module Integer:sig..end
Extension of Big_int compatible with Zarith.
type'aformatter =Stdlib.Format.formatter -> 'a -> unit
typet =Z.t
val equal : t -> t -> bool
val compare : t -> t -> int
val le : t -> t -> bool
val ge : t -> t -> bool
val lt : t -> t -> bool
val gt : t -> t -> bool
val add : t -> t -> t
val sub : t -> t -> t
val mul : t -> t -> t
val shift_left : t -> t -> tInvalid_argument if second argument (count) is negativeval shift_right : t -> t -> tInvalid_argument if second argument (count) is negativeval shift_right_logical : t -> t -> tInvalid_argument if any argument is negativeval logand : t -> t -> t
val logor : t -> t -> t
val logxor : t -> t -> t
val lognot : t -> t
val min : t -> t -> t
val max : t -> t -> t
val e_div : t -> t -> tEuclidean division (that returns a positive rem).
Implemented by Z.ediv
Equivalent to C division if both operands are positive. Equivalent to a floored division if b > 0 (rounds downwards), otherwise rounds upwards. Note: it is possible that e_div (-a) b <> e_div a (-b).
val e_rem : t -> t -> tRemainder of the Euclidean division (always positive).
Implemented by Z.erem
val e_div_rem : t -> t -> t * te_div_rem a b returns (e_div a b, e_rem a b).
Implemented by Z.ediv_rem
val c_div : t -> t -> tTruncated division towards 0 (like in C99).
Implemented by Z.div
val c_rem : t -> t -> tRemainder of the truncated division towards 0 (like in C99).
Implemented by Z.rem
val c_div_rem : t -> t -> t * tc_div_rem a b returns (c_div a b, c_rem a b).
Implemented by Z.div_rem
val pgcd : t -> t -> tpgcd v 0 == pgcd 0 v == abs v. Result is always positive
val ppcm : t -> t -> tppcm v 0 == ppcm 0 v == 0. Result is always positive
val cast : size:t -> signed:bool -> value:t -> t
val abs : t -> t
val neg : t -> t
val succ : t -> t
val pred : t -> t
val is_zero : t -> bool
val is_one : t -> bool
val is_even : t -> bool
val zero : t
val one : t
val two : t
val four : t
val eight : t
val sixteen : t
val thirtytwo : t
val onethousand : t
val billion_one : t
val minus_one : t
val max_int64 : t
val min_int64 : t
val two_power_32 : t
val two_power_64 : t
val length : t -> t -> tb - a + 1
val of_int : int -> t
val of_int64 : Stdlib.Int64.t -> t
val of_int32 : Stdlib.Int32.t -> t
val to_int : t -> intto_int_exn.
Also consider using to_int_opt.Z.Overflow if too bigval to_int64 : t -> int64to_int64_exn.
Also consider using to_int64_opt.Z.Overflow if too bigval to_int32 : t -> int32to_int32_exn.
Also consider using to_int32_opt.Z.Overflow if too bigval to_int_exn : t -> intZ.Overflow if too bigval to_int64_exn : t -> int64Z.Overflow if too bigval to_int32_exn : t -> int32Z.Overflow if too bigval to_int_opt : t -> int optionReturns Some i if the number can be converted to an int,
or None otherwise.
val to_int64_opt : t -> int64 optionReturns Some i if the number can be converted to an int64,
or None otherwise.
val to_int32_opt : t -> int32 optionReturns Some i if the number can be converted to an int32,
or None otherwise.
val to_float : t -> float
val of_float : float -> t
val round_up_to_r : min:t -> r:t -> modu:t -> tround_up_to_r m r modu is the smallest number n such that
n>=m and n = r modulo modu
val round_down_to_r : max:t -> r:t -> modu:t -> tround_down_to_r m r modu is the largest number n such that
n<=m and n = r modulo modu
val two_power : t -> tComputes 2^n
Z.Overflow for exponents greater than 1024val two_power_of_int : int -> tComputes 2^n
val power_int_positive_int : int -> int -> tExponentiation
val extract_bits : start:t -> stop:t -> t -> t
val popcount : t -> int
val hash : t -> int
val to_string : t -> string
val of_string : string -> tInvalid_argument when the string cannot be parsed.val pretty : t formatterval pretty_hex : t formatterval pp_bin : ?nbits:int -> ?sep:string -> t formatterPrint binary format. Digits are output by blocs of 4 bits
separated by ~sep with at least ~nbits total bits. If nbits is
non positive, it will be ignored.
Positive values are prefixed with "0b" and negative values
are printed as their 2-complement (lnot) with prefix "1b".
val pp_hex : ?nbits:int -> ?sep:string -> t formatterPrint hexadecimal format. Digits are output by blocs of 16 bits
(4 hex digits) separated by ~sep with at least ~nbits total bits.
If nbits is non positive, it will be ignored.
Positive values are preffixed with "0x" and negative values
are printed as their 2-complement (lnot) with prefix "1x".