Struct EgldOrEsdtTokenPayment

pub struct EgldOrEsdtTokenPayment<M: ManagedTypeApi> {
    pub token_identifier: EgldOrEsdtTokenIdentifier<M>,
    pub token_nonce: u64,
    pub amount: BigUint<M>,
}

Fields

token_identifier: EgldOrEsdtTokenIdentifier<M>

token_nonce: u64

amount: BigUint<M>

Implementations

impl<M: ManagedTypeApi> EgldOrEsdtTokenPayment<M>

pub fn no_payment() -> Self

pub fn new( token_identifier: EgldOrEsdtTokenIdentifier<M>, token_nonce: u64, amount: BigUint<M>, ) -> Self

pub fn egld_payment(amount: BigUint<M>) -> Self

A payment of token EGLD-000000.

pub fn unwrap_esdt(self) -> EsdtTokenPayment<M>

Will convert to just ESDT or terminate execution if the token is EGLD.

pub fn map_egld_or_esdt<Context, D, F, U>( self, context: Context, for_egld: D, for_esdt: F, ) -> U

where D: FnOnce(Context, BigUint<M>) -> U, F: FnOnce(Context, EsdtTokenPayment<M>) -> U,

Equivalent to a match { Egld | Esdt }.

Context passed on from function to closures, to avoid ownership issues. More precisely, since only one of the two closures for_egld and for_esdt is called, it is ok for them to have fully owned access to anything from the environment. The compiler doesn’t know that only one of them can ever be called, so if we pass context to both closures, it will complain that they are moved twice.

pub fn map_ref_egld_or_esdt<Context, D, F, U>( &self, context: Context, for_egld: D, for_esdt: F, ) -> U

where D: FnOnce(Context, &BigUint<M>) -> U, F: FnOnce(Context, EsdtTokenPaymentRefs<'_, M>) -> U,

Same as map_egld_or_esdt, but only takes a reference, and consequently, the closures also only get references.

pub fn into_tuple(self) -> (EgldOrEsdtTokenIdentifier<M>, u64, BigUint<M>)

impl<M: ManagedTypeApi> EgldOrEsdtTokenPayment<M>

pub fn as_refs(&self) -> EgldOrEsdtTokenPaymentRefs<'_, M>

Trait Implementations

impl<M: Clone + ManagedTypeApi> Clone for EgldOrEsdtTokenPayment<M>

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

Returns a copy of the value.

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

Performs copy-assignment from source.

impl<M: Debug + ManagedTypeApi> Debug for EgldOrEsdtTokenPayment<M>

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

Formats the value using the given formatter.

impl<M: ManagedTypeApi> From<(EgldOrEsdtTokenIdentifier<M>, u64, BigUint<M>)> for EgldOrEsdtTokenPayment<M>

fn from(value: (EgldOrEsdtTokenIdentifier<M>, u64, BigUint<M>)) -> Self

Converts to this type from the input type.

impl<M: ManagedTypeApi> From<EgldOrEsdtTokenPayment<M>> for EgldOrEsdtTokenPaymentMultiValue<M>

fn from(obj: EgldOrEsdtTokenPayment<M>) -> Self

Converts to this type from the input type.

impl<M: ManagedTypeApi> From<EsdtTokenPayment<M>> for EgldOrEsdtTokenPayment<M>

fn from(esdt_payment: EsdtTokenPayment<M>) -> Self

Converts to this type from the input type.

impl<M: ManagedTypeApi> IntoMultiValue for EgldOrEsdtTokenPayment<M>

type MultiValue = EgldOrEsdtTokenPaymentMultiValue<M>

fn into_multi_value(self) -> Self::MultiValue

impl<M: ManagedTypeApi> ManagedVecItem for EgldOrEsdtTokenPayment<M>

const SKIPS_RESERIALIZATION: bool = false

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 = ManagedVecItemPayloadBuffer<16>

Type managing the underlying binary representation in a ManagedVec..

type Ref<'a> = ManagedVecRef<'a, EgldOrEsdtTokenPayment<M>>

Reference representation of the ManagedVec item.

fn read_from_payload(payload: &Self::PAYLOAD) -> Self

Parses given bytes as a an owned object.

unsafe fn borrow_from_payload<'a>(payload: &Self::PAYLOAD) -> Self::Ref<'a>

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

fn save_to_payload(self, payload: &mut Self::PAYLOAD)

Converts the object into bytes.

fn payload_size() -> usize

impl<M: ManagedTypeApi> NestedDecode for EgldOrEsdtTokenPayment<M>

fn dep_decode_or_handle_err<I, H>( input: &mut I, __h__: H, ) -> Result<Self, H::HandledErr>

where I: NestedDecodeInput, H: DecodeErrorHandler,

Version of dep_decode 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 dep_decode<I>(input: &mut I) -> Result<Self, DecodeError>

where I: NestedDecodeInput,

Attempt to deserialise the value from input, using the format of an object nested inside another structure. In case of success returns the deserialized value and the number of bytes consumed during the operation.

impl<M: ManagedTypeApi> NestedEncode for EgldOrEsdtTokenPayment<M>

fn dep_encode_or_handle_err<O, H>( &self, __dest__: &mut O, __h__: H, ) -> Result<(), H::HandledErr>

where O: NestedEncodeOutput, H: EncodeErrorHandler,

Version of dep_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 dep_encode<O>(&self, dest: &mut O) -> Result<(), EncodeError>

where O: NestedEncodeOutput,

NestedEncode to output, using the format of an object nested inside another structure. Does not provide compact version.

impl<M: PartialEq + ManagedTypeApi> PartialEq for EgldOrEsdtTokenPayment<M>

fn eq(&self, other: &EgldOrEsdtTokenPayment<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: ManagedTypeApi> TopDecode for EgldOrEsdtTokenPayment<M>

fn top_decode_or_handle_err<I, H>( top_input: I, __h__: H, ) -> Result<Self, H::HandledErr>

where I: TopDecodeInput, H: DecodeErrorHandler,

Version of top_decode that can handle errors as soon as they occur. For instance it 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 top_decode<I>(input: I) -> Result<Self, DecodeError>

where I: TopDecodeInput,

Attempt to deserialize the value from input.

impl<M: ManagedTypeApi> TopEncode for EgldOrEsdtTokenPayment<M>

fn top_encode_or_handle_err<O, H>( &self, output: O, __h__: H, ) -> Result<(), H::HandledErr>

where O: TopEncodeOutput, 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 top_encode<O>(&self, output: O) -> Result<(), EncodeError>

where O: TopEncodeOutput,

Attempt to serialize the value to ouput.

impl<Env> TxPayment<Env> for &EgldOrEsdtTokenPayment<Env::Api>

where Env: TxEnv,

fn is_no_payment(&self, _env: &Env) -> bool

Returns true if payment indicates transfer of either non-zero EGLD or ESDT amounts.

fn perform_transfer_execute( self, env: &Env, to: &ManagedAddress<Env::Api>, gas_limit: u64, fc: FunctionCall<Env::Api>, )

Transfer-execute calls have different APIs for different payments types. This method selects between them.

fn with_normalized<From, To, F, R>( self, env: &Env, from: &From, to: To, fc: FunctionCall<Env::Api>, f: F, ) -> R

where From: TxFrom<Env>, To: TxToSpecified<Env>, F: FnOnce(&ManagedAddress<Env::Api>, &BigUint<Env::Api>, FunctionCall<Env::Api>) -> R,

Converts an ESDT call to a built-in function call, if necessary.

fn into_full_payment_data(self, env: &Env) -> FullPaymentData<Env::Api>

Payment data to be used by the testing framework. Will be refactored.

impl<Env> TxPayment<Env> for EgldOrEsdtTokenPayment<Env::Api>

where Env: TxEnv,

fn is_no_payment(&self, env: &Env) -> bool

Returns true if payment indicates transfer of either non-zero EGLD or ESDT amounts.

fn perform_transfer_execute( self, env: &Env, to: &ManagedAddress<Env::Api>, gas_limit: u64, fc: FunctionCall<Env::Api>, )

Transfer-execute calls have different APIs for different payments types. This method selects between them.

fn with_normalized<From, To, F, R>( self, env: &Env, from: &From, to: To, fc: FunctionCall<Env::Api>, f: F, ) -> R

where From: TxFrom<Env>, To: TxToSpecified<Env>, F: FnOnce(&ManagedAddress<Env::Api>, &BigUint<Env::Api>, FunctionCall<Env::Api>) -> R,

Converts an ESDT call to a built-in function call, if necessary.

fn into_full_payment_data(self, env: &Env) -> FullPaymentData<Env::Api>

Payment data to be used by the testing framework. Will be refactored.

impl<M: ManagedTypeApi> TypeAbi for EgldOrEsdtTokenPayment<M>

type Unmanaged = EgldOrEsdtTokenPayment<M>

fn type_name() -> TypeName

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

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

fn type_name_rust() -> TypeName

impl<M: Eq + ManagedTypeApi> Eq for EgldOrEsdtTokenPayment<M>

impl<M: ManagedTypeApi> StructuralPartialEq for EgldOrEsdtTokenPayment<M>

impl<M> TypeAbiFrom<&[u8]> for EgldOrEsdtTokenPayment<M>

where M: ManagedTypeApi,

impl<M: ManagedTypeApi> TypeAbiFrom<&EgldOrEsdtTokenPayment<M>> for EgldOrEsdtTokenPayment<M>

impl<M: ManagedTypeApi> TypeAbiFrom<EgldOrEsdtTokenPayment<M>> for EgldOrEsdtTokenPayment<M>