Enum VectorGeometry 

pub enum VectorGeometry<M = Map<String, ValueType>>
where
    M: Clone + Default,
{
    Point(VectorBaseGeometry<VectorPoint<M>>),
    MultiPoint(VectorBaseGeometry<Vec<VectorPoint<M>>, f64>),
    LineString(VectorBaseGeometry<Vec<VectorPoint<M>>, f64>),
    MultiLineString(VectorBaseGeometry<Vec<Vec<VectorPoint<M>>>, Vec<f64>>),
    Polygon(VectorBaseGeometry<Vec<Vec<VectorPoint<M>>>, Vec<f64>>),
    MultiPolygon(VectorBaseGeometry<Vec<Vec<Vec<VectorPoint<M>>>>, Vec<Vec<f64>>>),
}

Vector Geometry

Description

All possible geometry shapes. Builds ontop of VectorBaseGeometry.

Usage

• VectorGeometry::bbox: Get the bbox of the geometry
• VectorGeometry::vec_bbox: Get the internal 0-1 clipping style vector bbox
• VectorGeometry::point: Get the geometry point
• VectorGeometry::new_point: Create a new point
• VectorGeometry::multipoint: Get the geometry multi point
• VectorGeometry::new_multipoint: Create a new multipoint
• VectorGeometry::linestring: Get the geometry line string
• VectorGeometry::new_linestring: Create a new linestring
• VectorGeometry::multilinestring: Get the geometry multi line string
• VectorGeometry::new_multilinestring: Create a new multi line string
• VectorGeometry::polygon: Get the geometry polygon
• VectorGeometry::new_polygon: Create a new polygon
• VectorGeometry::multipolygon: Get the geometry multi polygon
• VectorGeometry::new_multipolygon: Create a new multi polygon
• VectorGeometry::set_tess: Set the tessellation of the geometry (polygon and multipolygon only)
• VectorGeometry::set_indices: Set the indices of the geometry (polygon and multipolygon only)
• VectorGeometry::to_m_geometry: Convert the geometry so that all m-values are MValue rather then user defined

Variants

Point(VectorBaseGeometry<VectorPoint<M>>)

Point Shape

MultiPoint(VectorBaseGeometry<Vec<VectorPoint<M>>, f64>)

MultiPoint Shape

LineString(VectorBaseGeometry<Vec<VectorPoint<M>>, f64>)

LineString Shape

MultiLineString(VectorBaseGeometry<Vec<Vec<VectorPoint<M>>>, Vec<f64>>)

MultiLineString Shape

Polygon(VectorBaseGeometry<Vec<Vec<VectorPoint<M>>>, Vec<f64>>)

Polygon Shape

MultiPolygon(VectorBaseGeometry<Vec<Vec<Vec<VectorPoint<M>>>>, Vec<Vec<f64>>>)

MultiPolygon Shape

Implementations

impl<M> VectorGeometry<M>

where M: Clone + Default,

pub fn bbox(&self) -> &Option<BBox3D>

Get the bbox of the geometry

pub fn vec_bbox(&self) -> &Option<BBox3D>

Get the vec_bbox of the geometry

pub fn point(&self) -> Option<&VectorPoint<M>>

Get the geometry point

pub fn new_point( coordinates: VectorPoint<M>, bbox: Option<BBox3D>, ) -> VectorGeometry<M>

Create a new point

pub fn multipoint(&self) -> Option<&Vec<VectorPoint<M>>>

Get the geometry multi point

pub fn new_multipoint( coordinates: Vec<VectorPoint<M>>, bbox: Option<BBox3D>, ) -> VectorGeometry<M>

Create a new multipoint

pub fn linestring(&self) -> Option<&Vec<VectorPoint<M>>>

Get the geometry linestring

pub fn new_linestring( coordinates: Vec<VectorPoint<M>>, bbox: Option<BBox3D>, ) -> VectorGeometry<M>

Create a new linestring

pub fn multilinestring(&self) -> Option<&Vec<Vec<VectorPoint<M>>>>

Get the geometry multilinestring

pub fn new_multilinestring( coordinates: Vec<Vec<VectorPoint<M>>>, bbox: Option<BBox3D>, ) -> VectorGeometry<M>

Create a new multilinestring

pub fn polygon(&self) -> Option<&Vec<Vec<VectorPoint<M>>>>

Get the geometry polygon

pub fn new_polygon( coordinates: Vec<Vec<VectorPoint<M>>>, bbox: Option<BBox3D>, ) -> VectorGeometry<M>

Create a new polygon

pub fn multipolygon(&self) -> Option<&Vec<Vec<Vec<VectorPoint<M>>>>>

Get the geometry multipolygon

pub fn new_multipolygon( coordinates: Vec<Vec<Vec<VectorPoint<M>>>>, bbox: Option<BBox3D>, ) -> VectorGeometry<M>

Create a new multipolygon

pub fn set_tess(&mut self, tessellation: Vec<f64>)

set the tessellation of the geometry (polygon and multipolygon only)

pub fn set_indices(&mut self, indices: Vec<u32>)

set the indices of the geometry (polygon and multipolygon only)

pub fn to_m_geometry(&self) -> VectorGeometry

where M: MValueCompatible,

Convert the geometry so that all m-values are MValue rather then user defined

Trait Implementations

impl<M> Clone for VectorGeometry<M>

where M: Clone + Default,

fn clone(&self) -> VectorGeometry<M>

Returns a duplicate of the value.

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

Performs copy-assignment from source.

impl<M> Debug for VectorGeometry<M>

where M: Debug + Clone + Default,

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

Formats the value using the given formatter.

impl<M> Default for VectorGeometry<M>

where M: Clone + Default,

fn default() -> VectorGeometry<M>

Returns the “default value” for a type.

impl<D: MValueCompatible> From<&VectorGeometry<D>> for DrawType

fn from(geometry: &VectorGeometry<D>) -> DrawType

Converts to this type from the input type.

impl<M> PartialEq for VectorGeometry<M>

where M: PartialEq + Clone + Default,

fn eq(&self, other: &VectorGeometry<M>) -> bool

Tests for self and other values to be equal, and is used by ==.

fn ne(&self, other: &Rhs) -> bool

Tests for !=. The default implementation is almost always sufficient, and should not be overridden without very good reason.

impl<M> Serialize for VectorGeometry<M>

where M: Clone + Default + Serialize,

fn serialize<__S>( &self, __serializer: __S, ) -> Result<<__S as Serializer>::Ok, <__S as Serializer>::Error>

where __S: Serializer,

Serialize this value into the given Serde serializer.

impl<M> StructuralPartialEq for VectorGeometry<M>

where M: Clone + Default,