Struct sp_core::sr25519::Pair

pub struct Pair(_);

An Schnorrkel/Ristretto x25519 (“sr25519”) key pair.

Implementations

impl Pair

pub fn make_bytes<const N: usize>( &self, context: &[u8], input: &VrfInput ) -> [u8; N]where [u8; N]: Default,

Generate output bytes from the given VRF configuration.

impl Pair

pub fn verify_deprecated<M: AsRef<[u8]>>( sig: &Signature, message: M, pubkey: &Public ) -> bool

Verify a signature on a message. Returns true if the signature is good. Supports old 0.1.1 deprecated signatures and should be used only for backward compatibility.

Trait Implementations

impl AsRef<Keypair> for Pair

fn as_ref(&self) -> &Keypair

Converts this type into a shared reference of the (usually inferred) input type.

impl Clone for Pair

fn clone(&self) -> Self

Returns a copy of the value.

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

Performs copy-assignment from source.

impl CryptoType for Pair

type Pair = Pair

The pair key type of this crypto.

impl From<Keypair> for Pair

fn from(p: Keypair) -> Pair

Converts to this type from the input type.

impl From<MiniSecretKey> for Pair

fn from(sec: MiniSecretKey) -> Pair

Converts to this type from the input type.

impl From<Pair> for Keypair

fn from(p: Pair) -> Keypair

Converts to this type from the input type.

impl From<SecretKey> for Pair

fn from(sec: SecretKey) -> Pair

Converts to this type from the input type.

impl Pair for Pair

fn public(&self) -> Public

Get the public key.

fn from_seed_slice(seed: &[u8]) -> Result<Pair, SecretStringError>

Make a new key pair from raw secret seed material.

This is generated using schnorrkel’s Mini-Secret-Keys.

A MiniSecretKey is literally what Ed25519 calls a SecretKey, which is just 32 random bytes.

type Public = Public

The type which is used to encode a public key.

type Seed = [u8; 32]

The type used to (minimally) encode the data required to securely create a new key pair.

type Signature = Signature

The type used to represent a signature. Can be created from a key pair and a message and verified with the message and a public key.

fn derive<Iter: Iterator<Item = DeriveJunction>>( &self, path: Iter, seed: Option<[u8; 32]> ) -> Result<(Pair, Option<[u8; 32]>), DeriveError>

Derive a child key from a series of given junctions.

fn sign(&self, message: &[u8]) -> Signature

Sign a message.

fn verify<M: AsRef<[u8]>>(sig: &Signature, message: M, pubkey: &Public) -> bool

Verify a signature on a message. Returns true if the signature is good.

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

Return a vec filled with raw data.

fn generate() -> (Self, Self::Seed)

Generate new secure (random) key pair.

fn generate_with_phrase(password: Option<&str>) -> (Self, String, Self::Seed)

Generate new secure (random) key pair and provide the recovery phrase.

fn from_phrase( phrase: &str, password: Option<&str> ) -> Result<(Self, Self::Seed), SecretStringError>

Returns the KeyPair from the English BIP39 seed phrase, or an error if it’s invalid.

fn from_seed(seed: &Self::Seed) -> Self

Generate new key pair from the provided seed.

fn from_string_with_seed( s: &str, password_override: Option<&str> ) -> Result<(Self, Option<Self::Seed>), SecretStringError>

Interprets the string s in order to generate a key Pair. Returns both the pair and an optional seed, in the case that the pair can be expressed as a direct derivation from a seed (some cases, such as Sr25519 derivations with path components, cannot).

fn from_string( s: &str, password_override: Option<&str> ) -> Result<Self, SecretStringError>

Interprets the string s in order to generate a key pair.

impl VrfCrypto for Pair

type VrfInput = VrfTranscript

VRF input.

type VrfOutput = VrfOutput

VRF output.

type VrfSignData = VrfSignData

VRF signing data.

type VrfSignature = VrfSignature

VRF signature.

impl VrfSecret for Pair

fn vrf_sign(&self, data: &Self::VrfSignData) -> Self::VrfSignature

Sign VRF-specific data.

fn vrf_output(&self, input: &Self::VrfInput) -> Self::VrfOutput

Get VRF-specific output .