Manual Pages  — LIBMP

void mp_mfree(MINT *mp); mp_itom() returns an MINT with the value of n. mp_xtom() returns an MINT with the value of s, which is treated to be in hexadecimal. The return values from mp_itom() and mp_xtom() must be released with mp_mfree() when they are no longer needed. mp_mtox() returns a null-terminated hexadecimal string having the value of mp; its return value must be released with free() (free(3)) when it is no longer needed.

void mp_madd(const MINT *mp1, const MINT *mp2, MINT *rmp);

void mp_msub(const MINT *mp1, const MINT *mp2, MINT *rmp);

void mp_mult(const MINT *mp1, const MINT *mp2, MINT *rmp); mp_madd(), mp_msub(), and mp_mult() store the sum, difference, or product, respectively, of mp1 and mp2 in rmp.

void mp_mdiv(const MINT *nmp, const MINT *dmp, MINT *qmp, MINT *rmp);

void mp_sdiv(const MINT *nmp, short d, MINT *qmp, short *ro); mp_mdiv() computes the quotient and remainder of nmp and dmp and stores the result in qmp and rmp, respectively. mp_sdiv() is similar to mp_mdiv() except the divisor (, dmp or d) and remainder (, rmp or ro) are ordinary integers.

void mp_pow(const MINT *bmp, const MINT *emp, const MINT *mmp, MINT *rmp);

void mp_rpow(const MINT *bmp, short e, MINT *rmp); mp_rpow() computes the result of bmp raised to the emp, Ns, th power and reduced modulo mmp; the result is stored in rmp. mp_pow() computes the result of bmp raised to the e, Ns, th power and stores the result in rmp.

void mp_min(MINT *mp);

void mp_mout(const MINT *mp); mp_min() reads a line from standard input, tries to interpret it as a decimal number, and if successful, stores the result in mp. mp_mout() prints the value, in decimal, of mp to standard output (without a trailing newline).

void mp_gcd(const MINT *mp1, const MINT *mp2, MINT *rmp); mp_gcd() computes the greatest common divisor of mp1 and mp2 and stores the result in rmp.

int mp_mcmp(const MINT *mp1, const MINT *mp2); mcmp compares the values of mp1 and mp2 and returns 0 if the two values are equal, a value greater than 0 if mp1 is greater than mp2, and a value less than 0 if mp2 is greater than mp1.

void mp_move(const MINT *smp, MINT *tmp); mp_move() copies the value of smp to tmp (both values must be initialized).

void mp_msqrt(const MINT *nmp, MINT *xmp, MINT *rmp); mp_msqrt() computes the square root and remainder of nmp and stores them in xmp and rmp, respectively.