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FixedMath

Overview

Methods Index

fixed	abs(n: fixed)
fixed	add(a: fixed, b: fixed)
fixed	angle_dist(a: fixed, b: fixed)
Dictionary	angle_to_vec(radians: fixed)
int	ceil(n: fixed)
fixed	deg2rad(degrees: fixed)
fixed	div(a: fixed, b: fixed)
bool	eq(a: fixed, b: fixed)
int	floor(n: fixed)
bool	ge(a: fixed, b: fixed)
bool	gt(a: fixed, b: fixed)
bool	le(a: fixed, b: fixed)
fixed	lerp_angle(a: fixed, b: fixed, ratio: fixed)
fixed	lerp_string(a: fixed, b: fixed, ratio: fixed)
bool	lt(a: fixed, b: fixed)
fixed	mul(a: fixed, b: fixed)
Dictionary	normalized_vec(x: fixed, y: fixed)
Dictionary	normalized_vec_times(x: fixed, y: fixed, length: fixed)
fixed	powu(n: fixed, p: int)
Dictionary	rotate_vec(x: fixed, y: fixed, radians: fixed)
int	round(n: fixed)
int	sign(n: fixed)
fixed	sub(a: fixed, b: fixed)
Dictionary	vec_add(x1: fixed, y1: fixed, x2: fixed, y2: fixed)
fixed	vec_dist(x1: fixed, y1: fixed, x2: fixed, y2: fixed)
Dictionary	vec_div(x: fixed, y: fixed, div: fixed)
fixed	vec_len(x: fixed, y: fixed)
fixed	vec_len_squared(x: fixed, y: fixed)
Dictionary	vec_mul(x: fixed, y: fixed, mul: fixed)
Dictionary	vec_round(x: fixed, y: fixed)
Dictionary	vec_sub(x1: fixed, y1: fixed, x2: fixed, y2: fixed)
fixed	vec_to_angle(x: fixed, y: fixed)

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Method Descriptions

fixed abs(n: fixed) 🔗

Returns a fixed number string of the unsigned value of n

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fixed add(a: fixed, b: fixed) 🔗

Returns a fixed number string of a + b

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fixed angle_dist(a: fixed, b: fixed) 🔗

Returns a fixed number string of the difference between two angles.

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Dictionary angle_to_vec(radians: fixed) 🔗

Returns a ^Dictionary { ‘x’ : ^fixed , ‘y’ : ^fixed }, representing the normalized vector pointing towards the specified angle

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int ceil(n: fixed) 🔗

Returns n rounded up to the nearest integer number.

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fixed deg2rad(degrees: fixed) 🔗

Returns a fixed number string rounded down to the nearest integer number.

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fixed div(a: fixed, b: fixed) 🔗

Returns a fixed number string of a / b

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bool eq(a: fixed, b: fixed) 🔗

Returns true if a is equal to b, otherwise returns false

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int floor(n: fixed) 🔗

Returns n rounded down to the nearest integer number.

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bool ge(a: fixed, b: fixed) 🔗

Returns a fixed number string of a - b

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bool gt(a: fixed, b: fixed) 🔗

Returns true if a greater than b, otherwise returns false.

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bool le(a: fixed, b: fixed) 🔗

Returns true if a less than or equal to b, otherwise returns false

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fixed lerp_angle(a: fixed, b: fixed, ratio: fixed) 🔗

Returns a fixed number string of some angle between the angle a and angle b, where a is returned if ratio is “0.0”, b is returned if ratio is “1.0”, and the halfway point in between is returned if ratio is “0.5”

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fixed lerp_string(a: fixed, b: fixed, ratio: fixed) 🔗

Returns a fixed number string of some value between a and b, where a is returned if ratio is “0.0”, b is returned if ratio is “1.0”, and the halfway point in between is returned if ratio is “0.5”

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bool lt(a: fixed, b: fixed) 🔗

Returns true if a less than b, otherwise returns false.

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fixed mul(a: fixed, b: fixed) 🔗

Returns a fixed number string of a * b

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Dictionary normalized_vec(x: fixed, y: fixed) 🔗

Returns a ^Dictionary { ‘x’ : ^fixed , ‘y’ : ^fixed } of the specified 2D vector normalized (i.e. converted to a distance of 1 from {x:"0", y:"0"} towards the same angle)

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Dictionary normalized_vec_times(x: fixed, y: fixed, length: fixed) 🔗

Returns a ^Dictionary { ‘x’ : ^fixed , ‘y’ : ^fixed } of the specified 2D vector converted to a distance of length from {x:"0", y:"0"} towards the same angle

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fixed powu(n: fixed, p: int) 🔗

Returns a fixed number string of n to the power of p.

p must be a positive integer.

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Dictionary rotate_vec(x: fixed, y: fixed, radians: fixed) 🔗

Returns a ^Dictionary { ‘x’ : ^fixed , ‘y’ : ^fixed } of the vector rotated by radians.

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int round(n: fixed) 🔗

Returns n rounded to the nearest integer number.

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int sign(n: fixed) 🔗

Returns -1 if n is negative, +1 if n is positive, and 0 if n is 0

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fixed sub(a: fixed, b: fixed) 🔗

Returns a fixed number string of a - b

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Dictionary vec_add(x1: fixed, y1: fixed, x2: fixed, y2: fixed) 🔗

Returns a ^Dictionary { ‘x’ : ^fixed , ‘y’ : ^fixed } of the sum of two 2D vectors.

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fixed vec_dist(x1: fixed, y1: fixed, x2: fixed, y2: fixed) 🔗

Returns a fixed number string of the distance between two specified 2D vectors

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Dictionary vec_div(x: fixed, y: fixed, div: fixed) 🔗

Returns a ^Dictionary { ‘x’ : ^fixed , ‘y’ : ^fixed } of a 2D Vector divided by div

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fixed vec_len(x: fixed, y: fixed) 🔗

Returns a fixed number string of the distance between the specified 2D vector and {x:"0", y:"0"}

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fixed vec_len_squared(x: fixed, y: fixed) 🔗

Returns a fixed number string of x*x + y*y, effectively the length of the vector squared. Useful for more efficiently comparing distances if the exact length is not needed, as this function will skip the square root calculation needed for vector length.

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Dictionary vec_mul(x: fixed, y: fixed, mul: fixed) 🔗

Returns a ^Dictionary { ‘x’ : ^fixed , ‘y’ : ^fixed } of a 2D Vector multiplied by mul

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Dictionary vec_round(x: fixed, y: fixed) 🔗

Returns a ^Dictionary { ‘x’ : ^fixed , ‘y’ : ^fixed } of a 2D Vector divided by div

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Dictionary vec_sub(x1: fixed, y1: fixed, x2: fixed, y2: fixed) 🔗

Returns a ^Dictionary { ‘x’ : ^fixed , ‘y’ : ^fixed } of {x1, y1} - {x2, y2}

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fixed vec_to_angle(x: fixed, y: fixed) 🔗

Returns a fixed number string of the angle pointing towards a specified 2D vector