# math ## Functions: ### abs `math.abs(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the absolute value of x. ### acos `math.acos(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the arc cosine of x (in radians). ### asin `math.asin(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the arc sine of x (in radians). ### atan `math.atan(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the arc tangent of x (in radians). ### atan2 `math.atan2(x: number, y: number):` `number`

Name	Type	Description
x	`number`	Number
y	`number`	Number

Returns the arc tangent of y/x (in radians), but uses the signs of both parameters to find the quadrant of the result. (It also handles correctly the case of x being zero.) ### ceil `math.ceil(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the smallest integer larger than or equal to x. ### clamp `math.clamp(value: number[, min: number, max: number]):` `number`

Name	Type	Description
value	`number`	The value to clamp
min	`number`	The minimum value
max	`number`	The maximum value

Returns the clamped value. ### cos `math.cos(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the cosine of x (assumed to be in radians). ### cosh `math.cosh(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the hyperbolic cosine of x. ### deg `math.deg(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the angle x (given in radians) in degrees. ### exp `math.exp(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the value e power x. ### floor `math.floor(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the largest integer smaller than or equal to x. ### fmod `math.fmod(x: number, y: number):` `number`

Name	Type	Description
x	`number`	Number
y	`number`	Number

Returns the remainder of the division of x by y that rounds the quotient towards zero. ### frexp `math.frexp(x: number):` `number`, `number`

Name	Type	Description
x	`number`	Number

$$ x = m2^e $$ Returns `m` and `e` such that `x = m2e`, `e` is an integer and the absolute value of `m` is in the range `[0.5, 1)` (or zero when `x` is zero). ### huge `math.huge` `:` `number` The value HUGE\_VAL, a value larger than or equal to any other numerical value. ### **ldexp** `math.ldexp(x: number, e: number):` `number`

Name	Type	Description
x	`number`	Number
e	`number`	Number

$$ output = m2^e $$ Returns `m2e` (e should be an integer). ### log `math.log(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the natural logarithm of x. ### log10 `math.log10(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the base-10 logarithm of x. ### map `math.map(value: number, in_from: number, in_to: number, out_from: number, out_to: number[, should_clamp: boolean]):` `number`

Name	Type	Description
value	`number`	The value to map
in_from	`number`	In minimum value
in_to	`number`	In maximum value
out_from	`number`	Out minimum value
out_to	`number`	Out maximum value
should_clamp	`boolean`	Clamp `In` range

Linearly maps two number ranges and returns the mapped value. ### max `math.max(x: number[, ...]):` `number`

Name	Type	Description
x	`number`	Number
...		Comma-separated numbers to concatenate with `x`

Returns the maximum value among its arguments. ### min `math.min(x: number[, ...]):` `number`

Name	Type	Description
x	`number`	Number
...		Comma-separated numbers to concatenate with `x`

Returns the minimum value among its arguments. ### modf `math.modf(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns two numbers, the integral part of x and the fractional part of x. ### normalize\_yaw `math.normalize_yaw(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the normalized yaw angle value. ### pi `math.pi` `:` `number` The value of pi. ### pow `math.pow(x: number, y: number):` `number`

Name	Type	Description
x	`number`	Number
y	`number`	Number

Returns x^y. (You can also use the expression x^y to compute this value.) ### rad `math.rad(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the angle x (given in degrees) in radians. ### random `math.random([m [, n]]):` `number`

Name	Type	Description
m	`number`	Number
n	`number`	Number

This function is an interface to the simple pseudo-random generator function rand provided by ANSI C.When called without arguments, returns a uniform pseudo-random real number in the range \[0,1). When called with an integer number m, math.random returns a uniform pseudo-random integer in the range \[1, m]. When called with two integer numbers m and n, math.random returns a uniform pseudo-random integer in the range \[m, n]. ### randomseed `math.randomseed(x: number):` `number`

Name	Type	Description
x	`number`	Number

Sets x as the "seed" for the pseudo-random generator: equal seeds produce equal sequences of numbers. ### sin `math.sin(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the sine of x (assumed to be in radians). ### sinh `math.sinh(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the hyperbolic sine of x. ### sqrt `math.sqrt(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the square root of x. (You can also use the expression x^0.5 to compute this value.) ### tan `math.tan(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the tangent of x (assumed to be in radians). ### tanh `math.tanh(x: number):` `number`

Name	Type	Description
x	`number`	Number

Returns the hyperbolic tangent of x. --- # Agent Instructions: Querying This Documentation If you need additional information that is not directly available in this page, you can query the documentation dynamically by asking a question. Perform an HTTP GET request on the current page URL with the `ask` query parameter: ``` GET https://docs-csgo.neverlose.cc/documentation/variables/math.md?ask= ``` The question should be specific, self-contained, and written in natural language. The response will contain a direct answer to the question and relevant excerpts and sources from the documentation. Use this mechanism when the answer is not explicitly present in the current page, you need clarification or additional context, or you want to retrieve related documentation sections.