Struct snarkvm_circuit_account::compute_key::ComputeKey

pub struct ComputeKey<A: Aleo> { /* private fields */ }

Implementations

impl<A: Aleo> ComputeKey<A>

pub fn from_private_key(private_key: &PrivateKey<A>) -> Self

Returns the account compute key for this account private key.

impl<A: Aleo> ComputeKey<A>

pub fn to_address(&self) -> Address<A>

Returns the account address for this account compute key.

impl<A: Aleo> ComputeKey<A>

pub const fn pk_sig(&self) -> &Group<A>

Returns the signature public key.

pub const fn pr_sig(&self) -> &Group<A>

Returns the signature public randomizer.

pub const fn sk_prf(&self) -> &Scalar<A>

Returns the PRF secret key.

Trait Implementations

impl<A: Clone + Aleo> Clone for ComputeKey<A>

fn clone(&self) -> ComputeKey<A>

Returns a copy of the value.

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

Performs copy-assignment from source.

impl<A: Aleo> Eject for ComputeKey<A>

fn eject_mode(&self) -> Mode

Ejects the mode of the compute key.

fn eject_value(&self) -> Self::Primitive

Ejects the compute key.

type Primitive = ComputeKey<<A as Environment>::Network>

fn eject(&self) -> (Mode, Self::Primitive)

Ejects the mode and primitive value of the circuit type.

fn is_constant(&self) -> bool

Returns true if the circuit is a constant.

fn is_public(&self) -> bool

Returns true if the circuit is a public.

fn is_private(&self) -> bool

Returns true if the circuit is a private.

impl<A: Aleo> Equal for ComputeKey<A>

fn is_equal(&self, other: &Self) -> Self::Output

Returns true if self and other are equal.

fn is_not_equal(&self, other: &Self) -> Self::Output

Returns true if self and other are not equal.

This method constructs a boolean that indicates if self and other are not equal to each other.

type Output = Boolean<A>

impl<A: Aleo> From<(Group<A>, Group<A>)> for ComputeKey<A>

fn from((pk_sig, pr_sig): (Group<A>, Group<A>)) -> Self

Derives the account compute key from a tuple (pk_sig, pr_sig).

impl<A: Aleo> FromBits for ComputeKey<A>

fn from_bits_le(bits_le: &[Self::Boolean]) -> Self

Initializes a new compute key from a list of little-endian bits.

fn from_bits_be(bits_be: &[Self::Boolean]) -> Self

Initializes a new compute key from a list of big-endian bits.

type Boolean = Boolean<A>

impl<A: Aleo> Inject for ComputeKey<A>

fn new(mode: Mode, compute_key: Self::Primitive) -> Self

Initializes an account compute key from the given mode and native compute key.

type Primitive = ComputeKey<<A as Environment>::Network>

fn constant(value: Self::Primitive) -> Selfwhere Self: Sized,

Initializes a constant of the given primitive value.

impl<A: Aleo> Metrics<dyn Equal<ComputeKey<A>, Output = Boolean<A>>> for ComputeKey<A>

type Case = (Mode, Mode)

fn count(case: &Self::Case) -> Count

Returns the number of constants, public inputs, private inputs, and constraints.

impl<A: Aleo> Metrics<dyn Ternary<Boolean = Boolean<A>, Output = ComputeKey<A>>> for ComputeKey<A>

type Case = (Mode, Mode, Mode)

fn count(case: &Self::Case) -> Count

Returns the number of constants, public inputs, private inputs, and constraints.

impl<A: Aleo> OutputMode<dyn Equal<ComputeKey<A>, Output = Boolean<A>>> for ComputeKey<A>

type Case = (Mode, Mode)

fn output_mode(case: &Self::Case) -> Mode

Returns the mode of the output.

impl<A: Aleo> OutputMode<dyn Ternary<Boolean = Boolean<A>, Output = ComputeKey<A>>> for ComputeKey<A>

type Case = (CircuitType<Boolean<A>>, Mode, Mode)

fn output_mode(parameter: &Self::Case) -> Mode

Returns the mode of the output.

impl<A: Aleo> Ternary for ComputeKey<A>

fn ternary( condition: &Self::Boolean, first: &Self, second: &Self ) -> Self::Output

Returns first if condition is true, otherwise returns second.

type Boolean = Boolean<A>

type Output = ComputeKey<A>

impl<A: Aleo> ToBits for &ComputeKey<A>

fn write_bits_le(&self, vec: &mut Vec<Self::Boolean>)

Outputs the little-endian bit representation of the compute key without trailing zeros.

fn write_bits_be(&self, vec: &mut Vec<Self::Boolean>)

Outputs the big-endian bit representation of the compute key without leading zeros.

type Boolean = Boolean<A>

fn to_bits_le(&self) -> Vec<Self::Boolean>

Returns the little-endian bits of the circuit.

fn to_bits_be(&self) -> Vec<Self::Boolean>

Returns the big-endian bits of the circuit.

impl<A: Aleo> ToBits for ComputeKey<A>

fn write_bits_le(&self, vec: &mut Vec<Self::Boolean>)

Outputs the little-endian bit representation of the compute key without trailing zeros.

fn write_bits_be(&self, vec: &mut Vec<Self::Boolean>)

Outputs the big-endian bit representation of the compute key without leading zeros.

type Boolean = Boolean<A>

fn to_bits_le(&self) -> Vec<Self::Boolean>

Returns the little-endian bits of the circuit.

fn to_bits_be(&self) -> Vec<Self::Boolean>

Returns the big-endian bits of the circuit.

impl<A: Aleo> ToFields for ComputeKey<A>

fn to_fields(&self) -> Vec<Self::Field>

Casts a compute key into a list of base fields.

type Field = Field<A>