Struct log_named_array_1

pub struct log_named_array_1 {
    pub key: String,
    pub val: Vec<Signed<256, 4>>,
}

Event with signature log_named_array(string,int256[]) and selector 0xa73eda09662f46dde729be4611385ff34fe6c44fbbc6f7e17b042b59a3445b57.

event log_named_array(string key, int256[] val);

Fields

key: String

val: Vec<Signed<256, 4>>

Trait Implementations

impl Clone for log_named_array_1

fn clone(&self) -> log_named_array_1

Returns a copy of the value.

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

Performs copy-assignment from source.

impl Display for log_named_array_1

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

Formats the value using the given formatter.

impl IntoLogData for log_named_array_1

fn to_log_data(&self) -> LogData

Convert into a [LogData] object.

fn into_log_data(self) -> LogData

Consume and convert into a [LogData] object.

impl SolEvent for log_named_array_1

const SIGNATURE: &'static str = "log_named_array(string,int256[])"

The event’s ABI signature.

const SIGNATURE_HASH: FixedBytes<32> = _

The event’s ABI signature hash, or selector: keccak256(SIGNATURE)

const ANONYMOUS: bool = false

Whether the event is anonymous.

type DataTuple<'a> = (String, Array<Int<256>>)

The underlying tuple type which represents this event’s non-indexed parameters. These parameters are ABI encoded and included in the log body.

type DataToken<'a> = <<log_named_array_1 as SolEvent>::DataTuple<'a> as SolType>::Token<'a>

The [TokenSeq] type corresponding to the tuple.

type TopicList = (FixedBytes<32>,)

The underlying tuple type which represents this event’s topics.

fn new( topics: <<log_named_array_1 as SolEvent>::TopicList as SolType>::RustType, data: <<log_named_array_1 as SolEvent>::DataTuple<'_> as SolType>::RustType, ) -> log_named_array_1

Convert decoded rust data to the event type.

fn check_signature( topics: &<<log_named_array_1 as SolEvent>::TopicList as SolType>::RustType, ) -> Result<(), Error>

Check that the event’s signature matches the given topics.

fn tokenize_body(&self) -> <log_named_array_1 as SolEvent>::DataToken<'_>

Tokenize the event’s non-indexed parameters.

fn topics( &self, ) -> <<log_named_array_1 as SolEvent>::TopicList as SolType>::RustType

The event’s topics.

fn encode_topics_raw(&self, out: &mut [WordToken]) -> Result<(), Error>

Encode the topics of this event into the given buffer.

fn new_checked( topics: <Self::TopicList as SolType>::RustType, data: <Self::DataTuple<'_> as SolType>::RustType, ) -> Result<Self, Error>

Convert decoded rust data to the event type.

fn abi_encoded_size(&self) -> usize

The size of the ABI-encoded dynamic data in bytes.

fn encode_data_to(&self, out: &mut Vec<u8>)

ABI-encode the dynamic data of this event into the given buffer.

fn encode_data(&self) -> Vec<u8>

ABI-encode the dynamic data of this event.

fn encode_topics(&self) -> Vec<WordToken>

Encode the topics of this event.

fn encode_topics_array<const LEN: usize>(&self) -> [WordToken; LEN]

Encode the topics of this event into a fixed-size array.

fn encode_log_data(&self) -> LogData

Encode this event to a [LogData].

fn encode_log(log: &Log<Self>) -> Log

Transform ca [Log] containing this event into a [Log] containing [LogData].

fn decode_topics<I, D>( topics: I, ) -> Result<<Self::TopicList as SolType>::RustType, Error>

where I: IntoIterator<Item = D>, D: Into<WordToken>,

Decode the topics of this event from the given data.

fn abi_decode_data<'a>( data: &'a [u8], validate: bool, ) -> Result<<Self::DataTuple<'a> as SolType>::RustType, Error>

ABI-decodes the dynamic data of this event from the given buffer.

fn decode_raw_log<I, D>( topics: I, data: &[u8], validate: bool, ) -> Result<Self, Error>

where I: IntoIterator<Item = D>, D: Into<WordToken>,

Decode the event from the given log info.

fn decode_log_data(log: &LogData, validate: bool) -> Result<Self, Error>

Decode the event from the given log object.

fn decode_log(log: &Log, validate: bool) -> Result<Log<Self>, Error>

Decode the event from the given log object.

Layout

Note: Most layout information is completely unstable and may even differ between compilations. The only exception is types with certain repr(...) attributes. Please see the Rust Reference's “Type Layout” chapter for details on type layout guarantees.

Size: 48 bytes