Struct MultiValue2

pub struct MultiValue2<T0, T1>(pub (T0, T1));

Tuple Fields

0: (T0, T1)

Implementations

impl<T0, T1> MultiValue2<T0, T1>

pub fn into_tuple(self) -> (T0, T1)

Trait Implementations

impl<T0, T1> Clone for MultiValue2<T0, T1>

where T0: Clone, T1: Clone,

fn clone(&self) -> MultiValue2<T0, T1>

Returns a copy of the value.

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

Performs copy-assignment from source.

impl<T0, T1> Debug for MultiValue2<T0, T1>

where T0: Debug, T1: Debug,

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

Formats the value using the given formatter.

impl<T0, T1> From<(T0, T1)> for MultiValue2<T0, T1>

fn from(tuple: (T0, T1)) -> MultiValue2<T0, T1>

Converts to this type from the input type.

impl<T1, T2> ManagedVecItem for MultiValue2<T1, T2>

where T1: ManagedVecItem, T2: ManagedVecItem, (T1, (T2, ())): ManagedVecItemNestedTuple,

const SKIPS_RESERIALIZATION: bool

If true, then the encoding of the item is identical to the payload, and no further conversion is necessary (the underlying buffer can be used as-is during serialization). False for all managed types, but true for basic types (like u32).

type PAYLOAD = <(T1, (T2, ())) as ManagedVecItemNestedTuple>::PAYLOAD

Type managing the underlying binary representation in a ManagedVec..

type Ref<'a> = ManagedVecRef<'a, MultiValue2<T1, T2>>

Reference representation of the ManagedVec item.

fn read_from_payload( payload: &<MultiValue2<T1, T2> as ManagedVecItem>::PAYLOAD, ) -> MultiValue2<T1, T2>

Parses given bytes as a an owned object.

unsafe fn borrow_from_payload<'a>( payload: &<MultiValue2<T1, T2> as ManagedVecItem>::PAYLOAD, ) -> <MultiValue2<T1, T2> as ManagedVecItem>::Ref<'a>

Parses given bytes as a representation of the object, either owned, or a reference.

fn save_to_payload( self, payload: &mut <MultiValue2<T1, T2> as ManagedVecItem>::PAYLOAD, )

Converts the object into bytes.

fn payload_size() -> usize

impl<T0, T1> PartialEq for MultiValue2<T0, T1>

where T0: PartialEq, T1: PartialEq,

fn eq(&self, other: &MultiValue2<T0, T1>) -> 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<T0, T1> TopDecodeMulti for MultiValue2<T0, T1>

where T0: TopDecodeMulti, T1: TopDecodeMulti,

fn multi_decode_or_handle_err<I, H>( input: &mut I, h: H, ) -> Result<MultiValue2<T0, T1>, <H as DecodeErrorHandler>::HandledErr>

where I: TopDecodeMultiInput, H: DecodeErrorHandler,

const IS_SINGLE_VALUE: bool = false

Used to optimize single value loading of endpoint arguments.

fn multi_decode<I>(input: &mut I) -> Result<Self, DecodeError>

where I: TopDecodeMultiInput,

impl<T0, T1> TopDecodeMultiLength for MultiValue2<T0, T1>

where T0: TopDecodeMulti + TopDecodeMultiLength, T1: TopDecodeMulti + TopDecodeMultiLength,

const LEN: usize

fn get_len() -> usize

impl<T0, T1> TopEncodeMulti for MultiValue2<T0, T1>

where T0: TopEncodeMulti, T1: TopEncodeMulti,

fn multi_encode_or_handle_err<O, H>( &self, output: &mut O, h: H, ) -> Result<(), <H as EncodeErrorHandler>::HandledErr>

where O: TopEncodeMultiOutput, H: EncodeErrorHandler,

Version of top_encode that can handle errors as soon as they occur. For instance in can exit immediately and make sure that if it returns, it is a success. By not deferring error handling, this can lead to somewhat smaller bytecode.

fn multi_encode<O>(&self, output: &mut O) -> Result<(), EncodeError>

where O: TopEncodeMultiOutput,

Attempt to serialize the value to ouput.

impl<T0, T1> TypeAbi for MultiValue2<T0, T1>

where T0: TypeAbi, T1: TypeAbi,

type Unmanaged = MultiValue2<<T0 as TypeAbi>::Unmanaged, <T1 as TypeAbi>::Unmanaged>

fn type_name() -> String

fn type_name_rust() -> String

fn provide_type_descriptions<TDC>(accumulator: &mut TDC)

where TDC: TypeDescriptionContainer,

A type can provide more than its own name. For instance, a struct can also provide the descriptions of the type of its fields. TypeAbi doesn’t care for the exact accumulator type, which is abstracted by the TypeDescriptionContainer trait.

fn type_names() -> TypeNames

impl<T0, T1> StructuralPartialEq for MultiValue2<T0, T1>

impl<T0, U0, T1, U1> TypeAbiFrom<MultiValue2<U0, U1>> for MultiValue2<T0, T1>

where T0: TypeAbiFrom<U0>, T1: TypeAbiFrom<U1>,