/* Makes command separated string for possible displacement/force * types */
char *fdbFemStrSuppForcTypListInt(char *dtype)
{
long restypes[270];
long len = 270 ;
long restypes_ret[270];
long len_ret = 0 ;
ldiv_t divval ;
ldiv_t divval2 ;
long type ;
long i, j, k ;
for (i=0; i<len; i++)
{
restypes[i] = 0 ;
restypes_ret[i] = 0 ;
}
len_ret = 0 ;
for (i=0; i<len; i++)
{
restypes[i] = 0 ;
for (j=0; j<fdbInputTabLenAll(ETYPE); j++ ) /* type=0 is not used */
{
type = fdbInputGetInt(ETYPE,ETYPE_TYPE, j) ;
if ((type<=0) || (type >=fdbElementTypeLen)) { break ; }
for (k=0; k<fdbElementType[type].ndofs; k++)
{
divval = ldiv(i+1,KNOWN_DOFS);
divval2 = ldiv(fdbElementType[type].ndof[k],KNOWN_DOFS);
if (
(divval.rem == fdbElementType[type].ndof[k])
||
((divval2.quot >= 1) && (divval2.rem == 0) && (divval.rem == 0))
)
{
restypes[i] = 1 ;
break ;
}
}
if (restypes[i] == 1) {break;}
}
}
for (i=0; i<len; i++)
{
if (restypes[i] == 1)
{
restypes_ret[len_ret] = (i+1) ;
len_ret++ ;
}
}
if (len_ret < 1) { return(" ") ; }
return(ciListVarsListedCSV(dtype, restypes_ret, len_ret)) ;
}
char* sec2str(unsigned long seconds) {
unsigned long h, m, s;
char hh[3], mm[3], ss[3], *str;
ldiv_t res;
res = ldiv(seconds, 3600);
h = res.quot;
res = ldiv(res.rem, 60);
m = res.quot;
s = res.rem;
sprintf(hh, "%02lu", h);
sprintf(mm, "%02lu", m);
sprintf(ss, "%02lu", s);
str = (char *) malloc(9 * sizeof(char));
str[0] = '\0';
strcat(str, hh);
strcat(str, ":");
strcat(str, mm);
strcat(str, ":");
strcat(str, ss);
return str;
}
CTile* CMainMap::getTileFromScreen(long xScreen, long yScreen) {
CTile* retTile = NULL;
long tx, ty;
if (xScreen >= 0 && yScreen >= 0) {
ldiv_t ldivresult;
ldivresult = ldiv(xScreen+1, m_tileWidth);
tx = ldivresult.quot;
ldivresult = ldiv(yScreen+1, m_tileHeight);
ty = ldivresult.quot;
ostringstream ostr;
ostr << "\ntx: " << tx << ", ty: " << ty << "\n";
fprintf(stderr, ostr.str().c_str());
retTile = getTileFromMap(tx, ty);
}
else {
fprintf(stderr, "DataErr: CTile::getTile - x or y value <0!!\n");
}
return retTile;
}
void print_time( long int ticks )
{
ldiv_t sec_ticks;
ldiv_t min_sec;
sec_ticks = ldiv( ticks, 100L );
min_sec = ldiv( sec_ticks.quot, 60L );
printf( "It took %ld minutes and %ld seconds\n",
min_sec.quot, min_sec.rem );
}
// Function that snaps a point to a grid
CPoint SnapToGrid(CPoint point) {
CPoint ret;
ldiv_t blob = ldiv(point.x,GRIDSIZE);
ret.x = blob.quot*GRIDSIZE;
blob = ldiv(point.y,GRIDSIZE);
ret.y = blob.quot*GRIDSIZE;
return ret;
}
/**
* Returns 1 (true) if the specified number is a prime number, 0 (false)
* otherwise.
*/
int is_prime(unsigned long num)
{
unsigned int *sieve;
char num_bit;
unsigned long start_pos, i, ptr_size;
ldiv_t qr;
/* Edge cases */
if ((num == 0) || (num == 1)) return 0;
/* The sieve we'll use to determine if num is a prime or not. */
sieve = new_sieve(num);
ptr_size = sizeof(sieve[0])*CHAR_BIT;
/* sieve[2] represents the number 2. We only have to find multiples/factors up to sqrt(num). */
for (start_pos = 2; start_pos <= (unsigned long)sqrt(num); ++start_pos)
{
/* If this number is cleared, then so will all of its multiples, in which
case there is nothing needed to be done. */
qr = ldiv(start_pos, ptr_size);
if (( sieve[qr.quot] & (1 << qr.rem) ) != 0) {
/* Clear all numbers that are multiples of 'sieve[start_pos]' */
for (i = start_pos; i <= num; i = i + start_pos)
{
qr = ldiv(i, ptr_size);
sieve[qr.quot] &= ~(1 << qr.rem);
if (i == num)
{
/* We've cleared 'sieve[num]' we now know it's not a prime number */
break;
}
}
if (i == num)
{
printf("Divisible by %lu\n", start_pos);
/* We've cleared 'sieve[num]' we now know it's not a prime number */
break;
}
}
}
/* Get the value of the bit at position 'num' */
qr = ldiv(num, ptr_size);
num_bit = ( sieve[qr.quot] & (1 << qr.rem) ) != 0;
free(sieve);
// 'num' is a prime if the bit 'sieve[num]' was still set.
return num_bit;
}
int main( void )
{
ldiv_t result;
result = ldiv( 5, 2 );
TESTCASE( result.quot == 2 && result.rem == 1 );
result = ldiv( -5, 2 );
TESTCASE( result.quot == -2 && result.rem == -1 );
result = ldiv( 5, -2 );
TESTCASE( result.quot == -2 && result.rem == 1 );
TESTCASE( sizeof( result.quot ) == _PDCLIB_LONG_BYTES );
TESTCASE( sizeof( result.rem ) == _PDCLIB_LONG_BYTES );
return TEST_RESULTS;
}
int main( void )
{
ldiv_t result;
result = ldiv( 5, 2 );
TESTCASE( result.quot == 2 && result.rem == 1 );
result = ldiv( -5, 2 );
TESTCASE( result.quot == -2 && result.rem == -1 );
result = ldiv( 5, -2 );
TESTCASE( result.quot == -2 && result.rem == 1 );
TESTCASE( sizeof( result.quot ) == sizeof( long ) );
TESTCASE( sizeof( result.rem ) == sizeof( long ) );
return TEST_RESULTS;
}
static void RadCalc_EVENT(void) {
if (!Timer_1s) { // Every 1s (1Hz)
Timer_1s = 1000;
if ( _FLAG.LCDExist == _Set ) lcd_ctrl(_FLAG.LCDControl);
static uint16_t table[Ilosc_pomiarow];
static uint8_t index;
uint32_t sr1=0;
ldiv_t result;
table[index++] = pulse_counter;
pulse_counter=0;
if ( index >= Ilosc_pomiarow ) index=0;
for (uint8_t i=0;i<Ilosc_pomiarow;i++) sr1 += table[i];
result = ldiv(sr1,100);
sprintf(SecondLine, " %lu.%02lu uSv/h", result.quot, result.rem);
uart_putnum(sr1,10);
uart_putstr("\r\n");
}
}
/****************************************************************************
function: periods_elapsed()
parameters: bdate - beginning date
curr_date - ending date
inc_days - the period size in days
returns: The number of periods elapsed between two dates as an integer.
purpose: This function will calculate the number of periods between
any to dates.
****************************************************************************/
long periods_elapsed(char *b_date, char *e_date, long inc_days)
{
ldiv_t q_r;
q_r = ldiv(days_elapsed(b_date, e_date), inc_days);
return(q_r.quot);
}
static void gid_location(long gid, long *cylID, long *ringID)
{
ldiv_t result;
result = ldiv(gid, cylSize);
*cylID = result.quot; /* cylinder ID */
*ringID = result.rem; /* ring ID */
}
emstream& operator<< (emstream& serial, time_stamp& stamp)
{
char dig_buffer[7]; // Holds digits we compute
ldiv_t div_result; // Holds results of long integer division
// First write the seconds in the time stamp, then a decimal
serial << stamp.get_seconds ();
serial.putchar ('.');
// Now get the microseconds; these will be written with leading zeros as needed
div_result.quot = stamp.get_microsec ();
for (int8_t index = 5; index >= 0; index--)
{
div_result = ldiv (div_result.quot, 10);
dig_buffer[index] = div_result.rem + '0';
}
// The last item in the string must be a '\0' null character
dig_buffer[6] = '\0';
// Write the buffer, which now contains microsecond digits
serial << dig_buffer;
return (serial);
}
/** Start the cpu timer (before running a command).
*/
void
start_cpu_timer(void)
{
#ifndef PROFILING
cpu_time_limit_hit = 0;
cpu_limit_warning_sent = 0;
timer_set = 1;
#if defined(HAS_ITIMER) /* UNIX way */
{
struct itimerval time_limit;
if (options.queue_entry_cpu_time > 0) {
ldiv_t t;
/* Convert from milliseconds */
t = ldiv(options.queue_entry_cpu_time, 1000);
time_limit.it_value.tv_sec = t.quot;
time_limit.it_value.tv_usec = t.rem * 1000;
time_limit.it_interval.tv_sec = 0;
time_limit.it_interval.tv_usec = 0;
if (setitimer(ITIMER_PROF, &time_limit, NULL)) {
perror("setitimer");
timer_set = 0;
}
} else
timer_set = 0;
}
#elif defined(WIN32) /* Windoze way */
if (options.queue_entry_cpu_time > 0)
timer_id = SetTimer(NULL, 0, (unsigned) options.queue_entry_cpu_time,
(TIMERPROC) win32_timer);
else
timer_set = 0;
#endif
#endif
}
static void wait_timeout(struct timespec *timeout, int ms)
{
ldiv_t div_result;
long sec, usec, x;
#ifdef WIN32
{
struct _timeb now;
_ftime(&now);
sec = now.time;
usec = now.millitm * 1000; /* microsecond precision would be better */
}
#else
{
struct timeval now;
gettimeofday(&now, NULL);
sec = now.tv_sec;
usec = now.tv_usec;
}
#endif
/* add current time + millisecond offset */
div_result = ldiv(ms, 1000);
timeout->tv_sec = sec + div_result.quot;
x = usec + (div_result.rem * 1000);
if (x >= 1000000) {
timeout->tv_sec++;
x -= 1000000;
}
timeout->tv_nsec = x * 1000;
}
char * /* addr of terminating null */
ltostr (
char *str, /* output string */
long val, /* value to be converted */
unsigned base) /* conversion base */
{
ldiv_t r; /* result of val / base */
if (base > 36) /* no conversion if wrong base */
{
str = '\0';
return str;
}
if (val < 0) *str++ = '-';
r = ldiv (labs(val), base);
/* output digits of val/base first */
if (r.quot > 0) str = ltostr (str, r.quot, base);
/* output last digit */
*str++ = "0123456789abcdefghijklmnopqrstuvwxyz"[(int)r.rem];
*str = '\0';
return str;
}
char *ltoa(long N, char *str, int base)
{
register int i = 2;
long uarg;
char *tail, *head = str, buf[BUFSIZE];
if (36 < base || 2 > base)
base = 10; /* can only use 0-9, A-Z */
tail = &buf[BUFSIZE - 1]; /* last character position */
*tail-- = '\0';
if (10 == base && N < 0L)
{
*head++ = '-';
uarg = -N;
}
else uarg = N;
if (uarg)
{
for (i = 1; uarg; ++i)
{
register ldiv_t r;
r = ldiv(uarg, base);
*tail-- = (char)(r.rem + ((9L < r.rem) ?
('A' - 10L) : '0'));
uarg = r.quot;
}
}
else *tail-- = '0';
memcpy(head, ++tail, i);
return str;
}
// читать из порта
int port_read ( const askue_port_t *Port, uint8_array_t *u8a, long int timeout )
{
ldiv_t Sec = ldiv ( timeout, 1000 );
struct timeval Timeout = { Sec.quot, Sec.rem * 1000 };
fd_set ReadSet;
FD_ZERO ( &ReadSet );
FD_SET ( Port->RS232, &ReadSet );
int RetVal = select( Port->RS232 + 1, &ReadSet, NULL, NULL, &Timeout);
if ( RetVal == 0 )
{
return 0;
}
else if ( RetVal == -1 )
{
return -1;
}
else
{
assert ( FD_ISSET ( Port->RS232, &ReadSet ) );
return __port_read ( Port, u8a );
}
}
/*
* general fractional timestamp formatting
*
* Many pieces of ntpd require a machine with two's complement
* representation of signed integers, so we don't go through the whole
* rigamarole of creating fully portable code here. But we have to stay
* away from signed integer overflow, as this might cause trouble even
* with two's complement representation.
*/
const char *
format_time_fraction(
time_t secs,
long frac,
int prec
)
{
char * cp;
u_int prec_u;
u_time secs_u;
u_int u;
long fraclimit;
int notneg; /* flag for non-negative value */
ldiv_t qr;
DEBUG_REQUIRE(prec != 0);
LIB_GETBUF(cp);
secs_u = (u_time)secs;
/* check if we need signed or unsigned mode */
notneg = (prec < 0);
prec_u = abs(prec);
/* fraclimit = (long)pow(10, prec_u); */
for (fraclimit = 10, u = 1; u < prec_u; u++) {
DEBUG_INSIST(fraclimit < fraclimit * 10);
fraclimit *= 10;
}
/*
* Since conversion to string uses lots of divisions anyway,
* there's no big extra penalty for normalisation. We do it for
* consistency.
*/
if (frac < 0 || frac >= fraclimit) {
qr = ldiv(frac, fraclimit);
if (qr.rem < 0) {
qr.quot--;
qr.rem += fraclimit;
}
secs_u += (time_t)qr.quot;
frac = qr.rem;
}
/* Get the absolute value of the split representation time. */
notneg = notneg || ((time_t)secs_u >= 0);
if (!notneg) {
secs_u = ~secs_u;
if (0 == frac)
secs_u++;
else
frac = fraclimit - frac;
}
/* finally format the data and return the result */
snprintf(cp, LIB_BUFLENGTH, "%s%" UTIME_FORMAT ".%0*ld",
notneg? "" : "-", secs_u, prec_u, frac);
return cp;
}
void factors( unsigned long x) {
unsigned long i;
unsigned long max_factor;
unsigned long current_factor;
ldiv_t results;
/* set the max_factor to square root of variable */
max_factor = sqrt(x)+1;
/* see if the variable is more than MAXSIZE^2 */
if ( max_factor > MAXSIZE ) {
printf ("Too large to solve, the largest number I can factor is %d.", MAXSIZE);
exit (1);
}
printf ("%d: ", x);
/* while current_factor < max_factor */
for(i=2; i<max_factor; i++, i++) {
/* Test factor */
results = ldiv(x, i);
/* If there is no remainder, print the current_factor, continue. */
if ( results.rem == 0 ) {
printf ("%d ", i);
x = results.quot;
max_factor = sqrt(x)+1 ;
i--; i--;
}
if (i==2) i=1;
}
printf ("%d\n", x);
}
static DWORD HashKey(KeyT Key)
{
ldiv_t hash_val = ldiv((long)Key, 127773);
hash_val.rem = 16807 * hash_val.rem - 2836 * hash_val.quot;
if (hash_val.rem < 0) hash_val.rem += 2147483647;
return ((DWORD)hash_val.rem);
}
char *
int2str(register long int val, register char *dst, register int radix,
int upcase)
{
char buffer[65];
register char *p;
long int new_val;
char *dig_vec= upcase ? _dig_vec_upper : _dig_vec_lower;
if (radix < 0)
{
if (radix < -36 || radix > -2)
return NullS;
if (val < 0)
{
*dst++ = '-';
val = -val;
}
radix = -radix;
}
else if (radix > 36 || radix < 2)
return NullS;
/*
The slightly contorted code which follows is due to the fact that
few machines directly support unsigned long / and %. Certainly
the VAX C compiler generates a subroutine call. In the interests
of efficiency (hollow laugh) I let this happen for the first digit
only; after that "val" will be in range so that signed integer
division will do. Sorry 'bout that. CHECK THE CODE PRODUCED BY
YOUR C COMPILER. The first % and / should be unsigned, the second
% and / signed, but C compilers tend to be extraordinarily
sensitive to minor details of style. This works on a VAX, that's
all I claim for it.
*/
p = &buffer[sizeof(buffer)-1];
*p = '\0';
new_val=(ulong) val / (ulong) radix;
*--p = dig_vec[(uchar) ((ulong) val- (ulong) new_val*(ulong) radix)];
val = new_val;
#ifdef HAVE_LDIV
while (val != 0)
{
ldiv_t res;
res=ldiv(val,radix);
*--p = dig_vec[res.rem];
val= res.quot;
}
#else
while (val != 0)
{
new_val=val/radix;
*--p = dig_vec[(uchar) (val-new_val*radix)];
val= new_val;
}
#endif
while ((*dst++ = *p++) != 0) ;
return dst-1;
}
/*
* Print load averages.
*/
static void
root_loadavg(void)
{
struct load loads[3];
ldiv_t avg[3];
if (procfs_getloadavg(loads, 3) != 3)
return;
avg[0] = ldiv(100L * loads[0].proc_load / loads[0].ticks, 100);
avg[1] = ldiv(100L * loads[1].proc_load / loads[1].ticks, 100);
avg[2] = ldiv(100L * loads[2].proc_load / loads[2].ticks, 100);
buf_printf("%ld.%02ld %ld.%02ld %ld.%02ld\n",
avg[0].quot, avg[0].rem, avg[1].quot, avg[1].rem,
avg[2].quot, avg[2].rem);
}
static void output_vertices (vertex_db & vertices)
{
std::string tmp_file_name = "tmpidmap";
boost::shared_ptr<SpatialIndex::IStorageManager>
tmp_file (SpatialIndex::StorageManager::createNewDiskStorageManager (
tmp_file_name,page_size));
idmap_t idmap (tmp_file, page_size);
vertex_db::iterator v_start = vertices.begin ();
vertex_db::iterator v_ptr = v_start;
ofstream myfile;
myfile.open ("example.txt");
long v_id = 1;
long edges = 0;
// map<vertex_id,long> idmap;
while (v_ptr != vertices.end ())
{
edges += ((vertex_info)v_ptr->second).neighbours.size ();
// idmap.insert(pair<vertex_id,long>((vertex_id)v_ptr->first,v_id));
idmap.insert (v_ptr->first, v_id);
v_id++;
v_ptr++;
}
v_id--;
ldiv_t divresult = ldiv(edges,2);
myfile << v_id << " " << divresult.quot << " 0\n";
v_start = vertices.begin ();
v_ptr = v_start;
v_id = 1;
while (v_ptr != vertices.end ())
{
std::vector<vertex_id> n = ((vertex_info)v_ptr->second).neighbours;
vertex_id id = (vertex_id)v_ptr->first;
// map<vertex_id,long>::iterator it;
// it = idmap.find(id);
std::cout << get_remapped_vertex (idmap, id) << " : ";
//std::cout << it->second << " : ";
BOOST_FOREACH (vertex_id n_id, n)
{
// it = idmap.find(n_id);
myfile << get_remapped_vertex (idmap, n_id) << " ";
}
myfile << endl;
v_id++;
v_ptr++;
}
extern massgd_sample_addr * WPGetMassgdSampData( sio_data * curr_sio,
clicks_t click_index )
/*********************************************************************/
{
ldiv_t ans;
if( click_index >= curr_sio->number_massaged ) return( NULL );
ans = ldiv( click_index, MAX_MASSGD_BUCKET_INDEX );
return( &curr_sio->massaged_sample[ans.quot][ans.rem] );
}
void stdlib_test(){
ldiv_t ans;
long N = 15;
long D = 4;
ans = ldiv(N,D);
printf("%ld %ld",ans.quot,ans.rem);
}
uint64_t sum_square_digits(uint64_t x) {
uint64_t sum = 0;
while(x > 0) {
ldiv_t div_result = ldiv(x, 10);
sum += div_result.rem * div_result.rem;
x = div_result.quot;
}
return sum;
}
void CompletionPercentage::stepWithNMultipleOf100() {
currentIteration_ += 1;
currentDiv_ = ldiv(currentIteration_, totalDiv_.quot);
if (currentDiv_.rem==0) {
currentOutput_ = boost::lexical_cast<std::string>(currentDiv_.quot) + "%";
logTee << std::string(precedingOutput_.length(),'\b') << currentOutput_;
logTee.flush();
precedingOutput_ = currentOutput_;
}
}
/*
* Print the current uptime.
*/
static void
root_uptime(void)
{
clock_t ticks;
ldiv_t division;
if (getticks(&ticks) != OK)
return;
division = ldiv(100L * ticks / sys_hz(), 100L);
buf_printf("%ld.%0.2ld\n", division.quot, division.rem);
}
/* ----------------------------------------------
* bundles_needed
* ---------------------------------------------- */
long bundles_needed (long data, long pl)
{
long res = 0;
ldiv_t r;
r = ldiv(data, pl);
res = r.quot;
if (r.rem > 0)
res += 1;
return res;
} // end bundles_needed
/* calc_target()
*/
static void calc_target(garray_t *ga, int64_t gidx, int64_t *tnid_, int64_t *tidx_)
{
/* if this node has no local elements, there are less than nnodes
elements, so the array index is the node index */
if (ga->nlocal_elems == 0) {
*tnid_ = gidx;
*tidx_ = 0;
return;
}
/* compute the target nid+idx */
ldiv_t res = ldiv(gidx, ga->nlocal_elems);
/* if the distribution is not perfectly even, we have to adjust
the target nid+idx appropriately */
if (ga->nextra_elems > 0) {
int64_t tnid = res.quot, tidx = res.rem;
/* if i have an extra element... */
if (ga->g->nid < ga->nextra_elems) {
/* but the target does not */
if (tnid >= ga->nextra_elems) {
/* then the target index has to be adjusted upwards */
tidx += (tnid - ga->nextra_elems);
/* which may mean that the target nid does too */
while (tidx >= (ga->nlocal_elems - 1)) {
++tnid;
tidx -= (ga->nlocal_elems - 1);
}
}
}
/* i don't have an extra element... */
else {
/* so adjust the target index downwards */
tidx -= (tnid < ga->nextra_elems ? tnid : ga->nextra_elems);
/* which may mean the target nid has to be adjusted too */
while (tidx < 0) {
--tnid;
tidx += ga->nelems_per_node + (tnid < ga->nextra_elems ? 1 : 0);
}
}
res.quot = tnid; res.rem = tidx;
}
LOG_DEBUG(ga->g->glog, "[%d] garray calc %ld, target %ld.%ld\n",
ga->g->nid, gidx, res.quot, res.rem);
*tnid_ = res.quot;
*tidx_ = res.rem;
}
