gmlewis/fonts/geom - mooncakes.io

README
T
AbsoluteCmd
T
Cmd
- ::gen_pathFont::gen_path
- ::gen_pathsFont::gen_paths
T
GerberLP
T
Glyph
- ::to_stringParamPair::to_string
- ::lengthParams::length
- ::bboxPathCmd::bbox
- ::clonePathCmd::clone
- ::from_svg_cmdPathCmd::from_svg_cmd
- ::to_svg_cmdPathCmd::to_svg_cmd
- ::innerPathCmdFn::inner
- ::cloneSVGPath::clone
- ::from_glyphSVGPath::from_glyph
- ::to_glyphSVGPath::to_glyph
V
glyph_bbox
V
translate_path

gmlewis/fonts/geom does not have a README file

AffineMatrix

pub(all) struct AffineMatrix {
  a : Double
  b : Double
  c : Double
  d : Double
  tx : Double
  ty : Double
}

AffineMatrix represents a 2D affine transform that preserves parallel lines. See: https://en.wikipedia.org/wiki/Affine_transformation

impl Eq for AffineMatrix

impl Mul for AffineMatrix

impl Show for AffineMatrix

AffineMatrix::clone

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fn AffineMatrix::clone(self : AffineMatrix) -> AffineMatrix

clone returns a copy of this 2D affine matrix.

AffineMatrix::copy

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fn AffineMatrix::copy(self : AffineMatrix, other : AffineMatrix) -> Unit

copy copies another 2D affine matrix into itself.

AffineMatrix::determinant

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fn AffineMatrix::determinant(self : AffineMatrix) -> Double

determinant returns the determinant of the 2D affine matrix.

AffineMatrix::from_center_scale

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fn AffineMatrix::from_center_scale(center : Vec2, scale : Vec2) -> AffineMatrix

AffineMatrix::from_center_scale returns a new 2D affine matrix that scales from the provided center point.

AffineMatrix::from_rotation

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fn AffineMatrix::from_rotation(angle : Double) -> AffineMatrix

AffineMatrix::from_rotation returns a new 2D affine matrix from a rotation angle in degrees.

AffineMatrix::from_scale

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fn AffineMatrix::from_scale(v : Vec2) -> AffineMatrix

AffineMatrix::from_scale returns a new 2D affine matrix from scale v.

AffineMatrix::from_scale_scalar

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fn AffineMatrix::from_scale_scalar(s : Double) -> AffineMatrix

AffineMatrix::from_scale_scalar returns a new 2D affine matrix from uniform scale s.

AffineMatrix::from_transform

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fn AffineMatrix::from_transform(transform : Transform) -> AffineMatrix

AffineMatrix::from_transform returns a new 2D affine matrix from a Transform.

AffineMatrix::from_translation

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fn AffineMatrix::from_translation(v : Vec2) -> AffineMatrix

AffineMatrix::from_translation returns a new 2D affine matrix from translation v.

AffineMatrix::from_translation_points

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fn AffineMatrix::from_translation_points(p1 : Vec2, p2 : Vec2) -> AffineMatrix

AffineMatrix::from_translation_points returns a new 2D affine matrix that translates from p1 to p2.

AffineMatrix::invert

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fn AffineMatrix::invert(self : AffineMatrix) -> AffineMatrix

invert inverts this 2D affine matrix, returning a new one.

AffineMatrix::is_identity

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fn AffineMatrix::is_identity(self : AffineMatrix) -> Bool

is_identity returns true if this 2D affine matrix is the identity matrix.

AffineMatrix::is_inf

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fn AffineMatrix::is_inf(self : AffineMatrix) -> Bool

is_inf returns true if any elements of this 2D affine matrix are infinite.

AffineMatrix::is_invertible

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fn AffineMatrix::is_invertible(self : AffineMatrix) -> Bool

is_invertible returns true if this 2D affine matrix is invertible.

AffineMatrix::is_mirror

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fn AffineMatrix::is_mirror(self : AffineMatrix) -> Bool

is_mirror returns true if this 2D affine matrix mirrors either axis.

AffineMatrix::is_nan

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fn AffineMatrix::is_nan(self : AffineMatrix) -> Bool

is_nan returns true if any elements of this 2D affine matrix are NaN (not a number).

AffineMatrix::is_orthogonal

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fn AffineMatrix::is_orthogonal(self : AffineMatrix, tolerance? : Double) -> Bool

is_orthogonal returns true if the two basis vectors of the 2D affine matrix are orthogonal within the provided tolerance.

AffineMatrix::is_uniform_scale

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fn AffineMatrix::is_uniform_scale(self : AffineMatrix, tolerance? : Double) -> Bool

is_uniform_scale returns true if both basis vectors of this 2D affine matrix are of the same length.

AffineMatrix::mul_without_translation

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fn AffineMatrix::mul_without_translation(self : AffineMatrix, m : AffineMatrix) -> AffineMatrix

mul_without_translation multiplies this 2D affine matrix with another, discarding the transation, and returning a new one.

AffineMatrix::new

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fn AffineMatrix::new(a? : Double, b? : Double, c? : Double, d? : Double, tx? : Double, ty? : Double) -> AffineMatrix

AffineMatrix::new returns a new 2D affine matrix.

AffineMatrix::normalize

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fn AffineMatrix::normalize(self : AffineMatrix) -> AffineMatrix

normalize scales the basis vectors of this 2D affine matrix so that they have unit length, returning a new one.

AffineMatrix::origin

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fn AffineMatrix::origin(self : AffineMatrix, v : Vec2) -> AffineMatrix

origin translates the matrix such that the center of future scale, rotate, and skew transformations will be v, returning a new one.

AffineMatrix::pre_mul

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fn AffineMatrix::pre_mul(self : AffineMatrix, m : AffineMatrix) -> AffineMatrix

pre_mul multiplies another matrix m by this 2D affine matrix, returning a new one.

AffineMatrix::pre_mul_without_translation

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fn AffineMatrix::pre_mul_without_translation(self : AffineMatrix, m : AffineMatrix) -> AffineMatrix

pre_mul_without_translation multiplies another matrix m by this 2D affine matrix, discarding the translate and returning a new affine matrix.

AffineMatrix::rotate

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fn AffineMatrix::rotate(self : AffineMatrix, angle : Double) -> AffineMatrix

rotate rotates this 2D affine matrix by angle degrees, returning a new one.

AffineMatrix::scale

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fn AffineMatrix::scale(self : AffineMatrix, v : Vec2) -> AffineMatrix

scale scales this 2D affine matrix by v, returning a new one.

AffineMatrix::scale_scalar

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fn AffineMatrix::scale_scalar(self : AffineMatrix, s : Double) -> AffineMatrix

scale_scalar scales this 2D affine matrix uniformly by s, returning a new one.

AffineMatrix::self_mul

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fn AffineMatrix::self_mul(self : AffineMatrix, m : AffineMatrix) -> Unit

self_mul multiplies this 2D affine matrix with another, storing the result in itself.

AffineMatrix::skew

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fn AffineMatrix::skew(self : AffineMatrix, angle : Double) -> AffineMatrix

skew skews the Y basis vector of this 2D affine matrix by angle degrees, returning a new one.

AffineMatrix::to_transform

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fn AffineMatrix::to_transform(self : AffineMatrix, origin? : Vec2) -> Transform

to_transform converts this 2D affine matrix to a Transform.

AffineMatrix::translate

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fn AffineMatrix::translate(self : AffineMatrix, v : Vec2) -> AffineMatrix

translate translates this 2D affine matrix by position v, returning a new one.

Alignment

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pub(all) enum Alignment {
  Unchanged
  TopLeft
  TopCenter
  TopRight
  CenterLeft
  Center
  CenterRight
  BaselineLeft
  BaselineCenter
  BaselineRight
  BottomLeft
  BottomCenter
  BottomRight
  RatioXY(Double, Double)
}

Alignment represents where to place the origin (0,0) of the glyph relative to its minimum bounding box.

impl Eq for Alignment

impl Show for Alignment

BoundingBox

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pub(all) struct BoundingBox {
  min : Vec2
  max : Vec2
}

BoundingBox represents a minimum bounding box as an axis-aligned rectangle.

impl Eq for BoundingBox

impl Show for BoundingBox

BoundingBox::area

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fn BoundingBox::area(self : BoundingBox) -> Double

area represents the signed area of the bounding box (width*height). If min > max, the area will be negative.

BoundingBox::boolean_intersect

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fn BoundingBox::boolean_intersect(self : BoundingBox, boxes : Array[BoundingBox]) -> BoundingBox?

boolean_intersect returns a new BoundingBox representing the intersection of this bounding box with one or more boxes if one exists.

BoundingBox::bounds

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fn BoundingBox::bounds(self : BoundingBox) -> (Double, Double, Double, Double)

bounds returns the tuple (xmin, ymin, xmax, ymax).

BoundingBox::canonicalize

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fn BoundingBox::canonicalize(self : BoundingBox) -> Unit

canonicalize ensures that min < max.

BoundingBox::center

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fn BoundingBox::center(self : BoundingBox) -> Vec2

center returns the center point of the bounding box (the average of min and max).

BoundingBox::clone

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fn BoundingBox::clone(self : BoundingBox) -> BoundingBox

clone makes a new copy of the bounding box.

BoundingBox::contains_bounding_box

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fn BoundingBox::contains_bounding_box(self : BoundingBox, box : BoundingBox) -> Bool

contains_bounding_box returns true if box is contained within this bounding box.

BoundingBox::contains_point

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fn BoundingBox::contains_point(self : BoundingBox, point : Vec2) -> Bool

contains_point returns true if point is contained within this bounding box.

BoundingBox::copy

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fn BoundingBox::copy(self : BoundingBox, other : BoundingBox) -> Unit

BoundingBox::dx

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fn BoundingBox::dx(self : BoundingBox) -> Double

dx returns the width of the bounding box.

BoundingBox::dy

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fn BoundingBox::dy(self : BoundingBox) -> Double

dy returns the height of the bounding box.

BoundingBox::expand_scalar

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fn BoundingBox::expand_scalar(self : BoundingBox, distance : Double) -> Unit

expand_scalar expands this bounding box by a scalar distance on all sides.

BoundingBox::expand_to_include_bounding_box

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fn BoundingBox::expand_to_include_bounding_box(self : BoundingBox, box : BoundingBox) -> Unit

expand_to_include_bounding_box expands this bounding box to also cover box.

BoundingBox::expand_to_include_point

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fn BoundingBox::expand_to_include_point(self : BoundingBox, point : Vec2) -> Unit

expand_to_include_point expands this bounding box to include point.

BoundingBox::from_points

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fn BoundingBox::from_points(points : Array[Vec2]) -> BoundingBox

BoundingBox::from_points constructs the minimum bounding box containing points.

BoundingBox::height

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fn BoundingBox::height(self : BoundingBox) -> Double

height returns the height of the bounding box.

BoundingBox::inset

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fn BoundingBox::inset(self : BoundingBox, n : Double) -> BoundingBox

inset returns the bounding box inset by n, which may be negative. If either of the dimensions is less than 2*n then an empty bounding box near the center will be returned.

BoundingBox::intersect

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fn BoundingBox::intersect(self : BoundingBox, s : BoundingBox) -> BoundingBox

intersect returns the largest rectangle contained by both self and s. If the two rectangles do not overlap then an empty rectangle will be returned.

BoundingBox::is_empty

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fn BoundingBox::is_empty(self : BoundingBox) -> Bool

is_empty returns true if the bounding box has no area.

BoundingBox::is_in

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fn BoundingBox::is_in(self : BoundingBox, s : BoundingBox) -> Bool

is_in reports whether every point in self is in s.

BoundingBox::is_inf

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fn BoundingBox::is_inf(self : BoundingBox) -> Bool

is_inf returns true if either min or max is_inf.

BoundingBox::is_nan

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fn BoundingBox::is_nan(self : BoundingBox) -> Bool

is_nan returns true if either min or max is_nan.

BoundingBox::max_reversed

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fn BoundingBox::max_reversed() -> BoundingBox

BoundingBox::max_reversed returns a new BoundingBox with min=+infinity and max=-infinity.

BoundingBox::new

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fn BoundingBox::new(min? : Vec2, max? : Vec2) -> BoundingBox

BoundingBox::new returns a new empty BoundingBox.

BoundingBox::overlaps

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fn BoundingBox::overlaps(self : BoundingBox, s : BoundingBox) -> Bool

overlaps reports whether self and s have a non-empty intersection.

BoundingBox::overlaps_bounding_box

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fn BoundingBox::overlaps_bounding_box(self : BoundingBox, box : BoundingBox) -> Bool

overlaps_bounding_box returns true if any part of box overlaps this bounding box.

BoundingBox::size

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fn BoundingBox::size(self : BoundingBox) -> Vec2

size returns a vector representing the (width,height) of the bounding box.

BoundingBox::union

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fn BoundingBox::union(self : BoundingBox, s : BoundingBox) -> BoundingBox

union returns the smallest bounding box that contains both self and s.

BoundingBox::width

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fn BoundingBox::width(self : BoundingBox) -> Double

width returns the width of the bounding box.

Transform

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pub(all) struct Transform {
  position : Vec2
  rotation : Double
  scale : Vec2
  skew : Double
  origin : Vec2
}

Transform represents transform arguments.

impl Eq for Transform

impl Show for Transform

Transform::new

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fn Transform::new(position? : Vec2, rotation? : Double, scale? : Vec2, skew? : Double, origin? : Vec2) -> Transform

Transform::new returns a new identity transform.

Vec2

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pub(all) struct Vec2 {
  x : Double
  y : Double
}

Vec2 represents a 2D vector.

impl Add for Vec2

impl Div for Vec2

impl Eq for Vec2

impl Mul for Vec2

impl Neg for Vec2

impl Show for Vec2

impl Sub for Vec2

impl ToJson for Vec2

impl FromJson for Vec2

Vec2::add_scalar

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fn Vec2::add_scalar(self : Vec2, s : Double) -> Vec2

add_scalar adds scalar s to self and returns a new vector.

Vec2::affine_transform

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fn Vec2::affine_transform(self : Vec2, affine_matrix : AffineMatrix) -> Vec2

affine_transform transforms this Vec2 by the affine_matrix. This is used when transforming a point or position.

Vec2::affine_transform_without_translation

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fn Vec2::affine_transform_without_translation(self : Vec2, affine_matrix : AffineMatrix) -> Vec2

affine_transform_without_translation transforms this Vec2 by the affine_matrix but without performing translation. This is used when transforming a normal or tangent.

Vec2::almost_equals

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fn Vec2::almost_equals(self : Vec2, other : Vec2, tolerance? : Double) -> Bool

almost_equals returns true if the vectors are equal within the provided tolerance.

Vec2::angle

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fn Vec2::angle(self : Vec2) -> Double

angle returns the angle of this vector in degrees.

Vec2::angle_radians

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fn Vec2::angle_radians(self : Vec2) -> Double

angle_radians returns the angle of this vector in radians.

Vec2::apply

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fn Vec2::apply(self : Vec2, func : (Double) -> Double) -> Vec2

apply applies the provided func to both components of this vector and returns a new one.

Vec2::ceil

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fn Vec2::ceil(self : Vec2) -> Vec2

ceil rounds the components of this vector to the next-higher integer.

Vec2::clone

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fn Vec2::clone(self : Vec2) -> Vec2

clone returns a new copy of this Vec2.

Vec2::copy

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fn Vec2::copy(self : Vec2, v : Vec2) -> Unit

copy copies v into this Vec2.

Vec2::cross

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fn Vec2::cross(self : Vec2, v : Vec2) -> Double

cross returns the cross product between this vector and the vector v.

Vec2::distance

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fn Vec2::distance(self : Vec2, v : Vec2) -> Double

distance returns the distance from this vector to v.

Vec2::distance_squared

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fn Vec2::distance_squared(self : Vec2, v : Vec2) -> Double

distance_squared returns the squared distance from this vector to v.

Vec2::distance_squared_tuple

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fn Vec2::distance_squared_tuple(a : (Double, Double), b : (Double, Double)) -> Double

distance_squared_tuple returns the squared distance between two tuples.

Vec2::dot

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fn Vec2::dot(self : Vec2, v : Vec2) -> Double

dot returns the dot product between this vector and the vector v.

Vec2::floor

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fn Vec2::floor(self : Vec2) -> Vec2

floor rounds the components of this vector to the next-lower integer.

Vec2::from_angle

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fn Vec2::from_angle(angle : Double) -> Vec2

Vec2::from_angle returns a new unit Vec2 from an angle in degrees.

Vec2::from_angle_radians

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fn Vec2::from_angle_radians(rad : Double) -> Vec2

Vec2::from_angle_radians returns a new unit Vec2 from an angle in radians.

Vec2::from_tuple

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fn Vec2::from_tuple(t : (Double, Double)) -> Vec2

from_tuple creates a Vec2 from a tuple.

Vec2::infinity

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fn Vec2::infinity() -> Vec2

Vec2::infinity returns a new Vec2 with infinite x and y.

Vec2::is_clockwise_from

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fn Vec2::is_clockwise_from(self : Vec2, v : Vec2) -> Bool

is_clockwise_from returns true if this vector lies in the 180° region clockwise from v.

Vec2::is_in

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fn Vec2::is_in(self : Vec2, box : BoundingBox) -> Bool

Vec2::is_inf

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fn Vec2::is_inf(self : Vec2) -> Bool

is_inf returns true if either component is infinite.

Vec2::is_nan

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fn Vec2::is_nan(self : Vec2) -> Bool

is_nan returns true if either component is NaN (not a number).

Vec2::is_valid

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fn Vec2::is_valid(self : Vec2) -> Bool

is_valid returns whether or not this Vec2 is valid.

Vec2::is_zero

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fn Vec2::is_zero(self : Vec2) -> Bool

is_zero returns true if both components of this vector are 0.

Vec2::length

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fn Vec2::length(self : Vec2) -> Double

length returns the length of this vector.

Vec2::length_squared

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fn Vec2::length_squared(self : Vec2) -> Double

length_squared returns the squared length of this vector.

Vec2::max

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fn Vec2::max(self : Vec2, v : Vec2) -> Unit

max compares the components of this vector and v and sets this vector's components to the maximum of the two.

Vec2::min

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fn Vec2::min(self : Vec2, v : Vec2) -> Unit

min compares the components of this vector and v and sets this vector's components to the minimum of the two.

Vec2::mix

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fn Vec2::mix(self : Vec2, v : Vec2, t : Double) -> Vec2

mix linearly interpolates this vector to the vector v by the mixing factor t (0..1) and returns a new one.

Vec2::mul_scalar

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fn Vec2::mul_scalar(self : Vec2, s : Double) -> Vec2

mul_scalar multiplies scalar s to self and returns a new vector.

Vec2::neg_infinity

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fn Vec2::neg_infinity() -> Vec2

Vec2::neg_infinity returns a new Vec2 with negative infinite x and y.

Vec2::negate

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fn Vec2::negate(self : Vec2) -> Unit

negate multiplies both components (in-place) by -1.

Vec2::new

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fn Vec2::new(x? : Double, y? : Double) -> Vec2

Vec2::new returns a new Vec2.

Vec2::normalize

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fn Vec2::normalize(self : Vec2) -> Unit

normalize scales this vector so that its length is 1. Note that this vector must already have a non-zero length.

Vec2::project_onto

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fn Vec2::project_onto(self : Vec2, v : Vec2) -> Vec2

project_onto projects this vector onto a non-zero vector v and returns a new one.

Vec2::rotate

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fn Vec2::rotate(self : Vec2, angle : Double) -> Vec2

rotate rotates this vector clockwise by angle in degrees.

Vec2::rotate90

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fn Vec2::rotate90(self : Vec2) -> Vec2

rotate90 rotates this vector clockwise by 90° and returns a new one.

Vec2::rotate_neg90

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fn Vec2::rotate_neg90(self : Vec2) -> Vec2

rotate_neg90 rotates this vector counter-clockwise by 90° and returns a new one.

Vec2::rotate_radians

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fn Vec2::rotate_radians(self : Vec2, rad : Double) -> Vec2

rotate_radians rotates this vector clockwise by rad in radians and returns a new one.

Vec2::round

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fn Vec2::round(self : Vec2) -> Vec2

round rounds the components of this vector to the next-higher integer.

Vec2::round_to_fixed

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fn Vec2::round_to_fixed(self : Vec2, digits : Int) -> Vec2

round_to_fixed rounds the components of this vector to the provided number of digits and returns a new one.

Vec2::round_to_multiple

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fn Vec2::round_to_multiple(self : Vec2, v : Double) -> Vec2

round_to_multiple rounds the components of this vector to the closest multiple of v and returns a new one.

Vec2::self_add

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fn Vec2::self_add(self : Vec2, v : Vec2) -> Unit

self_add adds the vector v to this vector.

Vec2::self_add_scalar

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fn Vec2::self_add_scalar(self : Vec2, s : Double) -> Unit

self_add_scalar adds scalar s to this vector.

Vec2::self_div

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fn Vec2::self_div(self : Vec2, v : Vec2) -> Unit

self_div divides this vector by vector v.

Vec2::self_div_scalar

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fn Vec2::self_div_scalar(self : Vec2, s : Double) -> Unit

self_div_scalar divides this vector by scalar s.

Vec2::self_mul

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fn Vec2::self_mul(self : Vec2, v : Vec2) -> Unit

self_mul multiplies the vector v to this vector.

Vec2::self_mul_scalar

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fn Vec2::self_mul_scalar(self : Vec2, s : Double) -> Unit

self_mul_scalar multiplies scalar s to this vector.

Vec2::self_sub

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fn Vec2::self_sub(self : Vec2, v : Vec2) -> Unit

self_sub subtracts the vector v from this vector.

Vec2::self_sub_scalar

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fn Vec2::self_sub_scalar(self : Vec2, s : Double) -> Unit

self_sub_scalar subtracts scalar s from this vector.

Vec2::set

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fn Vec2::set(self : Vec2, x : Double, y : Double) -> Unit

set sets the x and y components of this Vec2.

Vec2::to_tuple

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fn Vec2::to_tuple(self : Vec2) -> (Double, Double)

to_tuple returns this Vec2 as a (Double, Double) tuple.

Vec2::transform

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fn Vec2::transform(self : Vec2, position? : Vec2, rotation? : Double, scale? : Vec2, skew? : Double, origin? : Vec2) -> Vec2

transform provides a convenient API for a common task.

DEFAULT_TOLERANCE

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let DEFAULT_TOLERANCE : Double

DEFAULT_TOLERANCE is the default tolerance used for floating point comparisons.

bbox

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fn bbox(minx : Double, miny : Double, maxx : Double, maxy : Double) -> BoundingBox

bbox is a convenience function.

pt

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fn pt(x : Double, y : Double) -> Vec2

pt is shorthand for vec2(x, y).

rect

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fn rect(x0 : Double, y0 : Double, x1 : Double, y1 : Double) -> BoundingBox

rect is shorthand for @draw.bbox(x0, y0, x1, y1). The returned bounding box has minimum and maximum coordinates swapped if necessary.

round_to_fixed

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fn round_to_fixed(val : Double, digits : Int) -> Double

round_to_fixed rounds a Double to the provided number of digits.

vec2

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fn vec2(x : Double, y : Double) -> Vec2

vec2 returns a new Vec2.

Source Files

Site source Report issue Packages Build queue Skills Statistics

#AffineMatrix

#AffineMatrix::clone

#AffineMatrix::copy

#AffineMatrix::determinant

#AffineMatrix::from_center_scale

#AffineMatrix::from_rotation

#AffineMatrix::from_scale

#AffineMatrix::from_scale_scalar

#AffineMatrix::from_transform

#AffineMatrix::from_translation

#AffineMatrix::from_translation_points

#AffineMatrix::invert

#AffineMatrix::is_identity

#AffineMatrix::is_inf

#AffineMatrix::is_invertible

#AffineMatrix::is_mirror

#AffineMatrix::is_nan

#AffineMatrix::is_orthogonal

#AffineMatrix::is_uniform_scale

#AffineMatrix::mul_without_translation

#AffineMatrix::new

#AffineMatrix::normalize

#AffineMatrix::origin

#AffineMatrix::pre_mul

#AffineMatrix::pre_mul_without_translation

#AffineMatrix::rotate

#AffineMatrix::scale

#AffineMatrix::scale_scalar

#AffineMatrix::self_mul

#AffineMatrix::skew

#AffineMatrix::to_transform

#AffineMatrix::translate

#Alignment

#BoundingBox

#BoundingBox::area

#BoundingBox::boolean_intersect

#BoundingBox::bounds

#BoundingBox::canonicalize

#BoundingBox::center

#BoundingBox::clone

#BoundingBox::contains_bounding_box

#BoundingBox::contains_point

#BoundingBox::copy

#BoundingBox::dx

#BoundingBox::dy

#BoundingBox::expand_scalar

#BoundingBox::expand_to_include_bounding_box

#BoundingBox::expand_to_include_point

#BoundingBox::from_points

#BoundingBox::height

#BoundingBox::inset

#BoundingBox::intersect

#BoundingBox::is_empty

#BoundingBox::is_in

#BoundingBox::is_inf

#BoundingBox::is_nan

#BoundingBox::max_reversed

#BoundingBox::new

#BoundingBox::overlaps

#BoundingBox::overlaps_bounding_box

#BoundingBox::size

#BoundingBox::union

#BoundingBox::width

#Transform

#Transform::new

#Vec2

#Vec2::add_scalar

#Vec2::affine_transform

#Vec2::affine_transform_without_translation

#Vec2::almost_equals

#Vec2::angle

#Vec2::angle_radians

#Vec2::apply

#Vec2::ceil

#Vec2::clone

#Vec2::copy

#Vec2::cross

#Vec2::distance

#Vec2::distance_squared

#Vec2::distance_squared_tuple

AffineMatrix

AffineMatrix::clone

AffineMatrix::copy

AffineMatrix::determinant

AffineMatrix::from_center_scale

AffineMatrix::from_rotation

AffineMatrix::from_scale

AffineMatrix::from_scale_scalar

AffineMatrix::from_transform

AffineMatrix::from_translation

AffineMatrix::from_translation_points

AffineMatrix::invert

AffineMatrix::is_identity

AffineMatrix::is_inf

AffineMatrix::is_invertible

AffineMatrix::is_mirror

AffineMatrix::is_nan

AffineMatrix::is_orthogonal

AffineMatrix::is_uniform_scale

AffineMatrix::mul_without_translation

AffineMatrix::new

AffineMatrix::normalize

AffineMatrix::origin

AffineMatrix::pre_mul

AffineMatrix::pre_mul_without_translation

AffineMatrix::rotate

AffineMatrix::scale

AffineMatrix::scale_scalar

AffineMatrix::self_mul

AffineMatrix::skew

AffineMatrix::to_transform

AffineMatrix::translate

Alignment

BoundingBox

BoundingBox::area

BoundingBox::boolean_intersect

BoundingBox::bounds

BoundingBox::canonicalize

BoundingBox::center

BoundingBox::clone

BoundingBox::contains_bounding_box

BoundingBox::contains_point

BoundingBox::copy

BoundingBox::dx

BoundingBox::dy

BoundingBox::expand_scalar

BoundingBox::expand_to_include_bounding_box

BoundingBox::expand_to_include_point

BoundingBox::from_points

BoundingBox::height

BoundingBox::inset

BoundingBox::intersect

BoundingBox::is_empty

BoundingBox::is_in

BoundingBox::is_inf

BoundingBox::is_nan

BoundingBox::max_reversed

BoundingBox::new

BoundingBox::overlaps

BoundingBox::overlaps_bounding_box

BoundingBox::size

BoundingBox::union

BoundingBox::width

Transform

Transform::new

Vec2

Vec2::add_scalar

Vec2::affine_transform

Vec2::affine_transform_without_translation

Vec2::almost_equals

Vec2::angle

Vec2::angle_radians

Vec2::apply

Vec2::ceil

Vec2::clone

Vec2::copy

Vec2::cross

Vec2::distance

Vec2::distance_squared

Vec2::distance_squared_tuple