Struct RadialShape 

pub struct RadialShape {
    pub shape_reference_point: Option<CartesianPosition3d>,
    pub range: StandardLength12b,
    pub stationary_horizontal_opening_angle_start: Wgs84AngleValue,
    pub stationary_horizontal_opening_angle_end: Wgs84AngleValue,
    pub vertical_opening_angle_start: Option<CartesianAngleValue>,
    pub vertical_opening_angle_end: Option<CartesianAngleValue>,
}

• This DF describes a radial shape. The triangular or cone-shaped volume is
• constructed by sweeping the provided range about the reference point between a horizontal start
• and a horizontal end angle in positive angular direction of the WGS84
• coordinate system. A vertical opening angle may be provided in a Cartesian coordinate system with
• the x-axis located in the North-East plane of the WGS84 coordinate system. The sensor height may
• be provided to reflect characteristics of sensors mounted at an altitude (e.g. sensors mounted
• above intersections).
• It shall include the following components:
• @field shapeReferencePoint: the optional reference point used for the definition of the shape, relative to an externally specified reference position.
• If this component is absent, the externally specified reference position represents the shape’s reference point.
• @field range: the radial range of the shape from the shape’s reference point.
• @field stationaryHorizontalOpeningAngleStart: the orientation indicating the beginning of the
• shape’s horizontal opening angle in positive angular direction with respect to the
• WGS84 coordinate system.
• @field stationaryHorizontalOpeningAngleEnd: The orientation indicating the end of the shape’s
• horizontal opening angle in positive angular direction with respect to the WGS84 coordinate system.
• @field verticalOpeningAngleStart: optional orientation indicating the beginning of the shape’s
• opening angle in positive angular direction of a Cartesian coordinate system with its x-axis
• located in the north-east plane of the WGS84 coordinate system.
• @field verticalOpeningAngleEnd: optional orientation indicating the end of the shape’s
• vertical opening angle in positive angular direction of a Cartesian coordinate system with its x-axis
• located in the north-east plane of the WGS84 coordinate system.
• @category GeoReference information
• @revision: created in V2.1.1

Fields

shape_reference_point: Option<CartesianPosition3d>

range: StandardLength12b

stationary_horizontal_opening_angle_start: Wgs84AngleValue

stationary_horizontal_opening_angle_end: Wgs84AngleValue

vertical_opening_angle_start: Option<CartesianAngleValue>

vertical_opening_angle_end: Option<CartesianAngleValue>

Implementations

impl RadialShape

pub fn new( shape_reference_point: Option<CartesianPosition3d>, range: StandardLength12b, stationary_horizontal_opening_angle_start: Wgs84AngleValue, stationary_horizontal_opening_angle_end: Wgs84AngleValue, vertical_opening_angle_start: Option<CartesianAngleValue>, vertical_opening_angle_end: Option<CartesianAngleValue>, ) -> Self

Trait Implementations

impl AsnType for RadialShape

const TAG: Tag

The associated tag for the type.

const IDENTIFIER: Identifier

Identifier of an ASN.1 type as specified in the original specification if not identical with the identifier of Self

const TAG_TREE: TagTree = _

The root of this type’s tree of tag’s if it a CHOICE type, otherwise its Leaf that points Self::TAG.

const CONSTRAINTS: Constraints = Constraints::NONE

The set of constraints for values of the given type.

fn is_present(&self) -> bool

Whether the type is present with value. OPTIONAL fields are common in SEQUENCE or SET.

impl Clone for RadialShape

fn clone(&self) -> RadialShape

Returns a duplicate of the value.

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

Performs copy-assignment from source.

impl Constructed<6> for RadialShape

const FIELDS: Fields<6usize>

Fields contained in the “root component list”.

const IS_EXTENSIBLE: bool = false

Whether the type is extensible.

const EXTENDED_FIELDS: Option<Fields<0usize>> = None

Fields contained in the list of extensions.

impl Debug for RadialShape

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

Formats the value using the given formatter.

impl Decode for RadialShape

fn decode_with_tag_and_constraints<D: Decoder>( decoder: &mut D, tag: Tag, constraints: Constraints, ) -> Result<Self, D::Error>

Decode this value implicitly tagged with tag from a given ASN.1 decoder with a set of constraints on what values of that type are allowed.

fn decode<D>(decoder: &mut D) -> Result<Self, <D as Decoder>::Error>

where D: Decoder,

Decode this value from a given ASN.1 decoder.

fn decode_with_tag<D>( decoder: &mut D, tag: Tag, ) -> Result<Self, <D as Decoder>::Error>

where D: Decoder,

Decode this value implicitly tagged with tag from a given ASN.1 decoder.

fn decode_with_constraints<D>( decoder: &mut D, constraints: Constraints, ) -> Result<Self, <D as Decoder>::Error>

where D: Decoder,

Decode this value from a given ASN.1 decoder with a set of constraints on what values of that type are allowed.

impl Encode for RadialShape

fn encode_with_tag_and_constraints<'encoder, EN: Encoder<'encoder>>( &self, encoder: &mut EN, tag: Tag, constraints: Constraints, identifier: Identifier, ) -> Result<(), EN::Error>

Encode this value with tag into the given crate::Encoder with the constraints the values this is allowed to encode into.

fn encode<'b, E>( &self, encoder: &mut E, ) -> Result<(), <E as Encoder<'b>>::Error>

where E: Encoder<'b>,

Encodes self’s data into the given crate::Encoder.

fn encode_with_tag<'b, E>( &self, encoder: &mut E, tag: Tag, ) -> Result<(), <E as Encoder<'b>>::Error>

where E: Encoder<'b>,

Encode this value with tag into the given crate::Encoder.

fn encode_with_identifier<'b, E>( &self, encoder: &mut E, identifier: Identifier, ) -> Result<(), <E as Encoder<'b>>::Error>

where E: Encoder<'b>,

Encode this value with identifier into the given crate::Encoder.

fn encode_with_tag_and_identifier<'b, E>( &self, encoder: &mut E, tag: Tag, identifier: Identifier, ) -> Result<(), <E as Encoder<'b>>::Error>

where E: Encoder<'b>,

Encode this value with tag and identifier into the given crate::Encoder.

fn encode_with_constraints<'b, E>( &self, encoder: &mut E, constraints: Constraints, ) -> Result<(), <E as Encoder<'b>>::Error>

where E: Encoder<'b>,

Encode this value into the given crate::Encoder with the constraints the values this is allowed to encode into.

fn encode_with_constraints_and_identifier<'b, E>( &self, encoder: &mut E, constraints: Constraints, identifier: Identifier, ) -> Result<(), <E as Encoder<'b>>::Error>

where E: Encoder<'b>,

Encode this value into the given crate::Encoder with identifier and the constraints the values this is allowed to encode into.

impl Hash for RadialShape

fn hash<__H: Hasher>(&self, state: &mut __H)

Feeds this value into the given Hasher.

fn hash_slice<H>(data: &[Self], state: &mut H)

where H: Hasher, Self: Sized,

Feeds a slice of this type into the given Hasher.

impl PartialEq for RadialShape

fn eq(&self, other: &RadialShape) -> 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 Eq for RadialShape

impl StructuralPartialEq for RadialShape