bigInt *new_bigInt_int(const int value) {
bigInt *pointer = new_bigInt_array_length(1);
pointer->digits[0] = value;
pointer->length = 1;
pointer->sign = get_sign((type)value);
return pointer;
}
double ft_atof(char *num)
{
t_atof a;
int i;
i = 0;
if (!num || !*num)
return (0);
init_struct(&a);
get_sign(&num, &a);
while (num[i] != '\0')
{
if (num[i] >= '0' && num[i] <= '9')
get_int(num[i], &a);
else if (num[i] == '.')
{
if (a.fraction)
return (a.sign * (a.integer_part + a.fraction_part
/ a.divisor));
else
a.fraction = 1;
}
else
return (a.sign * (a.integer_part + a.fraction_part / a.divisor));
i++;
}
return (a.sign * (a.integer_part + a.fraction_part / a.divisor));
}
void test_one(std::locale const &l,std::string ia,std::string ib,int diff)
{
std::basic_string<CharType> a=to_correct_string<CharType>(ia,l);
std::basic_string<CharType> b=to_correct_string<CharType>(ib,l);
if(diff < 0) {
TEST(l(a,b));
TEST(!l(b,a));
}
else if(diff == 0) {
TEST(!l(a,b));
TEST(!l(b,a));
}
else {
TEST(!l(a,b));
TEST(l(b,a));
}
std::collate<CharType> const &col = std::use_facet<std::collate<CharType> >(l);
TEST(diff == col.compare(a.c_str(),a.c_str()+a.size(),b.c_str(),b.c_str()+b.size()));
TEST(diff == get_sign(col.transform(a.c_str(),a.c_str()+a.size()).compare(col.transform(b.c_str(),b.c_str()+b.size()))));
if(diff == 0) {
TEST(col.hash(a.c_str(),a.c_str()+a.size()) == col.hash(b.c_str(),b.c_str()+b.size()));
}
}
bigInt *sub_modulus(const bigInt *first, const bigInt *second) {
if(!first || !first->sign) {
bigInt *result = deep_copy(second);
result->sign *= -1;
return result;
}
if(!second || !second->sign)
return deep_copy(first);
int compare_first_second = compare_modulus(first, second);
if(!compare_first_second)
return new_bigInt(); // return 0
if(compare_first_second < 0) {
const bigInt *temp = first;
first = second;
second = temp;
}
bigInt *result = light_copy(first);
result->digits = (type *)calloc(result->length_full, sizeof(type));
memcpy(result->digits, first->digits, first->length * sizeof(type));
sub_modulus_fast(result, second);
result->sign *= get_sign(compare_first_second);
return result;
}
t_nb *inf_sub(t_nb *n1, t_nb *n2, t_base *s_base, char *ops)
{
t_nb *res;
int sign;
if (!(res = malloc(sizeof(*res))))
return (NULL);
if (ops)
res->sign = get_sign(n1, n2, ops[3]);
else
res->sign = 0;
sign = order_operands(&n1, &n2);
if (!(res->nb = malloc(sizeof(*res) * (n1->len + 3))))
return (NULL);
my_bzero(res->nb, n1->len + 3 + 3);
do_sub_or_add(n1, n2, res, s_base);
res->sign = (!res->sign && sign)
|| (!sign && res->sign == 3) ? 1 : res->sign;
res->sign = res->sign == 1 ? 1 : res->sign;
res->sign = res->sign == 2 ? 0 : res->sign;
res->sign = res->sign == 3 && sign ? 0 : res->sign;
if (ops)
res->len = clean_res(res, n1->len + 3, s_base->base, ops[3]);
else
res->len = clean_res(res, n1->len + 3, s_base->base, 0);
return (res);
}
void show_float(unsigned uf)
{
float f = u2f(uf);
unsigned exp = get_exp(uf);
unsigned frac = get_frac(uf);
unsigned sign = get_sign(uf);
printf("\nFloating point value %.10g\n", f);
printf("Bit Representation 0x%.8x, sign = %x, exponent = 0x%.2x, fraction = 0x%.6x\n",
uf, sign, exp, frac);
if (exp == EXP_MASK) {
if (frac == 0) {
printf("%cInfinity\n", sign ? '-' : '+');
} else
printf("Not-A-Number\n");
} else {
int denorm = (exp == 0);
int uexp = denorm ? 1-BIAS : exp - BIAS;
int mantissa = denorm ? frac : frac + (1<<FRAC_SIZE);
float fman = (float) mantissa / (float) (1<<FRAC_SIZE);
printf("%s. %c%.10f X 2^(%d)\n",
denorm ? "Denormalized" : "Normalized",
sign ? '-' : '+',
fman, uexp);
}
}
int main() {
int a;
int b;
klee_make_symbolic(&a, sizeof(a), "a");
klee_make_symbolic(&b, sizeof(b), "b");
return get_sign(a,b);
}
// redirection to subtraction and addition of modules
bigInt *add_with_sign(const bigInt *first, const bigInt *second, int sign_of_operation) {
int sign_first = get_sign(first->sign);
int sign_second = get_sign(second->sign);
if(!sign_second)
return deep_copy(first);
if(!sign_first) {
bigInt *result = deep_copy(second);
result->sign *= sign_of_operation;
return result;
}
if(sign_first + sign_second)
return sign_of_operation < 0 ? sub_modulus(first, second) : add_modulus(first, second);
return sign_of_operation < 0 ? add_modulus(first, second) : sub_modulus(second, first);
}
void __read_int(File* file, int* v)
{
int n = 0;
int sign;
if (file->handle >= MaxPascalFiles)
{
return;
}
if (!files[file->handle].readAhead)
{
__get_text(file);
}
skip_spaces(file);
sign = get_sign(file);
while(isdigit(*file->buffer))
{
n *= 10;
n += (*file->buffer) - '0';
if (!__get_text(file))
{
break;
}
}
*v = n * sign;
}
static int parse_long (SLFUTURE_CONST char **sp, SLFUTURE_CONST char *smax, long *np,
long base, unsigned char map[256])
{
SLFUTURE_CONST char *s, *s0;
long n;
int sign;
s = s0 = get_sign (*sp, smax, &sign);
n = 0;
while (s < smax)
{
unsigned char value;
value = map [(unsigned char) *s];
if (value == 0xFF)
break;
n = base * n + value;
s++;
}
*sp = s;
if (s == s0)
return 0;
*np = n * sign;
return 1;
}
extern double str_real(const char *s, int *error)
{
*error = 0;
int sign;
s = get_sign(s, &sign, error);
register long double val;
for (val = 0; *s && *s != '.' && !*error; ++s)
if (is_digit(*s))
val = 10 * val + (*s - '0');
else
*error = 1;
if (*s == '.' && !*error) {
if (*(++s) != '\0') {
double fract, div;
for (fract = 0, div = 10; *s && !*error; ++s, div *= 10)
if (is_digit(*s))
fract = fract + (*s - '0') / div;
else
*error = 1;
val += fract;
} else
*error = 1;
}
return (double) sign * val;
}
void player_move(SDLKey key)
{
if (playermove->move.moving) return;
playermove->move.direction = key;
playermove->move.moving = true;
playermove->move.sign = get_sign(key);
playermove->move.distance = 16;
}
static ssize_t attr_test_out(struct device *dev,
struct device_attribute *attr,
const char *buf, size_t count)
{
int sign = 0;
sscanf(buf, "%du", &sign);
get_sign(sign);
return count;
}
bool
wolf::can_eat(entity* other) {
if (other == nullptr) return true;
if (other->get_sign() != get_sign()){
++fertility;
return true;
}
return false;
}
int main() {
char a[100];
char b[100];
int i;
klee_make_symbolic(a, 100, "a-print");
klee_make_symbolic(b, 100, "b-print");
// klee_make_symbolic(&i, 4, "i");
return get_sign(a, b, i);
}
/// Sets *this to the next representable number closer to plus infinity (greater
/// = true) or minus infinity (greater = false).
void ieee_floatt::next_representable(bool greater)
{
if(is_NaN())
return;
bool old_sign=get_sign();
if(is_zero())
{
unpack(1);
set_sign(!greater);
return;
}
if(is_infinity())
{
if(get_sign()==greater)
{
make_fltmax();
set_sign(old_sign);
}
return;
}
bool dir;
if(greater)
dir=!get_sign();
else
dir=get_sign();
set_sign(false);
mp_integer old=pack();
if(dir)
++old;
else
--old;
unpack(old);
// sign change impossible (zero case caught earler)
set_sign(old_sign);
}
extern int str_int(const char *s, int *error)
{
int sign, uerror = 0;
s = get_sign(s, &sign, error);
unsigned long long val = str_ulong(s, &uerror);
*error = *error || uerror || (val > MAX_UINT) || int_overflow(sign, val);
return sign * val;
}
int main() {
int a[3];/*
klee_make_symbolic(&a[0], sizeof(a[0]), "a[0]");
klee_make_symbolic(&a[1], sizeof(a[1]), "a[1]");
klee_make_symbolic(&a[2], sizeof(a[2]), "a[2]");*/
a[0] = klee_int("a0");
a[1] = klee_int("a1");
a[2] = klee_int("a2");
return get_sign(a);
}
extern long long str_long(const char *s, int *error)
{
int sign, uerror = 0;
s = get_sign(s, &sign, error);
unsigned long long val = str_ulong(s, &uerror);
*error = *error || uerror || long_overflow(sign, val);
return sign * val;
}
int main(int argc, char **argv)
{
// Turns on printing
TNT_START_PRINT();
char a = 10;
// Defines int a as tainted
TNT_MAKE_MEM_TAINTED(&a,1);
int s = get_sign(a);
// Turns off printing
TNT_STOP_PRINT();
return s;
}
int main(int argc, char **argv)
{
// Turns on printing
//TNT_START_PRINT();
char a = 10;
// Defines int a as tainted
TNT_TAINT(&a,sizeof(a));
int s = get_sign(a);
// Turns off printing
//TNT_STOP_PRINT();
return s;
}
int main() {
int a;
klee_make_symbolic(&a, sizeof(a), "a");
char *tmp = getenv("KTEST_FILE");
FILE *file = fopen(".successful_test", "a");
fputs(tmp, file);
fputc('\n', file);
fclose(file);
return get_sign(a);
}
int32_t get_acceleration (int32_t distance_to_target, int32_t v, int32_t goal_v)
{
int32_t sign = get_sign(distance_to_target);
int32_t gooda;
// Compute our maximum acceleration
if (sign * v + max_a > max_v) {
gooda = sign * max_v - v ;
} else {
gooda = sign * max_a;
}
// Loop while accelerating that way would throw us too far
while (sign * (v + sd(v + gooda, max_a) - sd(goal_v, max_a) - distance_to_target) > 0) {
gooda = gooda - sign;
}
return gooda;
}
QNetworkReply* UpyunClientPrivate::downloadFile(const QString &remote_path) {
QString path_url = "/" + _bucket + "/" + remote_path;
QString now_time = rfc1123_datetime(time(NULL)).c_str();
QString auth = get_auth_string(_usr,
get_sign("GET", path_url, now_time, "0", _pwd));
// QUrl url = upyun_api_host + path_url;
QUrl url = QUrl::fromEncoded((g_upyun_api_host + path_url).toLocal8Bit());
QNetworkRequest request(url);
request.setRawHeader("Authorization", auth.toLatin1());
request.setRawHeader("Date", now_time.toLatin1());
QNetworkReply *reply = _qnam.get(request);
return reply;
}
int main()
{
int result = plus_one(5);
printf("%d\n", result);
char sign = get_sign(-5);
printf("Sign of %d is %c\n", -5, sign);
printf("Celius: %.2f\n", fahrenheit_to_celsius(44));
printf("%.2f^%d = %.2f\n", 3.0, 3, power(3.0, 3));
double triangleArea = calc_triangle_area(3, 4);
printf("Area: %.2f", triangleArea);
return (EXIT_SUCCESS);
}
QNetworkReply *UpyunClientPrivate::makeDir(const QString &remote_path) {
QString path_url = "/" + _bucket + "/" + remote_path;
QString now_time = rfc1123_datetime(time(NULL)).c_str();
QString auth = get_auth_string(_usr,
get_sign("POST", path_url, now_time, "0", _pwd));
// QUrl url = upyun_api_host + path_url;
QUrl url = QUrl::fromEncoded((g_upyun_api_host + path_url).toLocal8Bit());
QNetworkRequest request(url);
request.setRawHeader("Authorization", auth.toLatin1());
request.setRawHeader("Content-Length", "0");
request.setRawHeader("Content-Type", "text/html");
request.setRawHeader("Date", now_time.toLatin1());
request.setRawHeader("folder", "create");
request.setRawHeader("mkdir", "true");
QNetworkReply *reply = _qnam.post(request, "");
return reply;
}
t_nb *inf_div(t_nb *n1, t_nb *n2, t_base *s_base, char *ops)
{
t_nb *res;
if (zero_check(n2, s_base->base[0], ops[3], ops[2]))
{
my_putstr(SYNTAXE_ERROR_MSG);
return (NULL);
}
if (!(res = malloc(sizeof(*res))))
return (NULL);
res->sign = get_sign(n1, n2, ops[3]);
if (!(res->nb = malloc(sizeof(*res) * (n1->len + 2))))
return (NULL);
my_bzero(res->nb, n1->len + 2);
if (do_div(res, n1, n2, s_base) < 0)
return (NULL);
set_ret_sign(res);
if (!(res->len = clean_res(res, n1->len + 2, s_base->base, ops[3])))
return (NULL);
return (res);
}
int main() {
int a;
int main;
klee_make_symbolic(&a, sizeof(a), "a");
char *tmp = getenv("KTEST_FILE");
FILE *file = fopen("C:/Lab/gitOccf/Occf/open-code-coverage-framework/f2k/OccfInsertToTestCode/OccfInsertToTestCode/bin/Debug/.successful_test", "a");
fputs(tmp, file);
fputc('\n', file);
fclose(file);
char *tmp = getenv("KTEST_FILE");
FILE *file = fopen("C:/Lab/OccfProject/OpenCodeCoverageFramework/f2k/OccfInsertToTestCode/OccfInsertToTestCode/bin/Debug/.successful_test", "a");
fputs(tmp, file);
fputc('\n', file);
fclose(file);
char *tmp = getenv("KTEST_FILE");
FILE *file = fopen("C:/Lab/OccfProject/OpenCodeCoverageFramework/f2k/OccfInsertToTestCode/OccfInsertToTestCode/bin/Debug/.successful_test", "a");
fputs(tmp, file);
fputc('\n', file);
fclose(file);
char *tmp = getenv("KTEST_FILE");
FILE *file = fopen("C:/Lab/OccfProject/OpenCodeCoverageFramework/f2k/OccfInsertToTestCode/OccfInsertToTestCode/bin/Debug/.successful_test", "a");
fputs(tmp, file);
fputc('\n', file);
fclose(file);
return get_sign(a);
//end:
//end:
//end:
//end:
}
QNetworkReply* UpyunClientPrivate::uploadFile(const QByteArray &filedata,
const QString &remote_path) {
QString content_len = QString::number(filedata.length());
QString path_url = "/" + _bucket + "/" + remote_path;
QString now_time = rfc1123_datetime(time(NULL)).c_str();
QString auth = get_auth_string(_usr,
get_sign("PUT", path_url, now_time, content_len, _pwd));
// QUrl url = upyun_api_host + path_url;
QUrl url = QUrl::fromEncoded((g_upyun_api_host + path_url).toLocal8Bit());
QNetworkRequest request(url);
request.setRawHeader("Authorization", auth.toLatin1());
request.setRawHeader("Content-Length", content_len.toLatin1());
request.setRawHeader("Date", now_time.toLatin1());
request.setRawHeader("mkdir", "true");
QNetworkReply *reply = _qnam.put(request, filedata);
return reply;
}
int getnbr(char *str, char *base)
{
int i;
int acc;
int pow_val;
int sign;
str = get_sign(str, base, &sign);
if (str == 0)
return (0);
i = nbrlen(str) - 1;
if (my_nboverflow(str, i + 1, sign))
return (0);
acc = 0;
pow_val = 1;
while (i >= 0)
{
acc += pow_val * get_base_id(str[i], base);
pow_val = pow_val * my_strlen(base);
i -= 1;
}
return (acc * sign);
}