// Copyright 2015-2019 Parity Technologies (UK) Ltd. // This file is part of Parity Ethereum. // Parity Ethereum is free software: you can redistribute it and/or modify // it under the terms of the GNU General Public License as published by // the Free Software Foundation, either version 3 of the License, or // (at your option) any later version. // Parity Ethereum is distributed in the hope that it will be useful, // but WITHOUT ANY WARRANTY; without even the implied warranty of // MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the // GNU General Public License for more details. // You should have received a copy of the GNU General Public License // along with Parity Ethereum. If not, see . #![warn(missing_docs)] //! Account management. mod account_data; mod error; mod stores; #[cfg(not(any(target_os = "linux", target_os = "macos", target_os = "windows")))] extern crate fake_hardware_wallet as hardware_wallet; use self::{ account_data::{AccountData, Unlock}, stores::AddressBook, }; use std::{ collections::HashMap, time::{Duration, Instant}, }; use common_types::transaction::{Action, Transaction}; use ethkey::{Address, Generator, Message, Password, Public, Random, Secret}; use ethstore::{ accounts_dir::MemoryDirectory, random_string, EthMultiStore, EthStore, OpaqueSecret, SecretStore, SecretVaultRef, SimpleSecretStore, StoreAccountRef, }; use log::{debug, warn}; use parking_lot::RwLock; pub use ethkey::Signature; pub use ethstore::{Derivation, Error, IndexDerivation, KeyFile}; pub use hardware_wallet::{ Error as HardwareError, HardwareWalletManager, KeyPath, TransactionInfo, }; pub use self::{account_data::AccountMeta, error::SignError}; type AccountToken = Password; /// Account management settings. #[derive(Debug, Default)] pub struct AccountProviderSettings { /// Enable hardware wallet support. pub enable_hardware_wallets: bool, /// Use the classic chain key on the hardware wallet. pub hardware_wallet_classic_key: bool, /// Store raw account secret when unlocking the account permanently. pub unlock_keep_secret: bool, /// Disallowed accounts. pub blacklisted_accounts: Vec
, } /// Account management. /// Responsible for unlocking accounts. pub struct AccountProvider { /// For performance reasons some methods can re-use unlocked secrets. unlocked_secrets: RwLock>, /// Unlocked account data. unlocked: RwLock>, /// Address book. address_book: RwLock, /// Accounts on disk sstore: Box, /// Accounts unlocked with rolling tokens transient_sstore: EthMultiStore, /// Accounts in hardware wallets. hardware_store: Option, /// When unlocking account permanently we additionally keep a raw secret in memory /// to increase the performance of transaction signing. unlock_keep_secret: bool, /// Disallowed accounts. blacklisted_accounts: Vec
, } fn transient_sstore() -> EthMultiStore { EthMultiStore::open(Box::new(MemoryDirectory::default())) .expect("MemoryDirectory load always succeeds; qed") } impl AccountProvider { /// Creates new account provider. pub fn new(sstore: Box, settings: AccountProviderSettings) -> Self { let mut hardware_store = None; if settings.enable_hardware_wallets { match HardwareWalletManager::new() { Ok(manager) => { manager.set_key_path(if settings.hardware_wallet_classic_key { KeyPath::EthereumClassic } else { KeyPath::Ethereum }); hardware_store = Some(manager) } Err(e) => debug!("Error initializing hardware wallets: {}", e), } } if let Ok(accounts) = sstore.accounts() { for account in accounts .into_iter() .filter(|a| settings.blacklisted_accounts.contains(&a.address)) { warn!("Local Account {} has a blacklisted (known to be weak) address and will be ignored", account.address); } } // Remove blacklisted accounts from address book. let mut address_book = AddressBook::new(&sstore.local_path()); for addr in &settings.blacklisted_accounts { address_book.remove(*addr); } AccountProvider { unlocked_secrets: RwLock::new(HashMap::new()), unlocked: RwLock::new(HashMap::new()), address_book: RwLock::new(address_book), sstore: sstore, transient_sstore: transient_sstore(), hardware_store: hardware_store, unlock_keep_secret: settings.unlock_keep_secret, blacklisted_accounts: settings.blacklisted_accounts, } } /// Creates not disk backed provider. pub fn transient_provider() -> Self { AccountProvider { unlocked_secrets: RwLock::new(HashMap::new()), unlocked: RwLock::new(HashMap::new()), address_book: RwLock::new(AddressBook::transient()), sstore: Box::new( EthStore::open(Box::new(MemoryDirectory::default())) .expect("MemoryDirectory load always succeeds; qed"), ), transient_sstore: transient_sstore(), hardware_store: None, unlock_keep_secret: false, blacklisted_accounts: vec![], } } /// Creates new random account. pub fn new_account(&self, password: &Password) -> Result { self.new_account_and_public(password).map(|d| d.0) } /// Creates new random account and returns address and public key pub fn new_account_and_public(&self, password: &Password) -> Result<(Address, Public), Error> { let acc = Random .generate() .expect("secp context has generation capabilities; qed"); let public = acc.public().clone(); let secret = acc.secret().clone(); let account = self .sstore .insert_account(SecretVaultRef::Root, secret, password)?; Ok((account.address, public)) } /// Inserts new account into underlying store. /// Does not unlock account! pub fn insert_account(&self, secret: Secret, password: &Password) -> Result { let account = self .sstore .insert_account(SecretVaultRef::Root, secret, password)?; if self.blacklisted_accounts.contains(&account.address) { self.sstore.remove_account(&account, password)?; return Err(Error::InvalidAccount.into()); } Ok(account.address) } /// Generates new derived account based on the existing one /// If password is not provided, account must be unlocked /// New account will be created with the same password (if save: true) pub fn derive_account( &self, address: &Address, password: Option, derivation: Derivation, save: bool, ) -> Result { let account = self.sstore.account_ref(&address)?; let password = password .map(Ok) .unwrap_or_else(|| self.password(&account))?; Ok(if save { self.sstore .insert_derived(SecretVaultRef::Root, &account, &password, derivation)? .address } else { self.sstore .generate_derived(&account, &password, derivation)? }) } /// Import a new presale wallet. pub fn import_presale( &self, presale_json: &[u8], password: &Password, ) -> Result { let account = self .sstore .import_presale(SecretVaultRef::Root, presale_json, password)?; Ok(Address::from(account.address).into()) } /// Import a new wallet. pub fn import_wallet( &self, json: &[u8], password: &Password, gen_id: bool, ) -> Result { let account = self .sstore .import_wallet(SecretVaultRef::Root, json, password, gen_id)?; if self.blacklisted_accounts.contains(&account.address) { self.sstore.remove_account(&account, password)?; return Err(Error::InvalidAccount.into()); } Ok(Address::from(account.address).into()) } /// Checks whether an account with a given address is present. pub fn has_account(&self, address: Address) -> bool { self.sstore.account_ref(&address).is_ok() && !self.blacklisted_accounts.contains(&address) } /// Returns addresses of all accounts. pub fn accounts(&self) -> Result, Error> { let accounts = self.sstore.accounts()?; Ok(accounts .into_iter() .map(|a| a.address) .filter(|address| !self.blacklisted_accounts.contains(address)) .collect()) } /// Returns the address of default account. pub fn default_account(&self) -> Result { Ok(self.accounts()?.first().cloned().unwrap_or_default()) } /// Returns addresses of hardware accounts. pub fn hardware_accounts(&self) -> Result, Error> { if let Some(accounts) = self.hardware_store.as_ref().map(|h| h.list_wallets()) { if !accounts.is_empty() { return Ok(accounts.into_iter().map(|a| a.address).collect()); } } Err(Error::Custom( "No hardware wallet accounts were found".into(), )) } /// Get a list of paths to locked hardware wallets pub fn locked_hardware_accounts(&self) -> Result, SignError> { match self .hardware_store .as_ref() .map(|h| h.list_locked_wallets()) { None => Err(SignError::NotFound), Some(Err(e)) => Err(SignError::Hardware(e)), Some(Ok(s)) => Ok(s), } } /// Provide a pin to a locked hardware wallet on USB path to unlock it pub fn hardware_pin_matrix_ack(&self, path: &str, pin: &str) -> Result { match self .hardware_store .as_ref() .map(|h| h.pin_matrix_ack(path, pin)) { None => Err(SignError::NotFound), Some(Err(e)) => Err(SignError::Hardware(e)), Some(Ok(s)) => Ok(s), } } /// Returns each address along with metadata. pub fn addresses_info(&self) -> HashMap { self.address_book.read().get() } /// Returns each address along with metadata. pub fn set_address_name(&self, account: Address, name: String) { self.address_book.write().set_name(account, name) } /// Returns each address along with metadata. pub fn set_address_meta(&self, account: Address, meta: String) { self.address_book.write().set_meta(account, meta) } /// Removes and address from the address book pub fn remove_address(&self, addr: Address) { self.address_book.write().remove(addr) } /// Returns each account along with name and meta. pub fn accounts_info(&self) -> Result, Error> { let r = self .sstore .accounts()? .into_iter() .filter(|a| !self.blacklisted_accounts.contains(&a.address)) .map(|a| { ( a.address.clone(), self.account_meta(a.address).ok().unwrap_or_default(), ) }) .collect(); Ok(r) } /// Returns each hardware account along with name and meta. pub fn hardware_accounts_info(&self) -> Result, Error> { let r = self .hardware_accounts()? .into_iter() .map(|address| { ( address.clone(), self.account_meta(address).ok().unwrap_or_default(), ) }) .collect(); Ok(r) } /// Returns each hardware account along with name and meta. pub fn is_hardware_address(&self, address: &Address) -> bool { self.hardware_store .as_ref() .and_then(|s| s.wallet_info(address)) .is_some() } /// Returns each account along with name and meta. pub fn account_meta(&self, address: Address) -> Result { if let Some(info) = self .hardware_store .as_ref() .and_then(|s| s.wallet_info(&address)) { Ok(AccountMeta { name: info.name, meta: info.manufacturer, uuid: None, }) } else { let account = self.sstore.account_ref(&address)?; Ok(AccountMeta { name: self.sstore.name(&account)?, meta: self.sstore.meta(&account)?, uuid: self.sstore.uuid(&account).ok().map(Into::into), // allowed to not have a Uuid }) } } /// Returns account public key. pub fn account_public(&self, address: Address, password: &Password) -> Result { self.sstore .public(&self.sstore.account_ref(&address)?, password) } /// Returns each account along with name and meta. pub fn set_account_name(&self, address: Address, name: String) -> Result<(), Error> { self.sstore .set_name(&self.sstore.account_ref(&address)?, name)?; Ok(()) } /// Returns each account along with name and meta. pub fn set_account_meta(&self, address: Address, meta: String) -> Result<(), Error> { self.sstore .set_meta(&self.sstore.account_ref(&address)?, meta)?; Ok(()) } /// Returns `true` if the password for `account` is `password`. `false` if not. pub fn test_password(&self, address: &Address, password: &Password) -> Result { self.sstore .test_password(&self.sstore.account_ref(&address)?, password) .map_err(Into::into) } /// Permanently removes an account. pub fn kill_account(&self, address: &Address, password: &Password) -> Result<(), Error> { self.sstore .remove_account(&self.sstore.account_ref(&address)?, &password)?; Ok(()) } /// Changes the password of `account` from `password` to `new_password`. Fails if incorrect `password` given. pub fn change_password( &self, address: &Address, password: Password, new_password: Password, ) -> Result<(), Error> { self.sstore .change_password(&self.sstore.account_ref(address)?, &password, &new_password) } /// Exports an account for given address. pub fn export_account(&self, address: &Address, password: Password) -> Result { self.sstore .export_account(&self.sstore.account_ref(address)?, &password) } /// Helper method used for unlocking accounts. fn unlock_account( &self, address: Address, password: Password, unlock: Unlock, ) -> Result<(), Error> { let account = self.sstore.account_ref(&address)?; // check if account is already unlocked permanently, if it is, do nothing let mut unlocked = self.unlocked.write(); if let Some(data) = unlocked.get(&account) { if let Unlock::Perm = data.unlock { return Ok(()); } } if self.unlock_keep_secret && unlock == Unlock::Perm { // verify password and get the secret let secret = self.sstore.raw_secret(&account, &password)?; self.unlocked_secrets .write() .insert(account.clone(), secret); } else { // verify password by signing dump message // result may be discarded let _ = self.sstore.sign(&account, &password, &Default::default())?; } let data = AccountData { unlock: unlock, password: password, }; unlocked.insert(account, data); Ok(()) } fn password(&self, account: &StoreAccountRef) -> Result { let mut unlocked = self.unlocked.write(); let data = unlocked.get(account).ok_or(SignError::NotUnlocked)?.clone(); if let Unlock::OneTime = data.unlock { unlocked .remove(account) .expect("data exists: so key must exist: qed"); } if let Unlock::Timed(ref end) = data.unlock { if Instant::now() > *end { unlocked .remove(account) .expect("data exists: so key must exist: qed"); return Err(SignError::NotUnlocked); } } Ok(data.password) } /// Unlocks account permanently. pub fn unlock_account_permanently( &self, account: Address, password: Password, ) -> Result<(), Error> { self.unlock_account(account, password, Unlock::Perm) } /// Unlocks account temporarily (for one signing). pub fn unlock_account_temporarily( &self, account: Address, password: Password, ) -> Result<(), Error> { self.unlock_account(account, password, Unlock::OneTime) } /// Unlocks account temporarily with a timeout. pub fn unlock_account_timed( &self, account: Address, password: Password, duration: Duration, ) -> Result<(), Error> { self.unlock_account(account, password, Unlock::Timed(Instant::now() + duration)) } /// Checks if given account is unlocked pub fn is_unlocked(&self, address: &Address) -> bool { let unlocked = self.unlocked.read(); let unlocked_secrets = self.unlocked_secrets.read(); self.sstore .account_ref(address) .map(|r| unlocked.get(&r).is_some() || unlocked_secrets.get(&r).is_some()) .unwrap_or(false) } /// Checks if given account is unlocked permanently pub fn is_unlocked_permanently(&self, address: &Address) -> bool { let unlocked = self.unlocked.read(); self.sstore .account_ref(address) .map(|r| { unlocked .get(&r) .map_or(false, |account| account.unlock == Unlock::Perm) }) .unwrap_or(false) } /// Signs the message. If password is not provided the account must be unlocked. pub fn sign( &self, address: Address, password: Option, message: Message, ) -> Result { let account = self.sstore.account_ref(&address)?; match self.unlocked_secrets.read().get(&account) { Some(secret) => Ok(self.sstore.sign_with_secret(&secret, &message)?), None => { let password = password .map(Ok) .unwrap_or_else(|| self.password(&account))?; Ok(self.sstore.sign(&account, &password, &message)?) } } } /// Signs message using the derived secret. If password is not provided the account must be unlocked. pub fn sign_derived( &self, address: &Address, password: Option, derivation: Derivation, message: Message, ) -> Result { let account = self.sstore.account_ref(address)?; let password = password .map(Ok) .unwrap_or_else(|| self.password(&account))?; Ok(self .sstore .sign_derived(&account, &password, derivation, &message)?) } /// Signs given message with supplied token. Returns a token to use in next signing within this session. pub fn sign_with_token( &self, address: Address, token: AccountToken, message: Message, ) -> Result<(Signature, AccountToken), SignError> { let account = self.sstore.account_ref(&address)?; let is_std_password = self.sstore.test_password(&account, &token)?; let new_token = Password::from(random_string(16)); let signature = if is_std_password { // Insert to transient store self.sstore.copy_account( &self.transient_sstore, SecretVaultRef::Root, &account, &token, &new_token, )?; // sign self.sstore.sign(&account, &token, &message)? } else { // check transient store self.transient_sstore .change_password(&account, &token, &new_token)?; // and sign self.transient_sstore.sign(&account, &new_token, &message)? }; Ok((signature, new_token)) } /// Decrypts a message with given token. Returns a token to use in next operation for this account. pub fn decrypt_with_token( &self, address: Address, token: AccountToken, shared_mac: &[u8], message: &[u8], ) -> Result<(Vec, AccountToken), SignError> { let account = self.sstore.account_ref(&address)?; let is_std_password = self.sstore.test_password(&account, &token)?; let new_token = Password::from(random_string(16)); let message = if is_std_password { // Insert to transient store self.sstore.copy_account( &self.transient_sstore, SecretVaultRef::Root, &account, &token, &new_token, )?; // decrypt self.sstore.decrypt(&account, &token, shared_mac, message)? } else { // check transient store self.transient_sstore .change_password(&account, &token, &new_token)?; // and decrypt self.transient_sstore .decrypt(&account, &token, shared_mac, message)? }; Ok((message, new_token)) } /// Decrypts a message. If password is not provided the account must be unlocked. pub fn decrypt( &self, address: Address, password: Option, shared_mac: &[u8], message: &[u8], ) -> Result, SignError> { let account = self.sstore.account_ref(&address)?; let password = password .map(Ok) .unwrap_or_else(|| self.password(&account))?; Ok(self .sstore .decrypt(&account, &password, shared_mac, message)?) } /// Agree on shared key. pub fn agree( &self, address: Address, password: Option, other_public: &Public, ) -> Result { let account = self.sstore.account_ref(&address)?; let password = password .map(Ok) .unwrap_or_else(|| self.password(&account))?; Ok(self.sstore.agree(&account, &password, other_public)?) } /// Returns the underlying `SecretStore` reference if one exists. pub fn list_geth_accounts(&self, testnet: bool) -> Vec
{ self.sstore .list_geth_accounts(testnet) .into_iter() .map(|a| Address::from(a).into()) .collect() } /// Returns the underlying `SecretStore` reference if one exists. pub fn import_geth_accounts( &self, desired: Vec
, testnet: bool, ) -> Result, Error> { self.sstore .import_geth_accounts(SecretVaultRef::Root, desired, testnet) .map(|a| a.into_iter().map(|a| a.address).collect()) .map_err(Into::into) } /// Create new vault. pub fn create_vault(&self, name: &str, password: &Password) -> Result<(), Error> { self.sstore.create_vault(name, password).map_err(Into::into) } /// Open existing vault. pub fn open_vault(&self, name: &str, password: &Password) -> Result<(), Error> { self.sstore.open_vault(name, password).map_err(Into::into) } /// Close previously opened vault. pub fn close_vault(&self, name: &str) -> Result<(), Error> { self.sstore.close_vault(name).map_err(Into::into) } /// List all vaults pub fn list_vaults(&self) -> Result, Error> { self.sstore.list_vaults().map_err(Into::into) } /// List all currently opened vaults pub fn list_opened_vaults(&self) -> Result, Error> { self.sstore.list_opened_vaults().map_err(Into::into) } /// Change vault password. pub fn change_vault_password(&self, name: &str, new_password: &Password) -> Result<(), Error> { self.sstore .change_vault_password(name, new_password) .map_err(Into::into) } /// Change vault of the given address. pub fn change_vault(&self, address: Address, new_vault: &str) -> Result<(), Error> { let new_vault_ref = if new_vault.is_empty() { SecretVaultRef::Root } else { SecretVaultRef::Vault(new_vault.to_owned()) }; let old_account_ref = self.sstore.account_ref(&address)?; self.sstore .change_account_vault(new_vault_ref, old_account_ref) .map_err(Into::into) .map(|_| ()) } /// Get vault metadata string. pub fn get_vault_meta(&self, name: &str) -> Result { self.sstore.get_vault_meta(name).map_err(Into::into) } /// Set vault metadata string. pub fn set_vault_meta(&self, name: &str, meta: &str) -> Result<(), Error> { self.sstore.set_vault_meta(name, meta).map_err(Into::into) } /// Sign message with hardware wallet. pub fn sign_message_with_hardware( &self, address: &Address, message: &[u8], ) -> Result { match self .hardware_store .as_ref() .map(|s| s.sign_message(address, message)) { None | Some(Err(HardwareError::KeyNotFound)) => Err(SignError::NotFound), Some(Err(e)) => Err(From::from(e)), Some(Ok(s)) => Ok(s), } } /// Sign transaction with hardware wallet. pub fn sign_transaction_with_hardware( &self, address: &Address, transaction: &Transaction, chain_id: Option, rlp_encoded_transaction: &[u8], ) -> Result { let t_info = TransactionInfo { nonce: transaction.nonce, gas_price: transaction.gas_price, gas_limit: transaction.gas, to: match transaction.action { Action::Create => None, Action::Call(ref to) => Some(to.clone()), }, value: transaction.value, data: transaction.data.to_vec(), chain_id: chain_id, }; match self .hardware_store .as_ref() .map(|s| s.sign_transaction(&address, &t_info, rlp_encoded_transaction)) { None | Some(Err(HardwareError::KeyNotFound)) => Err(SignError::NotFound), Some(Err(e)) => Err(From::from(e)), Some(Ok(s)) => Ok(s), } } } #[cfg(test)] mod tests { use super::{AccountProvider, Unlock}; use ethereum_types::H256; use ethkey::{Address, Generator, Random}; use ethstore::{Derivation, StoreAccountRef}; use std::time::{Duration, Instant}; #[test] fn unlock_account_temp() { let kp = Random.generate().unwrap(); let ap = AccountProvider::transient_provider(); assert!(ap .insert_account(kp.secret().clone(), &"test".into()) .is_ok()); assert!(ap .unlock_account_temporarily(kp.address(), "test1".into()) .is_err()); assert!(ap .unlock_account_temporarily(kp.address(), "test".into()) .is_ok()); assert!(ap.sign(kp.address(), None, Default::default()).is_ok()); assert!(ap.sign(kp.address(), None, Default::default()).is_err()); } #[test] fn derived_account_nosave() { let kp = Random.generate().unwrap(); let ap = AccountProvider::transient_provider(); assert!(ap .insert_account(kp.secret().clone(), &"base".into()) .is_ok()); assert!(ap .unlock_account_permanently(kp.address(), "base".into()) .is_ok()); let derived_addr = ap .derive_account( &kp.address(), None, Derivation::SoftHash(H256::from(999)), false, ) .expect("Derivation should not fail"); assert!( ap.unlock_account_permanently(derived_addr, "base".into()) .is_err(), "There should be an error because account is not supposed to be saved" ); } #[test] fn derived_account_save() { let kp = Random.generate().unwrap(); let ap = AccountProvider::transient_provider(); assert!(ap .insert_account(kp.secret().clone(), &"base".into()) .is_ok()); assert!(ap .unlock_account_permanently(kp.address(), "base".into()) .is_ok()); let derived_addr = ap .derive_account( &kp.address(), None, Derivation::SoftHash(H256::from(999)), true, ) .expect("Derivation should not fail"); assert!( ap.unlock_account_permanently(derived_addr, "base_wrong".into()) .is_err(), "There should be an error because password is invalid" ); assert!( ap.unlock_account_permanently(derived_addr, "base".into()) .is_ok(), "Should be ok because account is saved and password is valid" ); } #[test] fn derived_account_sign() { let kp = Random.generate().unwrap(); let ap = AccountProvider::transient_provider(); assert!(ap .insert_account(kp.secret().clone(), &"base".into()) .is_ok()); assert!(ap .unlock_account_permanently(kp.address(), "base".into()) .is_ok()); let derived_addr = ap .derive_account( &kp.address(), None, Derivation::SoftHash(H256::from(1999)), true, ) .expect("Derivation should not fail"); ap.unlock_account_permanently(derived_addr, "base".into()) .expect("Should be ok because account is saved and password is valid"); let msg = Default::default(); let signed_msg1 = ap .sign(derived_addr, None, msg) .expect("Signing with existing unlocked account should not fail"); let signed_msg2 = ap .sign_derived( &kp.address(), None, Derivation::SoftHash(H256::from(1999)), msg, ) .expect("Derived signing with existing unlocked account should not fail"); assert_eq!(signed_msg1, signed_msg2, "Signed messages should match"); } #[test] fn unlock_account_perm() { let kp = Random.generate().unwrap(); let ap = AccountProvider::transient_provider(); assert!(ap .insert_account(kp.secret().clone(), &"test".into()) .is_ok()); assert!(ap .unlock_account_permanently(kp.address(), "test1".into()) .is_err()); assert!(ap .unlock_account_permanently(kp.address(), "test".into()) .is_ok()); assert!(ap.sign(kp.address(), None, Default::default()).is_ok()); assert!(ap.sign(kp.address(), None, Default::default()).is_ok()); assert!(ap .unlock_account_temporarily(kp.address(), "test".into()) .is_ok()); assert!(ap.sign(kp.address(), None, Default::default()).is_ok()); assert!(ap.sign(kp.address(), None, Default::default()).is_ok()); } #[test] fn unlock_account_timer() { let kp = Random.generate().unwrap(); let ap = AccountProvider::transient_provider(); assert!(ap .insert_account(kp.secret().clone(), &"test".into()) .is_ok()); assert!(ap .unlock_account_timed(kp.address(), "test1".into(), Duration::from_secs(60)) .is_err()); assert!(ap .unlock_account_timed(kp.address(), "test".into(), Duration::from_secs(60)) .is_ok()); assert!(ap.sign(kp.address(), None, Default::default()).is_ok()); ap.unlocked .write() .get_mut(&StoreAccountRef::root(kp.address())) .unwrap() .unlock = Unlock::Timed(Instant::now()); assert!(ap.sign(kp.address(), None, Default::default()).is_err()); } #[test] fn should_sign_and_return_token() { // given let kp = Random.generate().unwrap(); let ap = AccountProvider::transient_provider(); assert!(ap .insert_account(kp.secret().clone(), &"test".into()) .is_ok()); // when let (_signature, token) = ap .sign_with_token(kp.address(), "test".into(), Default::default()) .unwrap(); // then ap.sign_with_token(kp.address(), token.clone(), Default::default()) .expect("First usage of token should be correct."); assert!( ap.sign_with_token(kp.address(), token, Default::default()) .is_err(), "Second usage of the same token should fail." ); } #[test] fn should_not_return_blacklisted_account() { // given let mut ap = AccountProvider::transient_provider(); let acc = ap.new_account(&"test".into()).unwrap(); ap.blacklisted_accounts = vec![acc]; // then assert_eq!( ap.accounts_info() .unwrap() .keys() .cloned() .collect::>(), vec![] ); assert_eq!(ap.accounts().unwrap(), vec![]); } }