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Module type Float_intf.S

module type S = sig .. end
type t 
type outer = t 
include Floatable.S
include Identifiable.S
max and min will return nan if either argument is nan.

The validate_* functions always fail if class is Nan or Infinite.

include Comparable.With_zero
include Robustly_comparable.S
The results of robust comparisons on nan should be considered undefined.
val validate_ordinary : t Validate.check
validate_ordinary fails if class is Nan or Infinite.
val nan : t
val infinity : t
val neg_infinity : t
val max_value : t
val min_value : t
val zero : t
val epsilon : t
val epsilon_float : t
val max_finite_value : t
val min_positive_value : t
val of_int : int -> t
val to_int : t -> int
val of_int64 : int64 -> t
val to_int64 : t -> int64
val round : ?dir:[ `Down | `Nearest | `Up | `Zero ] -> t -> t
val iround : ?dir:[ `Down | `Nearest | `Up | `Zero ] -> t -> int option
val iround_exn : ?dir:[ `Down | `Nearest | `Up | `Zero ] -> t -> int
val round_towards_zero : t -> t
val round_down : t -> t
val round_up : t -> t
val round_nearest : t -> t
val iround_towards_zero : t -> int option
val iround_down : t -> int option
val iround_up : t -> int option
val iround_nearest : t -> int option
val iround_towards_zero_exn : t -> int
val iround_down_exn : t -> int
val iround_up_exn : t -> int
val iround_nearest_exn : t -> int
val iround_lbound : t
If f <= iround_lbound || f >= iround_ubound, then iround* functions will refuse to round f, returning None or raising as appropriate.
val iround_ubound : t
val is_nan : t -> bool
val is_inf : t -> bool
includes positive and negative Float.infinity
val min_inan : t -> t -> t
min and max that return the other value if one of the values is a nan. Returns nan if both arguments are nan.
val max_inan : t -> t -> t
val (+) : t -> t -> t
val (-) : t -> t -> t
val ( * ) : t -> t -> t
val (/) : t -> t -> t
module Parts: sig .. end
Returns the fractional part and the whole (i.e. 
val modf : t -> Parts.t
val mod_float : t -> t -> t
mod_float x y returns a result with the same sign as x. It returns nan if y is 0. It is basically let mod_float x y = x -. float(truncate(x/.y)) *. y not let mod_float x y = x -. floor(x/.y) *. y and therefore resembles mod on integers more than %.
val add : t -> t -> t
val sub : t -> t -> t
val neg : t -> t
val scale : t -> t -> t
val abs : t -> t
val to_string_hum : ?delimiter:char -> ?decimals:int -> ?strip_zero:bool -> float -> string
Pretty print float, for example to_string_hum ~decimals:3 1234.1999 = "1_234.200" to_string_hum ~decimals:3 ~strip_zero:true 1234.1999 = "1_234.2" . No delimiters are inserted to the right of the decimal.
val ldexp : t -> int -> t
val frexp : t -> t * int
module Class: sig .. end
val classify : t -> Class.t
val is_finite : t -> bool
module Sign: sig .. end
val sign : t -> Sign.t
module Terse: sig .. end
val outer_of_sexp : Sexplib.Sexp.t -> outer
val sexp_of_outer : outer -> Sexplib.Sexp.t
val bin_outer : outer Bin_prot.Type_class.t
val bin_read_outer : outer Bin_prot.Read_ml.reader
val bin_read_outer_ : outer Bin_prot.Unsafe_read_c.reader
val bin_read_outer__ : (int -> outer) Bin_prot.Unsafe_read_c.reader
val bin_reader_outer : outer Bin_prot.Type_class.reader
val bin_size_outer : outer Bin_prot.Size.sizer
val bin_write_outer : outer Bin_prot.Write_ml.writer
val bin_write_outer_ : outer Bin_prot.Unsafe_write_c.writer
val bin_writer_outer : outer Bin_prot.Type_class.writer

max and min will return nan if either argument is nan.

The validate_* functions always fail if class is Nan or Infinite.

The results of robust comparisons on nan should be considered undefined.

validate_ordinary fails if class is Nan or Infinite.

If f <= iround_lbound || f >= iround_ubound, then iround* functions will refuse to round f, returning None or raising as appropriate.

includes positive and negative Float.infinity

min and max that return the other value if one of the values is a nan. Returns nan if both arguments are nan.

Returns the fractional part and the whole (i.e. integer) part. For example, modf (-3.14) returns { fractional = -0.14; integral = -3.; }!

mod_float x y returns a result with the same sign as x. It returns nan if y is 0. It is basically let mod_float x y = x -. float(truncate(x/.y)) *. y not let mod_float x y = x -. floor(x/.y) *. y and therefore resembles mod on integers more than %.

Pretty print float, for example to_string_hum ~decimals:3 1234.1999 = "1_234.200" to_string_hum ~decimals:3 ~strip_zero:true 1234.1999 = "1_234.2" . No delimiters are inserted to the right of the decimal.