Type Definition nalgebra::geometry::UnitComplex

type UnitComplex<N> = Unit<Complex<N>>;

A complex number with a norm equal to 1.

Methods

impl<N: Real> UnitComplex<N>

pub fn angle(&self) -> N

The rotation angle in ]-pi; pi] of this unit complex number.

Example

let rot = UnitComplex::new(1.78);
assert_eq!(rot.angle(), 1.78);

pub fn sin_angle(&self) -> N

The sine of the rotation angle.

Example

let angle = 1.78f32;
let rot = UnitComplex::new(angle);
assert_eq!(rot.sin_angle(), angle.sin());

pub fn cos_angle(&self) -> N

The cosine of the rotation angle.

Example

let angle = 1.78f32;
let rot = UnitComplex::new(angle);
assert_eq!(rot.cos_angle(),angle.cos());

pub fn scaled_axis(&self) -> Vector1<N>

The rotation angle returned as a 1-dimensional vector.

This is generally used in the context of generic programming. Using the .angle() method instead is more common.

pub fn axis_angle(&self) -> Option<(Unit<Vector1<N>>, N)>

The rotation axis and angle in ]0, pi] of this complex number.

This is generally used in the context of generic programming. Using the .angle() method instead is more common. Returns None if the angle is zero.

pub fn complex(&self) -> &Complex<N>

The underlying complex number.

Same as self.as_ref().

Example

let angle = 1.78f32;
let rot = UnitComplex::new(angle);
assert_eq!(*rot.complex(), Complex::new(angle.cos(), angle.sin()));

pub fn conjugate(&self) -> Self

Compute the conjugate of this unit complex number.

Example

let rot = UnitComplex::new(1.78);
let conj = rot.conjugate();
assert_eq!(rot.complex().im, -conj.complex().im);
assert_eq!(rot.complex().re, conj.complex().re);

pub fn inverse(&self) -> Self

Inverts this complex number if it is not zero.

Example

let rot = UnitComplex::new(1.2);
let inv = rot.inverse();
assert_relative_eq!(rot * inv, UnitComplex::identity(), epsilon = 1.0e-6);
assert_relative_eq!(inv * rot, UnitComplex::identity(), epsilon = 1.0e-6);

pub fn angle_to(&self, other: &Self) -> N

The rotation angle needed to make self and other coincide.

Example

let rot1 = UnitComplex::new(0.1);
let rot2 = UnitComplex::new(1.7);
assert_relative_eq!(rot1.angle_to(&rot2), 1.6);

pub fn rotation_to(&self, other: &Self) -> Self

The unit complex number needed to make self and other coincide.

The result is such that: self.rotation_to(other) * self == other.

Example

let rot1 = UnitComplex::new(0.1);
let rot2 = UnitComplex::new(1.7);
let rot_to = rot1.rotation_to(&rot2);

assert_relative_eq!(rot_to * rot1, rot2);
assert_relative_eq!(rot_to.inverse() * rot2, rot1);

pub fn conjugate_mut(&mut self)

Compute in-place the conjugate of this unit complex number.

Example

let angle = 1.7;
let rot = UnitComplex::new(angle);
let mut conj = UnitComplex::new(angle);
conj.conjugate_mut();
assert_eq!(rot.complex().im, -conj.complex().im);
assert_eq!(rot.complex().re, conj.complex().re);

pub fn inverse_mut(&mut self)

Inverts in-place this unit complex number.

Example

let angle = 1.7;
let mut rot = UnitComplex::new(angle);
rot.inverse_mut();
assert_relative_eq!(rot * UnitComplex::new(angle), UnitComplex::identity());
assert_relative_eq!(UnitComplex::new(angle) * rot, UnitComplex::identity());

pub fn powf(&self, n: N) -> Self

Raise this unit complex number to a given floating power.

This returns the unit complex number that identifies a rotation angle equal to self.angle() × n.

Example

let rot = UnitComplex::new(0.78);
let pow = rot.powf(2.0);
assert_eq!(pow.angle(), 2.0 * 0.78);

pub fn to_rotation_matrix(&self) -> Rotation2<N>

Builds the rotation matrix corresponding to this unit complex number.

Example

let rot = UnitComplex::new(f32::consts::FRAC_PI_6);
let expected = Rotation2::new(f32::consts::FRAC_PI_6);
assert_eq!(rot.to_rotation_matrix(), expected);

pub fn to_homogeneous(&self) -> Matrix3<N>

Converts this unit complex number into its equivalent homogeneous transformation matrix.

Example

let rot = UnitComplex::new(f32::consts::FRAC_PI_6);
let expected = Matrix3::new(0.8660254, -0.5,      0.0,
                            0.5,       0.8660254, 0.0,
                            0.0,       0.0,       1.0);
assert_eq!(rot.to_homogeneous(), expected);

impl<N: Real> UnitComplex<N>

pub fn identity() -> Self

The unit complex number multiplicative identity.

Example

let rot1 = UnitComplex::identity();
let rot2 = UnitComplex::new(1.7);

assert_eq!(rot1 * rot2, rot2);
assert_eq!(rot2 * rot1, rot2);

pub fn new(angle: N) -> Self

Builds the unit complex number corresponding to the rotation with the given angle.

Example

let rot = UnitComplex::new(f32::consts::FRAC_PI_2);

assert_relative_eq!(rot * Point2::new(3.0, 4.0), Point2::new(-4.0, 3.0));

pub fn from_angle(angle: N) -> Self

Builds the unit complex number corresponding to the rotation with the angle.

Same as Self::new(angle).

Example

let rot = UnitComplex::from_angle(f32::consts::FRAC_PI_2);

assert_relative_eq!(rot * Point2::new(3.0, 4.0), Point2::new(-4.0, 3.0));

pub fn from_cos_sin_unchecked(cos: N, sin: N) -> Self

Builds the unit complex number from the sinus and cosinus of the rotation angle.

The input values are not checked to actually be cosines and sine of the same value. Is is generally preferable to use the ::new(angle) constructor instead.

Example

let angle = f32::consts::FRAC_PI_2;
let rot = UnitComplex::from_cos_sin_unchecked(angle.cos(), angle.sin());

assert_relative_eq!(rot * Point2::new(3.0, 4.0), Point2::new(-4.0, 3.0));

pub fn from_scaled_axis<SB: Storage<N, U1>>(
    axisangle: Vector<N, U1, SB>
) -> Self

Builds a unit complex rotation from an angle in radian wrapped in a 1-dimensional vector.

This is generally used in the context of generic programming. Using the ::new(angle) method instead is more common.

pub fn from_complex(q: Complex<N>) -> Self

Creates a new unit complex number from a complex number.

The input complex number will be normalized.

pub fn from_complex_and_get(q: Complex<N>) -> (Self, N)

Creates a new unit complex number from a complex number.

The input complex number will be normalized. Returns the norm of the complex number as well.

pub fn from_rotation_matrix(rotmat: &Rotation2<N>) -> Self

Builds the unit complex number from the corresponding 2D rotation matrix.

Example

let rot = Rotation2::new(1.7);
let complex = UnitComplex::from_rotation_matrix(&rot);
assert_eq!(complex, UnitComplex::new(1.7));

pub fn rotation_between<SB, SC>(
    a: &Vector<N, U2, SB>,
    b: &Vector<N, U2, SC>
) -> Self where
    SB: Storage<N, U2>,
    SC: Storage<N, U2>, 

The unit complex needed to make a and b be collinear and point toward the same direction.

Example

let a = Vector2::new(1.0, 2.0);
let b = Vector2::new(2.0, 1.0);
let rot = UnitComplex::rotation_between(&a, &b);
assert_relative_eq!(rot * a, b);
assert_relative_eq!(rot.inverse() * b, a);

pub fn scaled_rotation_between<SB, SC>(
    a: &Vector<N, U2, SB>,
    b: &Vector<N, U2, SC>,
    s: N
) -> Self where
    SB: Storage<N, U2>,
    SC: Storage<N, U2>, 

The smallest rotation needed to make a and b collinear and point toward the same direction, raised to the power s.

Example

let a = Vector2::new(1.0, 2.0);
let b = Vector2::new(2.0, 1.0);
let rot2 = UnitComplex::scaled_rotation_between(&a, &b, 0.2);
let rot5 = UnitComplex::scaled_rotation_between(&a, &b, 0.5);
assert_relative_eq!(rot2 * rot2 * rot2 * rot2 * rot2 * a, b, epsilon = 1.0e-6);
assert_relative_eq!(rot5 * rot5 * a, b, epsilon = 1.0e-6);

pub fn rotation_between_axis<SB, SC>(
    a: &Unit<Vector<N, U2, SB>>,
    b: &Unit<Vector<N, U2, SC>>
) -> Self where
    SB: Storage<N, U2>,
    SC: Storage<N, U2>, 

The unit complex needed to make a and b be collinear and point toward the same direction.

Example

let a = Unit::new_normalize(Vector2::new(1.0, 2.0));
let b = Unit::new_normalize(Vector2::new(2.0, 1.0));
let rot = UnitComplex::rotation_between_axis(&a, &b);
assert_relative_eq!(rot * a, b);
assert_relative_eq!(rot.inverse() * b, a);

pub fn scaled_rotation_between_axis<SB, SC>(
    na: &Unit<Vector<N, U2, SB>>,
    nb: &Unit<Vector<N, U2, SC>>,
    s: N
) -> Self where
    SB: Storage<N, U2>,
    SC: Storage<N, U2>, 

The smallest rotation needed to make a and b collinear and point toward the same direction, raised to the power s.

Example

let a = Unit::new_normalize(Vector2::new(1.0, 2.0));
let b = Unit::new_normalize(Vector2::new(2.0, 1.0));
let rot2 = UnitComplex::scaled_rotation_between_axis(&a, &b, 0.2);
let rot5 = UnitComplex::scaled_rotation_between_axis(&a, &b, 0.5);
assert_relative_eq!(rot2 * rot2 * rot2 * rot2 * rot2 * a, b, epsilon = 1.0e-6);
assert_relative_eq!(rot5 * rot5 * a, b, epsilon = 1.0e-6);

impl<N: Real> UnitComplex<N>

pub fn rotate<R2: Dim, C2: Dim, S2: StorageMut<N, R2, C2>>(
    &self,
    rhs: &mut Matrix<N, R2, C2, S2>
) where
    ShapeConstraint: DimEq<R2, U2>, 

Performs the multiplication rhs = self * rhs in-place.

pub fn rotate_rows<R2: Dim, C2: Dim, S2: StorageMut<N, R2, C2>>(
    &self,
    lhs: &mut Matrix<N, R2, C2, S2>
) where
    ShapeConstraint: DimEq<C2, U2>, 

Performs the multiplication lhs = lhs * self in-place.

Trait Implementations

impl<N: Real> Mul<Unit<Complex<N>>> for UnitComplex<N>

type Output = UnitComplex<N>

The resulting type after applying the * operator.

fn mul(self, rhs: UnitComplex<N>) -> UnitComplex<N>

Performs the * operation.

impl<'a, N: Real> Mul<Unit<Complex<N>>> for &'a UnitComplex<N>

type Output = UnitComplex<N>

The resulting type after applying the * operator.

fn mul(self, rhs: UnitComplex<N>) -> UnitComplex<N>

Performs the * operation.

impl<'b, N: Real> Mul<&'b Unit<Complex<N>>> for UnitComplex<N>

type Output = UnitComplex<N>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b UnitComplex<N>) -> UnitComplex<N>

Performs the * operation.

impl<'a, 'b, N: Real> Mul<&'b Unit<Complex<N>>> for &'a UnitComplex<N>

type Output = UnitComplex<N>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b UnitComplex<N>) -> UnitComplex<N>

Performs the * operation.

impl<N: Real> Mul<Rotation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

type Output = UnitComplex<N>

The resulting type after applying the * operator.

fn mul(self, rhs: Rotation<N, U2>) -> Self::Output

Performs the * operation.

impl<'a, N: Real> Mul<Rotation<N, U2>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

type Output = UnitComplex<N>

The resulting type after applying the * operator.

fn mul(self, rhs: Rotation<N, U2>) -> Self::Output

Performs the * operation.

impl<'b, N: Real> Mul<&'b Rotation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

type Output = UnitComplex<N>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Rotation<N, U2>) -> Self::Output

Performs the * operation.

impl<'a, 'b, N: Real> Mul<&'b Rotation<N, U2>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

type Output = UnitComplex<N>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Rotation<N, U2>) -> Self::Output

Performs the * operation.

impl<N: Real> Mul<Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Point2<N>

The resulting type after applying the * operator.

fn mul(self, rhs: Point2<N>) -> Self::Output

Performs the * operation.

impl<'a, N: Real> Mul<Point<N, U2>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Point2<N>

The resulting type after applying the * operator.

fn mul(self, rhs: Point2<N>) -> Self::Output

Performs the * operation.

impl<'b, N: Real> Mul<&'b Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Point2<N>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Point2<N>) -> Self::Output

Performs the * operation.

impl<'a, 'b, N: Real> Mul<&'b Point<N, U2>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Point2<N>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Point2<N>) -> Self::Output

Performs the * operation.

impl<N: Real, S: Storage<N, U2>> Mul<Matrix<N, U2, U1, S>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Vector2<N>

The resulting type after applying the * operator.

fn mul(self, rhs: Vector<N, U2, S>) -> Self::Output

Performs the * operation.

impl<'a, N: Real, S: Storage<N, U2>> Mul<Matrix<N, U2, U1, S>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Vector2<N>

The resulting type after applying the * operator.

fn mul(self, rhs: Vector<N, U2, S>) -> Self::Output

Performs the * operation.

impl<'b, N: Real, S: Storage<N, U2>> Mul<&'b Matrix<N, U2, U1, S>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Vector2<N>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Vector<N, U2, S>) -> Self::Output

Performs the * operation.

impl<'a, 'b, N: Real, S: Storage<N, U2>> Mul<&'b Matrix<N, U2, U1, S>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Vector2<N>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Vector<N, U2, S>) -> Self::Output

Performs the * operation.

impl<N: Real, S: Storage<N, U2>> Mul<Unit<Matrix<N, U2, U1, S>>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Unit<Vector2<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: Unit<Vector<N, U2, S>>) -> Self::Output

Performs the * operation.

impl<'a, N: Real, S: Storage<N, U2>> Mul<Unit<Matrix<N, U2, U1, S>>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Unit<Vector2<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: Unit<Vector<N, U2, S>>) -> Self::Output

Performs the * operation.

impl<'b, N: Real, S: Storage<N, U2>> Mul<&'b Unit<Matrix<N, U2, U1, S>>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Unit<Vector2<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Unit<Vector<N, U2, S>>) -> Self::Output

Performs the * operation.

impl<'a, 'b, N: Real, S: Storage<N, U2>> Mul<&'b Unit<Matrix<N, U2, U1, S>>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Unit<Vector2<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Unit<Vector<N, U2, S>>) -> Self::Output

Performs the * operation.

impl<N: Real> Mul<Isometry<N, U2, Unit<Complex<N>>>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Isometry<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: Isometry<N, U2, UnitComplex<N>>) -> Self::Output

Performs the * operation.

impl<'a, N: Real> Mul<Isometry<N, U2, Unit<Complex<N>>>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Isometry<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: Isometry<N, U2, UnitComplex<N>>) -> Self::Output

Performs the * operation.

impl<'b, N: Real> Mul<&'b Isometry<N, U2, Unit<Complex<N>>>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Isometry<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Isometry<N, U2, UnitComplex<N>>) -> Self::Output

Performs the * operation.

impl<'a, 'b, N: Real> Mul<&'b Isometry<N, U2, Unit<Complex<N>>>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Isometry<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Isometry<N, U2, UnitComplex<N>>) -> Self::Output

Performs the * operation.

impl<N: Real> Mul<Similarity<N, U2, Unit<Complex<N>>>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Similarity<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: Similarity<N, U2, UnitComplex<N>>) -> Self::Output

Performs the * operation.

impl<'a, N: Real> Mul<Similarity<N, U2, Unit<Complex<N>>>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Similarity<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: Similarity<N, U2, UnitComplex<N>>) -> Self::Output

Performs the * operation.

impl<'b, N: Real> Mul<&'b Similarity<N, U2, Unit<Complex<N>>>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Similarity<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Similarity<N, U2, UnitComplex<N>>) -> Self::Output

Performs the * operation.

impl<'a, 'b, N: Real> Mul<&'b Similarity<N, U2, Unit<Complex<N>>>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Similarity<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Similarity<N, U2, UnitComplex<N>>) -> Self::Output

Performs the * operation.

impl<N: Real> Mul<Translation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Isometry<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: Translation<N, U2>) -> Self::Output

Performs the * operation.

impl<'a, N: Real> Mul<Translation<N, U2>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Isometry<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: Translation<N, U2>) -> Self::Output

Performs the * operation.

impl<'b, N: Real> Mul<&'b Translation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Isometry<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Translation<N, U2>) -> Self::Output

Performs the * operation.

impl<'a, 'b, N: Real> Mul<&'b Translation<N, U2>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U1>, 

type Output = Isometry<N, U2, UnitComplex<N>>

The resulting type after applying the * operator.

fn mul(self, rhs: &'b Translation<N, U2>) -> Self::Output

Performs the * operation.

impl<N: Real> Div<Unit<Complex<N>>> for UnitComplex<N>

type Output = UnitComplex<N>

The resulting type after applying the / operator.

fn div(self, rhs: UnitComplex<N>) -> UnitComplex<N>

Performs the / operation.

impl<'a, N: Real> Div<Unit<Complex<N>>> for &'a UnitComplex<N>

type Output = UnitComplex<N>

The resulting type after applying the / operator.

fn div(self, rhs: UnitComplex<N>) -> UnitComplex<N>

Performs the / operation.

impl<'b, N: Real> Div<&'b Unit<Complex<N>>> for UnitComplex<N>

type Output = UnitComplex<N>

The resulting type after applying the / operator.

fn div(self, rhs: &'b UnitComplex<N>) -> UnitComplex<N>

Performs the / operation.

impl<'a, 'b, N: Real> Div<&'b Unit<Complex<N>>> for &'a UnitComplex<N>

type Output = UnitComplex<N>

The resulting type after applying the / operator.

fn div(self, rhs: &'b UnitComplex<N>) -> UnitComplex<N>

Performs the / operation.

impl<N: Real> Div<Rotation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

type Output = UnitComplex<N>

The resulting type after applying the / operator.

fn div(self, rhs: Rotation<N, U2>) -> Self::Output

Performs the / operation.

impl<'a, N: Real> Div<Rotation<N, U2>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

type Output = UnitComplex<N>

The resulting type after applying the / operator.

fn div(self, rhs: Rotation<N, U2>) -> Self::Output

Performs the / operation.

impl<'b, N: Real> Div<&'b Rotation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

type Output = UnitComplex<N>

The resulting type after applying the / operator.

fn div(self, rhs: &'b Rotation<N, U2>) -> Self::Output

Performs the / operation.

impl<'a, 'b, N: Real> Div<&'b Rotation<N, U2>> for &'a UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

type Output = UnitComplex<N>

The resulting type after applying the / operator.

fn div(self, rhs: &'b Rotation<N, U2>) -> Self::Output

Performs the / operation.

impl<N: Real> MulAssign<Unit<Complex<N>>> for UnitComplex<N>

fn mul_assign(&mut self, rhs: UnitComplex<N>)

Performs the *= operation.

impl<'b, N: Real> MulAssign<&'b Unit<Complex<N>>> for UnitComplex<N>

fn mul_assign(&mut self, rhs: &'b UnitComplex<N>)

Performs the *= operation.

impl<N: Real> MulAssign<Rotation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

fn mul_assign(&mut self, rhs: Rotation<N, U2>)

Performs the *= operation.

impl<'b, N: Real> MulAssign<&'b Rotation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

fn mul_assign(&mut self, rhs: &'b Rotation<N, U2>)

Performs the *= operation.

impl<N: Real> DivAssign<Unit<Complex<N>>> for UnitComplex<N>

fn div_assign(&mut self, rhs: UnitComplex<N>)

Performs the /= operation.

impl<'b, N: Real> DivAssign<&'b Unit<Complex<N>>> for UnitComplex<N>

fn div_assign(&mut self, rhs: &'b UnitComplex<N>)

Performs the /= operation.

impl<N: Real> DivAssign<Rotation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

fn div_assign(&mut self, rhs: Rotation<N, U2>)

Performs the /= operation.

impl<'b, N: Real> DivAssign<&'b Rotation<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2, U2>, 

fn div_assign(&mut self, rhs: &'b Rotation<N, U2>)

Performs the /= operation.

impl<N: Real + Display> Display for UnitComplex<N>

fn fmt(&self, f: &mut Formatter) -> Result

Formats the value using the given formatter.

impl<N: Real> AbsDiffEq<Unit<Complex<N>>> for UnitComplex<N>

type Epsilon = N

Used for specifying relative comparisons.

fn default_epsilon() -> Self::Epsilon

The default tolerance to use when testing values that are close together.

fn abs_diff_eq(&self, other: &Self, epsilon: Self::Epsilon) -> bool

A test for equality that uses the absolute difference to compute the approximate equality of two numbers.

fn abs_diff_ne(&self, other: &Rhs, epsilon: Self::Epsilon) -> bool

The inverse of ApproxEq::abs_diff_eq.

impl<N: Real> RelativeEq<Unit<Complex<N>>> for UnitComplex<N>

fn default_max_relative() -> Self::Epsilon

The default relative tolerance for testing values that are far-apart.

fn relative_eq(
    &self,
    other: &Self,
    epsilon: Self::Epsilon,
    max_relative: Self::Epsilon
) -> bool

A test for equality that uses a relative comparison if the values are far apart.

fn relative_ne(
    &self,
    other: &Rhs,
    epsilon: Self::Epsilon,
    max_relative: Self::Epsilon
) -> bool

The inverse of ApproxEq::relative_eq.

impl<N: Real> UlpsEq<Unit<Complex<N>>> for UnitComplex<N>

fn default_max_ulps() -> u32

The default ULPs to tolerate when testing values that are far-apart.

fn ulps_eq(&self, other: &Self, epsilon: Self::Epsilon, max_ulps: u32) -> bool

A test for equality that uses units in the last place (ULP) if the values are far apart.

fn ulps_ne(&self, other: &Rhs, epsilon: Self::Epsilon, max_ulps: u32) -> bool

The inverse of ApproxEq::ulps_eq.

impl<N: Real> One for UnitComplex<N>

fn one() -> Self

Returns the multiplicative identity element of Self, 1.

fn set_one(&mut self)

Sets self to the multiplicative identity element of Self, 1.

fn is_one(&self) -> bool where
    Self: PartialEq<Self>, 

Returns true if self is equal to the multiplicative identity.

impl<N: Real> AbstractMagma<Multiplicative> for UnitComplex<N>

fn operate(&self, rhs: &Self) -> Self

Performs an operation.

fn op(&self, O, lhs: &Self) -> Self

Performs specific operation.

impl<N: Real> AbstractQuasigroup<Multiplicative> for UnitComplex<N>

fn prop_inv_is_latin_square_approx(args: (Self, Self)) -> bool where
    Self: RelativeEq<Self>, 

Returns true if latin squareness holds for the given arguments. Approximate equality is used for verifications.

fn prop_inv_is_latin_square(args: (Self, Self)) -> bool where
    Self: Eq, 

Returns true if latin squareness holds for the given arguments.

impl<N: Real> AbstractSemigroup<Multiplicative> for UnitComplex<N>

fn prop_is_associative_approx(args: (Self, Self, Self)) -> bool where
    Self: RelativeEq<Self>, 

Returns true if associativity holds for the given arguments. Approximate equality is used for verifications.

fn prop_is_associative(args: (Self, Self, Self)) -> bool where
    Self: Eq, 

Returns true if associativity holds for the given arguments.

impl<N: Real> AbstractLoop<Multiplicative> for UnitComplex<N>

impl<N: Real> AbstractMonoid<Multiplicative> for UnitComplex<N>

fn prop_operating_identity_element_is_noop_approx(args: (Self,)) -> bool where
    Self: RelativeEq<Self>, 

Checks whether operating with the identity element is a no-op for the given argument. Approximate equality is used for verifications.

fn prop_operating_identity_element_is_noop(args: (Self,)) -> bool where
    Self: Eq, 

Checks whether operating with the identity element is a no-op for the given argument.

impl<N: Real> AbstractGroup<Multiplicative> for UnitComplex<N>

impl<N: Real> Identity<Multiplicative> for UnitComplex<N>

fn identity() -> Self

The identity element.

fn id(O) -> Self

Specific identity.

impl<N: Real> Inverse<Multiplicative> for UnitComplex<N>

fn inverse(&self) -> Self

Returns the inverse of self, relative to the operator O.

fn inverse_mut(&mut self)

In-place inversin of self.

impl<N1, N2> SubsetOf<Unit<Complex<N2>>> for UnitComplex<N1> where
    N1: Real,
    N2: Real + SupersetOf<N1>, 

fn to_superset(&self) -> UnitComplex<N2>

The inclusion map: converts self to the equivalent element of its superset.

fn is_in_subset(uq: &UnitComplex<N2>) -> bool

Checks if element is actually part of the subset Self (and can be converted to it).

unsafe fn from_superset_unchecked(uq: &UnitComplex<N2>) -> Self

Use with care! Same as self.to_superset but without any property checks. Always succeeds.

fn from_superset(element: &T) -> Option<Self>

The inverse inclusion map: attempts to construct self from the equivalent element of its superset.

impl<N1, N2> SubsetOf<Rotation<N2, U2>> for UnitComplex<N1> where
    N1: Real,
    N2: Real + SupersetOf<N1>, 

fn to_superset(&self) -> Rotation2<N2>

The inclusion map: converts self to the equivalent element of its superset.

fn is_in_subset(rot: &Rotation2<N2>) -> bool

Checks if element is actually part of the subset Self (and can be converted to it).

unsafe fn from_superset_unchecked(rot: &Rotation2<N2>) -> Self

Use with care! Same as self.to_superset but without any property checks. Always succeeds.

fn from_superset(element: &T) -> Option<Self>

The inverse inclusion map: attempts to construct self from the equivalent element of its superset.

impl<N1, N2, R> SubsetOf<Isometry<N2, U2, R>> for UnitComplex<N1> where
    N1: Real,
    N2: Real + SupersetOf<N1>,
    R: AlgaRotation<Point2<N2>> + SupersetOf<UnitComplex<N1>>, 

fn to_superset(&self) -> Isometry<N2, U2, R>

The inclusion map: converts self to the equivalent element of its superset.

fn is_in_subset(iso: &Isometry<N2, U2, R>) -> bool

Checks if element is actually part of the subset Self (and can be converted to it).

unsafe fn from_superset_unchecked(iso: &Isometry<N2, U2, R>) -> Self

Use with care! Same as self.to_superset but without any property checks. Always succeeds.

fn from_superset(element: &T) -> Option<Self>

The inverse inclusion map: attempts to construct self from the equivalent element of its superset.

impl<N1, N2, R> SubsetOf<Similarity<N2, U2, R>> for UnitComplex<N1> where
    N1: Real,
    N2: Real + SupersetOf<N1>,
    R: AlgaRotation<Point2<N2>> + SupersetOf<UnitComplex<N1>>, 

fn to_superset(&self) -> Similarity<N2, U2, R>

The inclusion map: converts self to the equivalent element of its superset.

fn is_in_subset(sim: &Similarity<N2, U2, R>) -> bool

Checks if element is actually part of the subset Self (and can be converted to it).

unsafe fn from_superset_unchecked(sim: &Similarity<N2, U2, R>) -> Self

Use with care! Same as self.to_superset but without any property checks. Always succeeds.

fn from_superset(element: &T) -> Option<Self>

The inverse inclusion map: attempts to construct self from the equivalent element of its superset.

impl<N1, N2, C> SubsetOf<Transform<N2, U2, C>> for UnitComplex<N1> where
    N1: Real,
    N2: Real + SupersetOf<N1>,
    C: SuperTCategoryOf<TAffine>, 

fn to_superset(&self) -> Transform<N2, U2, C>

The inclusion map: converts self to the equivalent element of its superset.

fn is_in_subset(t: &Transform<N2, U2, C>) -> bool

Checks if element is actually part of the subset Self (and can be converted to it).

unsafe fn from_superset_unchecked(t: &Transform<N2, U2, C>) -> Self

Use with care! Same as self.to_superset but without any property checks. Always succeeds.

fn from_superset(element: &T) -> Option<Self>

The inverse inclusion map: attempts to construct self from the equivalent element of its superset.

impl<N1: Real, N2: Real + SupersetOf<N1>> SubsetOf<Matrix<N2, U3, U3, <DefaultAllocator as Allocator<N2, U3, U3>>::Buffer>> for UnitComplex<N1>

fn to_superset(&self) -> Matrix3<N2>

The inclusion map: converts self to the equivalent element of its superset.

fn is_in_subset(m: &Matrix3<N2>) -> bool

Checks if element is actually part of the subset Self (and can be converted to it).

unsafe fn from_superset_unchecked(m: &Matrix3<N2>) -> Self

Use with care! Same as self.to_superset but without any property checks. Always succeeds.

fn from_superset(element: &T) -> Option<Self>

The inverse inclusion map: attempts to construct self from the equivalent element of its superset.

impl<N: Real> Transformation<Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2>, 

fn transform_point(&self, pt: &Point2<N>) -> Point2<N>

Applies this group's action on a point from the euclidean space.

fn transform_vector(&self, v: &Vector2<N>) -> Vector2<N>

Applies this group's action on a vector from the euclidean space.

impl<N: Real> ProjectiveTransformation<Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2>, 

fn inverse_transform_point(&self, pt: &Point2<N>) -> Point2<N>

Applies this group's inverse action on a point from the euclidean space.

fn inverse_transform_vector(&self, v: &Vector2<N>) -> Vector2<N>

Applies this group's inverse action on a vector from the euclidean space.

impl<N: Real> AffineTransformation<Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2>, 

type Rotation = Self

Type of the first rotation to be applied.

type NonUniformScaling = Id

Type of the non-uniform scaling to be applied.

type Translation = Id

The type of the pure translation part of this affine transformation.

fn decompose(&self) -> (Id, Self, Id, Self)

Decomposes this affine transformation into a rotation followed by a non-uniform scaling, followed by a rotation, followed by a translation.

fn append_translation(&self, _: &Self::Translation) -> Self

Appends a translation to this similarity.

fn prepend_translation(&self, _: &Self::Translation) -> Self

Prepends a translation to this similarity.

fn append_rotation(&self, r: &Self::Rotation) -> Self

Appends a rotation to this similarity.

fn prepend_rotation(&self, r: &Self::Rotation) -> Self

Prepends a rotation to this similarity.

fn append_scaling(&self, _: &Self::NonUniformScaling) -> Self

Appends a scaling factor to this similarity.

fn prepend_scaling(&self, _: &Self::NonUniformScaling) -> Self

Prepends a scaling factor to this similarity.

fn append_rotation_wrt_point(&self, r: &Self::Rotation, p: &E) -> Option<Self>

Appends to this similarity a rotation centered at the point p, i.e., this point is left invariant.

impl<N: Real> Similarity<Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2>, 

type Scaling = Id

The type of the pure (uniform) scaling part of this similarity transformation.

fn translation(&self) -> Id

The pure translational component of this similarity transformation.

fn rotation(&self) -> Self

The pure rotational component of this similarity transformation.

fn scaling(&self) -> Id

The pure scaling component of this similarity transformation.

fn translate_point(&self, pt: &E) -> E

Applies this transformation's pure translational part to a point.

fn rotate_point(&self, pt: &E) -> E

Applies this transformation's pure rotational part to a point.

fn scale_point(&self, pt: &E) -> E

Applies this transformation's pure scaling part to a point.

fn rotate_vector(
    &self,
    pt: &<E as EuclideanSpace>::Coordinates
) -> <E as EuclideanSpace>::Coordinates

Applies this transformation's pure rotational part to a vector.

fn scale_vector(
    &self,
    pt: &<E as EuclideanSpace>::Coordinates
) -> <E as EuclideanSpace>::Coordinates

Applies this transformation's pure scaling part to a vector.

fn inverse_translate_point(&self, pt: &E) -> E

Applies this transformation inverse's pure translational part to a point.

fn inverse_rotate_point(&self, pt: &E) -> E

Applies this transformation inverse's pure rotational part to a point.

fn inverse_scale_point(&self, pt: &E) -> E

Applies this transformation inverse's pure scaling part to a point.

fn inverse_rotate_vector(
    &self,
    pt: &<E as EuclideanSpace>::Coordinates
) -> <E as EuclideanSpace>::Coordinates

Applies this transformation inverse's pure rotational part to a vector.

fn inverse_scale_vector(
    &self,
    pt: &<E as EuclideanSpace>::Coordinates
) -> <E as EuclideanSpace>::Coordinates

Applies this transformation inverse's pure scaling part to a vector.

impl<N: Real> Isometry<Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2>, 

impl<N: Real> DirectIsometry<Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2>, 

impl<N: Real> OrthogonalTransformation<Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2>, 

impl<N: Real> Rotation<Point<N, U2>> for UnitComplex<N> where
    DefaultAllocator: Allocator<N, U2>, 

fn powf(&self, n: N) -> Option<Self>

Raises this rotation to a power. If this is a simple rotation, the result must be equivalent to multiplying the rotation angle by n.

fn rotation_between(a: &Vector2<N>, b: &Vector2<N>) -> Option<Self>

Computes a simple rotation that makes the angle between a and b equal to zero, i.e., b.angle(a * delta_rotation(a, b)) = 0. If a and b are collinear, the computed rotation may not be unique. Returns None if no such simple rotation exists in the subgroup represented by Self.

fn scaled_rotation_between(a: &Vector2<N>, b: &Vector2<N>, s: N) -> Option<Self>

Computes the rotation between a and b and raises it to the power n.