Struct CompilerInput 

pub struct CompilerInput {
    pub(crate) evm_version: Option<String>,
    pub(crate) sources: Vec<String>,
    pub(crate) files: HashMap<String, String>,
    pub(crate) construct_args: Option<Vec<String>>,
    pub(crate) alternative_main: Option<String>,
    pub(crate) alternative_constructor: Option<String>,
}

Input configuration for the Huff compiler

Fields

evm_version: Option<String>

sources: Vec<String>

files: HashMap<String, String>

construct_args: Option<Vec<String>>

alternative_main: Option<String>

alternative_constructor: Option<String>

Trait Implementations

impl<'de> Deserialize<'de> for CompilerInput

fn deserialize<__D>(__deserializer: __D) -> Result<Self, __D::Error>

where __D: Deserializer<'de>,

Deserialize this value from the given Serde deserializer.

impl From<CompilerInput> for JsValue

where CompilerInput: Serialize,

fn from(value: CompilerInput) -> Self

Converts to this type from the input type.

impl FromWasmAbi for CompilerInput

where Self: DeserializeOwned,

type Abi = <JsType as FromWasmAbi>::Abi

The Wasm ABI type that this converts from when coming back out from the ABI boundary.

unsafe fn from_abi(js: Self::Abi) -> Self

Recover a Self from Self::Abi.

impl IntoWasmAbi for &CompilerInput

where CompilerInput: Serialize,

type Abi = <JsType as IntoWasmAbi>::Abi

The Wasm ABI type that this converts into when crossing the ABI boundary.

fn into_abi(self) -> Self::Abi

Convert self into Self::Abi so that it can be sent across the wasm ABI boundary.

impl IntoWasmAbi for CompilerInput

where CompilerInput: Serialize,

type Abi = <JsType as IntoWasmAbi>::Abi

The Wasm ABI type that this converts into when crossing the ABI boundary.

fn into_abi(self) -> Self::Abi

Convert self into Self::Abi so that it can be sent across the wasm ABI boundary.

impl OptionFromWasmAbi for CompilerInput

where Self: DeserializeOwned,

fn is_none(js: &Self::Abi) -> bool

Tests whether the argument is a “none” instance. If so it will be deserialized as None, and otherwise it will be passed to FromWasmAbi.

impl OptionIntoWasmAbi for CompilerInput

where CompilerInput: Serialize,

fn none() -> Self::Abi

Returns an ABI instance indicating “none”, which JS will interpret as the None branch of this option.

impl RefFromWasmAbi for CompilerInput

where Self: DeserializeOwned,

type Abi = <JsType as RefFromWasmAbi>::Abi

The Wasm ABI type references to Self are recovered from.

type Anchor = SelfOwner<CompilerInput>

The type that holds the reference to Self for the duration of the invocation of the function that has an &Self parameter. This is required to ensure that the lifetimes don’t persist beyond one function call, and so that they remain anonymous.

unsafe fn ref_from_abi(js: Self::Abi) -> Self::Anchor

Recover a Self::Anchor from Self::Abi.

impl Serialize for CompilerInput

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

where __S: Serializer,

Serialize this value into the given Serde serializer.

impl Tsify for CompilerInput

const DECL: &'static str = "/**\n * Input configuration for the Huff compiler\n */\nexport interface CompilerInput {\n evm_version: string | undefined;\n sources: string[];\n files: Map<string, string>;\n construct_args: string[] | undefined;\n alternative_main: string | undefined;\n alternative_constructor: string | undefined;\n}"

const SERIALIZATION_CONFIG: SerializationConfig

type JsType = JsType

fn into_js(&self) -> Result<Self::JsType, Error>

where Self: Serialize,

fn from_js<T>(js: T) -> Result<Self, Error>

where T: Into<JsValue>, Self: DeserializeOwned,

impl VectorFromWasmAbi for CompilerInput

where Self: DeserializeOwned,

type Abi = <JsType as VectorFromWasmAbi>::Abi

unsafe fn vector_from_abi(js: Self::Abi) -> Box<[Self]>

impl VectorIntoWasmAbi for CompilerInput

where CompilerInput: Serialize,

type Abi = <JsType as VectorIntoWasmAbi>::Abi

fn vector_into_abi(vector: Box<[Self]>) -> Self::Abi

impl WasmDescribe for CompilerInput

fn describe()

impl WasmDescribeVector for CompilerInput

fn describe_vector()

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: 168 bytes