Enum StructuralShape

#[non_exhaustive]
pub enum StructuralShape {
    Pipe {
        outer_radius: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        thickness: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>),
    },
    IBeam {
        width: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        height: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        web_thickness: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        flange_thickness: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>),
    },
    BoxBeam {
        width: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        height: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        thickness: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>),
    },
    Rod {
        radius: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>),
    },
    Rectangle {
        width: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        height: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>,
        center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>),
    },
}

This enum contains different structural shapes

Variants (Non-exhaustive)

Non-exhaustive enums could have additional variants added in future. Therefore, when matching against variants of non-exhaustive enums, an extra wildcard arm must be added to account for any future variants.

Pipe

This is a pipe with an outer_radius and a thickness

Fields

outer_radius: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Outer radius of hte pipe

thickness: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Thickness of the pipe wall

center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>)

Coordinates of center of gravity

IBeam

This is an I-Beam, with a width, height, web thickness, and flange thickness

Fields

width: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Width of the beam

height: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Height of the beam

web_thickness: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Thickness of the web

flange_thickness: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Thickness of the flange

center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>)

Coordinates of center of gravity

BoxBeam

This is a box beam with a width, height, and thickness

Fields

width: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Width of the box beam

height: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Height of the box beam

thickness: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Thickness of the wall

center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>)

Coordinates of center of gravity

Rod

This is a rod with a radius only

Fields

radius: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Radius of the road

center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>)

Coordinates of center of gravity

Rectangle

This is a solid rectangular with width and height

Fields

width: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Width of the rectangle

height: Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

Height of the rectangle

center_of_gravity: (Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>, Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UTerm, B1>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>)

Coordinates of center of gravity

Implementations

impl StructuralShape

pub fn moi_x( &self, ) -> Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UInt<UInt<UTerm, B1>, B0>, B0>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

This function returns the moment of inertia of the structural shape around the x-axis

let shape = StructuralShape::Rod{radius: length(2.0), center_of_gravity: point(0.0, 0.0)};
let moi = shape.moi_x();

pub fn moi_y( &self, ) -> Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UInt<UInt<UTerm, B1>, B0>, B0>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

This function returns the moment of inertia of hte structural shape around the y-axis

let shape = StructuralShape::Rod{radius: length(2.0), center_of_gravity: point(0.0, 0.0)};
let area = shape.moi_y();

pub fn area( &self, ) -> Quantity<dyn Dimension<Kind = dyn Kind, Th = Z0, L = PInt<UInt<UInt<UTerm, B1>, B0>>, N = Z0, T = Z0, I = Z0, M = Z0, J = Z0>, dyn Units<f64, thermodynamic_temperature = kelvin, time = second, amount_of_substance = mole, electric_current = ampere, luminous_intensity = candela, length = meter, mass = kilogram>, f64>

This function returns the cross-sectional area of the structural shape

let shape = StructuralShape::Rod{radius: length(2.0), center_of_gravity: point(0.0, 0.0)};
let area = shape.area();

Trait Implementations

impl Clone for StructuralShape

fn clone(&self) -> StructuralShape

Returns a duplicate of the value.

fn clone_from(&mut self, source: &Self)

Performs copy-assignment from source.

impl Debug for StructuralShape

fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error>

Formats the value using the given formatter.

impl Copy for StructuralShape