_init()) == -1) perror_exit(0);
// Track number of watched files. First one was program to run.
toys.optc--;
while (*++ss) {
char *path = *ss, *masks = strchr(*ss, ':');
int i, mask = 0;
if (!masks) mask = 0xfff; // default to all
else{
*masks++ = 0;
for (*masks++ = 0; *masks; masks++) {
i = stridx(masklist, *masks);;
if (i == -1) error_exit("bad mask '%c'", *masks);
mask |= 1<<i;
}
}
// This returns increasing numbers starting from 1, which coincidentally
// is the toys.optargs position of the file. (0 is program to run.)
if (inotify_add_watch(fds.fd, path, mask) < 0) perror_exit_raw(path);
}
for (;;) {
int ret = 0, len;
void *buf = 0;
struct inotify_event *event;
// Read next event(s)
ret = poll(&fds, 1, -1);
if (ret < 0 && errno == EINTR) continue;
if (ret <= 0) break;
xioctl(fds.fd, FIONREAD, &len);
event = buf = xmalloc(len);
len = readall(fds.fd, buf, len);
// Loop through set of events.
for (;;) {
int left = len - (((char *)event)-(char *)buf),
size = sizeof(struct inotify_event);
// Don't dereference event if ->len is off end of bufer
if (left >= size) size += event->len;
if (left < size) break;
if (event->mask) {
char *s = toybuf, *m;
for (m = masklist; *m; m++)
if (event->mask & (1<<(m-masklist))) *s++ = *m;
*s = 0;
if (**prog_args == '-' && !prog_args[0][1]) {
xprintf("%s\t%s\t%s\n" + 3*!event->len, toybuf,
toys.optargs[event->wd], event->name);
} else {
prog_args[1] = toybuf;
prog_args[2] = toys.optargs[event->wd];
prog_args[3] = event->len ? event->name : 0;
xrun(prog_args);
}
if (event->mask & IN_IGNORED) {
if (--toys.optc <= 0) {
free(buf);
goto done;
}
inotify_rm_watch(fds.fd, event->wd);
}
}
event = (void*)(size + (char*)event);
}
free(buf);
}
done:
toys.exitval = !!toys.signal;
}
main ()
{
long end; /* end of DNA sequence segment */
t_text in; /* input DNA sequence file */
long index; /* line index */
t_text trapped; /* trapped exons sequence file */
t_seq seq; /* DNA sequence */
t_text sequence; /* trapped exon sequence */
long start; /* start of DNA sequence segment */
int version; /* DNA segment number */
char version_str [ MAX_LINE ]; /* ascii version number */
FILE *fopen (); /* file open function */
printf ( "This is the Sequence files --> DNA sequence program.\n\n" );
/* Prompt for the input file name. */
prompt_file ( &trapped, "What is the list of sequences file name?" );
/* Process the sequences. */
while ( trapped.eof != TRUE )
{
/* Open the sequence output file. */
strcpy ( in.name, trapped.line );
in.name [ stridx ( in.name, "\n" ) ] = '\0';
/* Open the DNA sequence file for reading. */
open_text_file ( &in );
/* Read in the DNA sequence. */
read_DNA_seq ( &in, &seq );
fclose ( in.data );
/* printf ( "DNA length = %d\n", seq.total ); */
version = 0;
start = 0;
end = 999;
trapped.line [ stridx ( trapped.line, "\n" ) ] = '\0';
/* Segment the DNA sequence in blocks of 1000 bp. */
while ( start + MIN_SEQ < seq.total )
{
/* Truncate source name at first period. */
strcpy ( sequence.name, trapped.line );
sequence.name [ stridx ( sequence.name, "." ) ] = '\0';
strcat ( sequence.name, "." );
itoa ( version, version_str );
strcat ( sequence.name, version_str );
sequence.data = fopen ( sequence.name, "w" );
if ( ( trapped.eof != TRUE ) && ( sequence.data != NULL ) )
{
/* Check for end of sequence. */
if ( end > seq.total ) end = seq.total;
/* Write out the DNA sequence. */
write_DNA_seq ( &seq, start, end, &sequence );
fclose ( sequence.data );
version++;
start += 1000;
end += 1000;
} /* if */
} /* while */
/* Get the trapped exon name and sequence. */
get_line ( &trapped );
} /* while */
} /* main */
void test_main(void)
{
int id, not;
char *s, *err_fmt = "Bad flag '%s'";
toys.exitval = 2;
if (!strcmp("[", toys.which->name))
if (!strcmp("]", toys.optargs[--toys.optc])) error_exit("Missing ']'");
if (!strcmp("!", toys.optargs[0])) {
not = 1;
toys.optargs++;
toys.optc--;
}
if (!toys.optc) toys.exitval = 0;
else if (toys.optargs[0][0] == '-') {
id = stridx("bcdefghLpSsurwxznt", toys.optargs[0][1]);
if (id == -1 || toys.optargs[0][2]) error_exit(err_fmt, toys.optargs[0]);
if (id < 12) {
struct stat st;
int nolink;
toys.exitval = 1;
if (lstat(toys.optargs[1], &st) == -1) return;
nolink = !S_ISLNK(st.st_mode);
if (!nolink && (stat(toys.optargs[1], &st) == -1)) return;
if (id == 0) toys.exitval = !S_ISBLK(st.st_mode); // b
else if (id == 1) toys.exitval = !S_ISCHR(st.st_mode); // c
else if (id == 2) toys.exitval = !S_ISDIR(st.st_mode); // d
else if (id == 3) toys.exitval = 0; // e
else if (id == 4) toys.exitval = !S_ISREG(st.st_mode); // f
else if (id == 5) toys.exitval = !(st.st_mode & S_ISGID); // g
else if ((id == 6) || (id == 7)) toys.exitval = nolink; // hL
else if (id == 8) toys.exitval = !S_ISFIFO(st.st_mode); // p
else if (id == 9) toys.exitval = !S_ISSOCK(st.st_mode); // S
else if (id == 10) toys.exitval = st.st_size == 0; // s
else toys.exitval = !(st.st_mode & S_ISUID); // u
}
else if (id < 15) // rwx
toys.exitval = access(toys.optargs[1], 1 << (id - 12)) == -1;
else if (id < 17) // zn
toys.exitval = toys.optargs[1] && !*toys.optargs[1] ^ (id - 15);
else { // t
struct termios termios;
toys.exitval = tcgetattr(atoi(toys.optargs[1]), &termios) == -1;
}
}
else if (toys.optc == 1) toys.exitval = *toys.optargs[0] == 0;
else if (toys.optc == 3) {
if (*toys.optargs[1] == '-') {
long a = atol(toys.optargs[0]), b = atol(toys.optargs[2]);
s = toys.optargs[1] + 1;
if (!strcmp("eq", s)) toys.exitval = a != b;
else if (!strcmp("ne", s)) toys.exitval = a == b;
else if (!strcmp("gt", s)) toys.exitval = a < b;
else if (!strcmp("ge", s)) toys.exitval = a <= b;
else if (!strcmp("lt", s)) toys.exitval = a > b;
else if (!strcmp("le", s)) toys.exitval = a >= b;
else error_exit(err_fmt, toys.optargs[1]);
}
else {
int result = strcmp(toys.optargs[0], toys.optargs[2]);
s = toys.optargs[1];
if (!strcmp("=", s)) toys.exitval = !!result;
else if (!strcmp("!=", s)) toys.exitval = !result;
else error_exit(err_fmt, toys.optargs[1]);
}
}
toys.exitval ^= not;
return;
}
main ()
{
long end; /* end of DNA sequence segment */
t_text in; /* input DNA sequence file */
int index; /* commands files index */
t_text library; /* library of DNA sequences */
t_text names; /* file of sequence names file */
t_seq seq; /* DNA sequence */
long start; /* start of DNA sequence segment */
int version; /* DNA segment number */
char version_str [ MAX_LINE ]; /* ascii version number */
FILE *fopen (); /* file open function */
printf ( "This is the Sequence files --> Fasta format program.\n\n" );
/* Prompt for the input file name. */
prompt_file ( &names, "What is the list of TIGR Assembler alignment sequences file name?" );
/* Open the DNA library output file. */
strcpy ( library.name, names.name );
library.name [ stridx ( library.name, "\n" ) ] = '\0';
library.name [ stridx ( library.name, "." ) ] = '\0';
strcat ( library.name, ".Library" );
library.data = fopen ( library.name, "w" );
/* Process the sequences. */
while ( names.eof != TRUE )
{
/* Open the sequence output file. */
strcpy ( in.name, names.line );
in.name [ stridx ( in.name, "\n" ) ] = '\0';
printf ( "%s\n", in.name );
/* Open the DNA sequence file for reading. */
open_text_file ( &in );
/* Ignore the name line. */
get_line ( &in );
/* Read in the DNA sequence. */
read_DNA_seq ( &in, &seq );
fclose ( in.data );
names.line [ stridx ( names.line, "\n" ) ] = '\0';
strcpy ( seq.name, names.line );
seq.name [ stridx ( seq.name, ".align" ) ] = '\0';
/* Write out the library name line. */
write_fasta_name ( library, seq.name, 1, seq.total, seq.total );
/* Write out the library DNA sequence. */
write_DNA_seq ( seq, 0, seq.total - 1, library );
/* Get the next name. */
get_line ( &names );
} /* while */
fclose ( library.data );
printf ( "\nEnd of DNA Sequences -> Fasta format program.\n" );
} /* main */