bool redis_hash::hmget(const char* key, const std::vector<const char*>& names,
std::vector<string>* result /* = NULL */)
{
hash_slot(key);
build("HMGET", key, names);
return get_strings(result) >= 0 ? true : false;
}
int
sock_get_strings(int purpose, char ** vals, int num)
{
if (accept_if_needed(purpose) != -1)
return get_strings(purpose_table[purpose], vals, num);
return -1;
}
int redis_zset::zrange_get(const char* cmd, const char* key, int start,
int stop, std::vector<string>* result)
{
const char* argv[4];
size_t lens[4];
argv[0] = cmd;
lens[0] = strlen(cmd);
argv[1] = key;
lens[1] = strlen(key);
char start_s[INTLEN], stop_s[INTLEN];
safe_snprintf(start_s, sizeof(start_s), "%d", start);
safe_snprintf(stop_s, sizeof(stop_s), "%d", stop);
argv[2] = start_s;
lens[2] = strlen(start_s);
argv[3] = stop_s;
lens[3] = strlen(stop_s);
hash_slot(key);
build_request(4, argv, lens);
return get_strings(result);
}
int redis_zset::zrangebylex(const char* key, const char* min, const char* max,
std::vector<string>* out, const int* offset /* = NULL */,
const int* count /* = NULL */)
{
const char* argv[7];
size_t lens[7];
size_t argc = 4;
argv[0] = "ZRANGEBYLEX";
lens[0] = sizeof("ZRANGEBYLEX") - 1;
argv[1] = key;
lens[1] = strlen(key);
argv[2] = min;
lens[2] = strlen(min);
argv[3] = max;
lens[3] = strlen(max);
if (offset != NULL && count != NULL)
{
argv[4] = min;
lens[4] = strlen(min);
argc++;
argv[5] = max;
lens[5] = strlen(max);
argc++;
}
hash_slot(key);
build_request(argc, argv, lens);
return get_strings(out);
}
int main(int ac, char *av[])
{
int i, j, k=-1, c, err=0, oclose=0;
char *ifile=NULL, rdtok[MAXLABLEN], rdfile[MAXLABLEN];
FILE *fp, *ofp=stdout;
TreePtr gtree=NULL, ttree=NULL;
AlPtr align=NULL, zalign;
SPConf peval=init_peval();
extern char *optarg;
extern int optind;
while ((c = getopt(ac, av, "p:a:F:v?")) != -1)
switch (c) {
case 'v':
peval->verbose = 1;
break;
case 'p':
peval->params=optarg;
break;
case 'F':
ofp=myfopen(optarg,"w");
oclose=1;
break;
case '?':
default:
err++;
}
if (err || ac != optind+3) {
fprintf(stderr, USAGE, av[0]);
exit(1);
}
if (peval->params != NULL) config_peval(peval,&rdfile[0],&rdtok[0]);
strcpy(peval->gfile,av[optind]);
strcpy(peval->tfile,av[optind+1]);
fp=myfopen(av[optind],"r");
while (fgets(rdfile,MAXLABLEN,fp) != NULL) {
i=0;
while (ws(rdfile[i])) i++;
if (rdfile[i]=='\n') continue;
gtree=load_tree(&rdfile[0],&rdtok[0],&i,NULL,NULL,peval,1,gtree,0,'g');
}
fclose(fp);
i=0;
fp=myfopen(av[optind+1],"r");
while (fgets(rdfile,MAXLABLEN,fp) != NULL) {
i=0;
while (ws(rdfile[i])) i++;
if (rdfile[i]=='\n') continue;
ttree=load_tree(&rdfile[0],&rdtok[0],&i,NULL,NULL,peval,0,ttree,0,'t');
}
fclose(fp);
fp=myfopen(av[optind+2],"r");
align=get_rawalign(fp,&rdfile[0],&rdtok[0]);
fclose(fp);
get_strings(gtree,ttree,align, &rdtok[0],0);
show_align(ofp,align,peval);
if (oclose) fclose(ofp);
}
static void _get_picker_strings(QSP_ARG_DECL Screen_Obj *sop, int n_cyl )
{
int *count_tbl;
int i, j, n_max;
const char **string_arr;
int n; // set by get_strings?
SET_SOB_SELECTOR_TBL(sop, (const char ***)getbuf( n_cyl * sizeof(char **) ));
SET_SOB_N_CYLINDERS(sop, n_cyl );
count_tbl = getbuf( n_cyl * sizeof(int) );
SET_SOB_COUNT_TBL(sop,count_tbl);
n_max=0;
for(i=0;i<n_cyl;i++){
const char **selectors;
n=get_strings(sop,&string_arr);
if( n < 0 ) return; // BUG clean up!
else if( n > 0 ){
SET_SOB_N_SELECTORS_AT_IDX(sop, i, n);
selectors = (const char **)getbuf( n * sizeof(char **) );
SET_SOB_SELECTORS_AT_IDX(sop, i, selectors );
for(j=0;j<n;j++){
SET_SOB_SELECTOR_AT_IDX(sop,i,j,string_arr[j]);
}
givbuf(string_arr);
if( n > n_max ) n_max = n;
} else {
assert(string_arr == NULL);
}
}
}
bool redis_hash::hmget(const char* key, const char* names[],
const size_t lens[], size_t argc, std::vector<string>* result /* = NULL */)
{
hash_slot(key);
build("HMGET", key, names, lens, argc);
return get_strings(result) >= 0 ? true : false;
}
bool redis_hash::hkeys(const char* key, std::vector<string>& names)
{
const char* keys[1];
keys[0] = key;
hash_slot(key);
build("HKEYS", NULL, keys, 1);
return get_strings(names) < 0 ? false : true;
}
bool redis_hash::hgetall(const char* key, std::map<string, string>& result)
{
const char* keys[1];
keys[0] = key;
hash_slot(key);
build("HGETALL", NULL, keys, 1);
return get_strings(result) < 0 ? false : true;
}
bool redis_hash::hgetall(const char* key, std::vector<const char*>& names,
std::vector<const char*>& values)
{
const char* keys[1];
keys[0] = key;
hash_slot(key);
build("HGETALL", NULL, keys, 1);
return get_strings(names, values) < 0 ? false : true;
}
t_aa_names *get_aa_names(void)
{
/* Read the database in aminoacids.dat */
t_aa_names *aan;
snew(aan,1);
aan->n = get_strings("aminoacids.dat",&(aan->aa));
/* qsort(aan->aa,aan->n,sizeof(aan->aa[0]),strcmp);*/
return aan;
}
int redis_key::keys_pattern(const char* pattern, std::vector<string>* out)
{
const char* argv[2];
size_t lens[2];
argv[0] = "KEYS";
lens[0] = sizeof("KEYS") - 1;
argv[1] = pattern;
lens[1] = strlen(pattern);
build_request(2, argv, lens);
return get_strings(out);
}
static gmx_bool *bPhobics(int nres,char *resnm[])
{
int i,nb;
char **cb;
gmx_bool *bb;
nb=get_strings("phbres.dat",&cb);
snew(bb,nres);
for(i=0; (i<nres); i++) {
if (search_str(nb,cb,resnm[i]) != -1)
bb[i]=TRUE;
}
return bb;
}
static void read_dict()
{
int index;
for (index = 0; (string = get_strings()); ++index) {
if (string[0] == '\0') continue;
strings = (char**) realloc(strings, (index+1)*sizeof(*strings));
if (strings == NULL) {
bail_out(EXIT_FAILURE, "realloc(3) failed");
}
strings[index] = string;
}
/* Take a note of how many entries we have yet. */
dict_size = index;
}
void PluginMessages::unreg (SmartPointer<Client> client, Vector<Byte> data) {
auto channels=get_strings(data);
lock.Write([&] () mutable {
auto iter=clients.find(client);
if (iter==clients.end()) return;
for (auto & channel : channels) iter->second.erase(channel);
});
}
bool *bPhobics(t_atoms *atoms)
{
int i,nb;
char **cb;
bool *bb;
nb=get_strings("phbres.dat",&cb);
snew(bb,atoms->nres);
for(i=0; (i<atoms->nres); i++) {
if (search_str(nb,cb,*atoms->resname[i]) != -1)
bb[i]=TRUE;
}
return bb;
}
bool redis_string::mget(std::vector<string>* out, const char* first_key, ...)
{
std::vector<const char*> keys;
keys.push_back(first_key);
va_list ap;
va_start(ap, first_key);
const char* key;
while ((key = va_arg(ap, const char*)) != NULL)
keys.push_back(key);
va_end(ap);
build("MGET", NULL, keys);
return get_strings(out) >= 0 ? true : false;
}
int Context::get_strings_and_reopen()
{
// Get device strings (closes device)
int ret=get_strings();
if (ret < 0)
{
d->open = 0;
return ret;
}
// Reattach device
ret = ftdi_usb_open_dev(d->ftdi, d->dev);
d->open = (ret >= 0);
return ret;
}
/*
* The main function
*/
int
main (int argc, char *argv[])
{
swf_extractor * swf;
int error = SWF_ENoError;
int num_string, num_url, i;
char ** strings, ** urls;
/* Check the argument count. */
if (argc < 2) {
/* Bad arguments. */
usage(argv[0]);
return -1;
}
swf = load_swf (argv[1], &error);
if (error!=SWF_ENoError)
{
fprintf (stderr, "Error creating parser : %s\n", swf_error_code_to_string (error));
return error;
}
num_string = get_number_strings (swf);
num_url = get_number_urls (swf);
strings = get_strings (swf);
urls = get_urls (swf);
printf ("Number of strings is %d\n", num_string);
for (i=0; i<num_string; i++)
{
printf ("\t ... %s\n",strings[i]);
}
printf ("\n\n");
printf ("Number of urls is %d\n", num_url);
for (i=0; i<num_url; i++)
{
printf ("\t ... %s\n",urls[i]);
}
destroy_swf (swf);
return error;
}
static gmx_bool *bPhobics(t_atoms *atoms)
{
int i, nb;
char **cb;
gmx_bool *bb;
nb = get_strings("phbres.dat", &cb);
snew(bb, atoms->nres);
for (i = 0; (i < atoms->nres); i++)
{
if (-1 != search_str(nb, cb, *atoms->resinfo[i].name) )
{
bb[i] = TRUE;
}
}
return bb;
}
int redis_zset::zrangebyscore_get(const char* cmd, const char* key,
const char* min, const char* max, std::vector<string>* out,
const int* offset /* = NULL */, const int* count /* = NULL */)
{
const char* argv[8];
size_t lens[8];
size_t argc = 4;
argv[0] = cmd;
lens[0] = strlen(cmd);
argv[1] = key;
lens[1] = strlen(key);
argv[2] = min;
lens[2] = strlen(min);
argv[3] = max;
lens[3] = strlen(max);
char offset_s[INTLEN], count_s[INTLEN];
if (offset && count)
{
safe_snprintf(offset_s, sizeof(offset_s), "%d", *offset);
safe_snprintf(count_s, sizeof(count_s), "%d", *count);
argv[4] = "LIMIT";
lens[4] = sizeof("LIMIT") - 1;
argv[5] = offset_s;
lens[5] = strlen(offset_s);
argv[6] = count_s;
lens[6] = strlen(count_s);
argc += 3;
}
hash_slot(key);
build_request(argc, argv, lens);
return get_strings(out);
}
bool redis_list::lrange(const char* key, int start, int end,
std::vector<string>* result)
{
const char* argv[4];
size_t lens[4];
argv[0] = "LRANGE";
lens[0] = sizeof("LRANGE") - 1;
argv[1] = key;
lens[1] = strlen(key);
char start_s[LONG_LEN], end_s[LONG_LEN];
safe_snprintf(start_s, sizeof(start_s), "%d", start);
safe_snprintf(end_s, sizeof(end_s), "%d", end);
argv[2] = start_s;
lens[2] = strlen(start_s);
argv[3] = end_s;
lens[3] = strlen(end_s);
build_request(4, argv, lens);
return get_strings(result) < 0 ? false : true;
}
int redis_command::get_strings(std::vector<string>& out)
{
return get_strings(&out);
}
int main (int argc, char** argv) {
get_strings(argv[0]);
}
int sporth_oscmorph4(sporth_stack *stack, void *ud)
{
plumber_data *pd = ud;
SPFLOAT out;
sporth_oscmorph *oscmorph;
switch(pd->mode) {
case PLUMBER_CREATE:
#ifdef DEBUG_MODE
fprintf(stderr, "oscmorph: Creating\n");
#endif
oscmorph = malloc(sizeof(sporth_oscmorph));
sp_oscmorph_create(&oscmorph->data);
oscmorph->nft = 4;
oscmorph->ft = malloc(sizeof(sp_ftbl *) * 4);
oscmorph->ftname = malloc(sizeof(char *) * 4);
plumber_add_ugen(pd, SPORTH_OSCMORPH4, oscmorph);
if(sporth_check_args(stack, "ffffssss") != SPORTH_OK) {
fprintf(stderr,"Not enough arguments for oscmorph\n");
stack->error++;
return PLUMBER_NOTOK;
}
get_strings(stack, oscmorph);
pop_args(stack, oscmorph);
if(search_for_ft(pd, oscmorph) == PLUMBER_NOTOK) {
stack->error++;
return PLUMBER_NOTOK;
}
sporth_stack_push_float(stack, 0);
free_strings(oscmorph);
break;
case PLUMBER_INIT:
#ifdef DEBUG_MODE
fprintf(stderr, "oscmorph: Initialising\n");
#endif
oscmorph = pd->last->ud;
get_strings(stack, oscmorph);
pop_args(stack, oscmorph);
sp_oscmorph_init(pd->sp, oscmorph->data, oscmorph->ft, oscmorph->nft, oscmorph->phase);
sporth_stack_push_float(stack, 0);
free_strings(oscmorph);
break;
case PLUMBER_COMPUTE:
oscmorph = pd->last->ud;
pop_args(stack, oscmorph);
set_args(oscmorph);
sp_oscmorph_compute(pd->sp, oscmorph->data, NULL, &out);
sporth_stack_push_float(stack, out);
break;
case PLUMBER_DESTROY:
oscmorph = pd->last->ud;
free(oscmorph->ftname);
free(oscmorph->ft);
sp_oscmorph_destroy(&oscmorph->data);
free(oscmorph);
break;
default:
fprintf(stderr, "oscmorph: Unknown mode!\n");
break;
}
return PLUMBER_OK;
}
int main( int nArgs, const char * const args[] )
{
if( nArgs != 2 )
{
printf("%s: <image>\n", args[0] );
return 1;
}
const char * infile = args[1];
std::vector<uint8_t> fbuf;
{
std::ifstream f( infile, std::ios::binary | std::ios::ate );
if( !f.is_open() )
{
printf("Unable to open %s\n",infile);
return 2;
}
fbuf.resize( f.tellg() );
f.seekg(0);
f.read( (char*)&fbuf[0], fbuf.size() );
if( f.gcount() != fbuf.size() )
{
printf("Unable to fully read %s\n",infile);
return 3;
}
}
printf( "Scanning binary for strings...\n" );
stable str_table = get_strings( fbuf );
printf( "Total strings found: %d\n", str_table.size() );
printf( "Scanning binary for pointers...\n" );
ptable ptr_table = get_pointers( fbuf );
printf( "Total pointers found: %d\n", ptr_table.size() );
// signal.signal(signal.SIGINT, high_scores)
MutexType mutex; //protects next few variables
unsigned top_score = 0;
scorecard scores;
#ifdef _OPENMP
#pragma omp parallel for
#endif
for( offset_t base = 0; base < 0xf0000000UL; base += 0x1000 )
{
#ifndef _OPENMP
//Turn off status display when using OpenMP
//otherwise the numbers will be scrabled
if( base % 0x10000 == 0 )
printf( "Trying base address 0x%x\n", base );
#endif
unsigned score = 0;
for(ptable::iterator iter = ptr_table.begin(); iter != ptr_table.end(); ++iter)
{
offset_t ptr = iter->first;
if( ptr < base )
continue;
if( ptr >= (base + fbuf.size()) )
continue;
unsigned offset = ptr - base;
if( str_table.find(offset) != str_table.end() )
score += iter->second;
}
if( score )
{
mutex.Lock();
scores.push_back( std::make_pair( score, base ) );
if( score > top_score )
{
top_score = score;
printf( "New highest score, 0x%x: %d\n", base, score );
}
mutex.Unlock();
}
}
std::sort(scores.begin(),scores.end() );
high_scores( scores );
}
bool redis_string::mget(const std::vector<const char*>& keys,
std::vector<string>* out /* = NULL */)
{
build("MGET", NULL, keys);
return get_strings(out) >= 0 ? true : false;
}
int redis_command::get_strings(std::list<string>& out)
{
return get_strings(&out);
}
bool redis_string::mget(const char* keys[], const size_t keys_len[],
size_t argc, std::vector<string>* out /* = NULL */)
{
build("MGET", NULL, keys, keys_len, argc);
return get_strings(out) >= 0 ? true : false;
}
int main()
{
void display_help();
void get_strings();
char *search_strings();
void copy_strings();
void display_results();
char str1[32], str2[4], str3[8], str4[1024];
char *ptr1, *ptr2, *ptr3;
char *start_ptr, *match_ptr, *copy_ptr;
int match_ctr;
ptr1 = ptr2 = ptr3 = NULL;
start_ptr = match_ptr = copy_ptr = NULL;
match_ctr = 0;
display_help();
get_strings( str1, str2, str3 );
ptr1 = str1;
ptr2 = str2;
ptr3 = str3;
start_ptr = str1;
copy_ptr = str4;
// TO DO: while( *start_ptr != '\0' )
while( start_ptr <= ( str1 + strlen( str1 ) ) )
{
if( debug_flag == 1 )
printf( "\n START ptr = %c", *start_ptr );
match_ptr = search_strings( str1, str2, start_ptr );
if( match_ptr )
{
match_ctr ++;
if( debug_flag == 1 )
printf( "\n if - MATCH ctr %d: need to start copy/replace", match_ctr );
// RESULT STRING: copy from archive string start location to match location
copy_strings( start_ptr, match_ptr, str4, copy_ptr );
copy_ptr += match_ptr - start_ptr;
// RESULT STRING: copy entire replacement string, i.e. replace query string
copy_strings( ptr3, ptr3 + strlen( str3 ), str4, copy_ptr );
if( debug_flag == 1 )
printf( "\n MATCH: RESULT STR4: %s", str4 );
start_ptr = match_ptr + strlen(str2);
copy_ptr += strlen( str3 );
if( debug_flag == 1 )
printf( "\n continue searching from %c", *start_ptr );
}
else
{
if( debug_flag == 1 )
printf("\n else - match ctr = %d", match_ctr);
if( match_ctr != 0)
{
// RESULT STRING: copy from archive string last match location until end
if( debug_flag == 1 )
printf( "\n NO MATCH: copy from last match start ptr %c until end", *start_ptr );
copy_strings( start_ptr, str1 + strlen( str1 ), str4, copy_ptr );
if( debug_flag == 1 )
printf( "\n NO MATCH: RESULT STR4: %s", str4 );
break;
}
else
{
strcpy( str4, "The archive string does not contain the query string." );
break;
}
start_ptr ++;
}
}
display_results( str1, str2, str3, str4 );
return 0;
} // end main()
