// Copyright 2017 Parity Technologies (UK) Ltd.
// This file is part of Substrate Demo.
// Substrate Demo 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.
// Substrate Demo 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 Substrate Demo. If not, see .
//! A `CodeExecutor` specialisation which uses natively compiled runtime when the wasm to be
//! executed is equivalent to the natively compiled code.
extern crate demo_runtime;
#[macro_use] extern crate substrate_executor;
extern crate substrate_codec as codec;
extern crate substrate_state_machine as state_machine;
extern crate substrate_runtime_io as runtime_io;
extern crate substrate_primitives as primitives;
extern crate demo_primitives;
extern crate ed25519;
extern crate triehash;
#[cfg(test)] extern crate substrate_keyring as keyring;
#[cfg(test)] extern crate substrate_runtime_primitives as runtime_primitives;
#[cfg(test)] extern crate substrate_runtime_support as runtime_support;
#[cfg(test)] extern crate substrate_runtime_staking as staking;
#[cfg(test)] extern crate substrate_runtime_system as system;
#[cfg(test)] extern crate substrate_runtime_consensus as consensus;
#[cfg(test)] #[macro_use] extern crate hex_literal;
native_executor_instance!(pub Executor, demo_runtime::api::dispatch, demo_runtime::VERSION, include_bytes!("../../runtime/wasm/target/wasm32-unknown-unknown/release/demo_runtime.compact.wasm"));
#[cfg(test)]
mod tests {
use runtime_io;
use super::Executor;
use substrate_executor::WasmExecutor;
use codec::{Slicable, Joiner};
use keyring::Keyring;
use runtime_support::{Hashable, StorageValue, StorageMap};
use state_machine::{CodeExecutor, TestExternalities};
use primitives::twox_128;
use demo_primitives::{Hash, BlockNumber, AccountId};
use runtime_primitives::traits::Header as HeaderT;
use runtime_primitives::{ApplyOutcome, ApplyError, ApplyResult, MaybeUnsigned};
use {staking, system, consensus};
use demo_runtime::{Header, Block, UncheckedExtrinsic, Extrinsic, Call, Concrete, Staking,
BuildStorage, GenesisConfig, SessionConfig, StakingConfig, BareExtrinsic};
use ed25519::{Public, Pair};
const BLOATY_CODE: &[u8] = include_bytes!("../../runtime/wasm/target/wasm32-unknown-unknown/release/demo_runtime.wasm");
const COMPACT_CODE: &[u8] = include_bytes!("../../runtime/wasm/target/wasm32-unknown-unknown/release/demo_runtime.compact.wasm");
// TODO: move into own crate.
macro_rules! map {
($( $name:expr => $value:expr ),*) => (
vec![ $( ( $name, $value ) ),* ].into_iter().collect()
)
}
fn alice() -> AccountId {
AccountId::from(Keyring::Alice.to_raw_public())
}
fn bob() -> AccountId {
AccountId::from(Keyring::Bob.to_raw_public())
}
fn xt() -> UncheckedExtrinsic {
let extrinsic = BareExtrinsic {
signed: alice(),
index: 0,
function: Call::Staking(staking::Call::transfer::(bob().into(), 69)),
};
let signature = MaybeUnsigned(Keyring::from_raw_public(extrinsic.signed.0.clone()).unwrap()
.sign(&extrinsic.encode()).into());
let extrinsic = Extrinsic {
signed: extrinsic.signed.into(),
index: extrinsic.index,
function: extrinsic.function,
};
UncheckedExtrinsic::new(extrinsic, signature)
}
fn from_block_number(n: u64) -> Header {
Header::new(n, Default::default(), Default::default(), [69; 32].into(), Default::default())
}
#[test]
fn panic_execution_with_foreign_code_gives_error() {
let mut t: TestExternalities = map![
twox_128(&>::key_for(alice())).to_vec() => vec![69u8, 0, 0, 0, 0, 0, 0, 0],
twox_128(>::key()).to_vec() => vec![70u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(&>::key_for(0)).to_vec() => vec![0u8; 32]
];
let r = Executor::new().call(&mut t, BLOATY_CODE, "initialise_block", &vec![].and(&from_block_number(1u64)), true).0;
assert!(r.is_ok());
let v = Executor::new().call(&mut t, BLOATY_CODE, "apply_extrinsic", &vec![].and(&xt()), true).0.unwrap();
let r = ApplyResult::decode(&mut &v[..]).unwrap();
assert_eq!(r, Err(ApplyError::CantPay));
}
#[test]
fn bad_extrinsic_with_native_equivalent_code_gives_error() {
let mut t: TestExternalities = map![
twox_128(&>::key_for(alice())).to_vec() => vec![69u8, 0, 0, 0, 0, 0, 0, 0],
twox_128(>::key()).to_vec() => vec![70u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(&>::key_for(0)).to_vec() => vec![0u8; 32]
];
let r = Executor::new().call(&mut t, COMPACT_CODE, "initialise_block", &vec![].and(&from_block_number(1u64)), true).0;
assert!(r.is_ok());
let v = Executor::new().call(&mut t, COMPACT_CODE, "apply_extrinsic", &vec![].and(&xt()), true).0.unwrap();
let r = ApplyResult::decode(&mut &v[..]).unwrap();
assert_eq!(r, Err(ApplyError::CantPay));
}
#[test]
fn successful_execution_with_native_equivalent_code_gives_ok() {
let mut t: TestExternalities = map![
twox_128(&>::key_for(alice())).to_vec() => vec![111u8, 0, 0, 0, 0, 0, 0, 0],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(&>::key_for(0)).to_vec() => vec![0u8; 32]
];
let r = Executor::new().call(&mut t, COMPACT_CODE, "initialise_block", &vec![].and(&from_block_number(1u64)), true).0;
assert!(r.is_ok());
let r = Executor::new().call(&mut t, COMPACT_CODE, "apply_extrinsic", &vec![].and(&xt()), true).0;
assert!(r.is_ok());
runtime_io::with_externalities(&mut t, || {
assert_eq!(Staking::voting_balance(&alice()), 42);
assert_eq!(Staking::voting_balance(&bob()), 69);
});
}
#[test]
fn successful_execution_with_foreign_code_gives_ok() {
let mut t: TestExternalities = map![
twox_128(&>::key_for(alice())).to_vec() => vec![111u8, 0, 0, 0, 0, 0, 0, 0],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(&>::key_for(0)).to_vec() => vec![0u8; 32]
];
let r = Executor::new().call(&mut t, BLOATY_CODE, "initialise_block", &vec![].and(&from_block_number(1u64)), true).0;
assert!(r.is_ok());
let r = Executor::new().call(&mut t, BLOATY_CODE, "apply_extrinsic", &vec![].and(&xt()), true).0;
assert!(r.is_ok());
runtime_io::with_externalities(&mut t, || {
assert_eq!(Staking::voting_balance(&alice()), 42);
assert_eq!(Staking::voting_balance(&bob()), 69);
});
}
fn new_test_ext() -> TestExternalities {
use keyring::Keyring::*;
let three = [3u8; 32].into();
GenesisConfig {
consensus: Some(Default::default()),
system: Some(Default::default()),
session: Some(SessionConfig {
session_length: 2,
validators: vec![One.to_raw_public().into(), Two.to_raw_public().into(), three],
broken_percent_late: 100,
}),
staking: Some(StakingConfig {
sessions_per_era: 2,
current_era: 0,
balances: vec![(alice(), 111)],
intentions: vec![alice(), bob(), Charlie.to_raw_public().into()],
validator_count: 3,
bonding_duration: 0,
transaction_base_fee: 1,
transaction_byte_fee: 0,
existential_deposit: 0,
transfer_fee: 0,
creation_fee: 0,
contract_fee: 0,
reclaim_rebate: 0,
early_era_slash: 0,
session_reward: 0,
}),
democracy: Some(Default::default()),
council: Some(Default::default()),
timestamp: Some(Default::default()),
}.build_storage().unwrap()
}
fn construct_block(number: BlockNumber, parent_hash: Hash, state_root: Hash, extrinsics: Vec) -> (Vec, Hash) {
use triehash::ordered_trie_root;
let extrinsics = extrinsics.into_iter().map(|extrinsic| {
let signature = MaybeUnsigned(Pair::from(Keyring::from_public(Public::from_raw(extrinsic.signed.0.clone())).unwrap())
.sign(&extrinsic.encode()).into());
let extrinsic = Extrinsic {
signed: extrinsic.signed.into(),
index: extrinsic.index,
function: extrinsic.function,
};
UncheckedExtrinsic::new(extrinsic, signature)
}).collect::>();
let extrinsics_root = ordered_trie_root(extrinsics.iter().map(Slicable::encode)).0.into();
let header = Header {
parent_hash,
number,
state_root,
extrinsics_root,
digest: Default::default(),
};
let hash = header.blake2_256();
(Block { header, extrinsics }.encode(), hash.into())
}
fn block1() -> (Vec, Hash) {
construct_block(
1,
[69u8; 32].into(),
hex!("786071057714fdd6ea4595eecd4a0f327908d65f462ff5bca0f700fafce588c9").into(),
vec![BareExtrinsic {
signed: alice(),
index: 0,
function: Call::Staking(staking::Call::transfer(bob().into(), 69)),
}]
)
}
fn block2() -> (Vec, Hash) {
construct_block(
2,
block1().1,
hex!("a7f1259cc6b2fa758542f2996e737f8f0de9dec3a9d32641da348178f48b9fc2").into(),
vec![
BareExtrinsic {
signed: bob(),
index: 0,
function: Call::Staking(staking::Call::transfer(alice().into(), 5)),
},
BareExtrinsic {
signed: alice(),
index: 1,
function: Call::Staking(staking::Call::transfer(bob().into(), 15)),
}
]
)
}
fn block1big() -> (Vec, Hash) {
construct_block(
1,
[69u8; 32].into(),
hex!("d95fc2cf4541b97ed2cd381fe7a486af8aebad9ed0480c30e9cca184bb207e95").into(),
vec![BareExtrinsic {
signed: alice(),
index: 0,
function: Call::Consensus(consensus::Call::remark(vec![0; 60000])),
}]
)
}
#[test]
fn full_native_block_import_works() {
let mut t = new_test_ext();
Executor::new().call(&mut t, COMPACT_CODE, "execute_block", &block1().0, true).0.unwrap();
runtime_io::with_externalities(&mut t, || {
assert_eq!(Staking::voting_balance(&alice()), 41);
assert_eq!(Staking::voting_balance(&bob()), 69);
});
Executor::new().call(&mut t, COMPACT_CODE, "execute_block", &block2().0, true).0.unwrap();
runtime_io::with_externalities(&mut t, || {
assert_eq!(Staking::voting_balance(&alice()), 30);
assert_eq!(Staking::voting_balance(&bob()), 78);
});
}
#[test]
fn full_wasm_block_import_works() {
let mut t = new_test_ext();
WasmExecutor{heap_pages: 8}.call(&mut t, COMPACT_CODE, "execute_block", &block1().0, true).0.unwrap();
runtime_io::with_externalities(&mut t, || {
assert_eq!(Staking::voting_balance(&alice()), 41);
assert_eq!(Staking::voting_balance(&bob()), 69);
});
WasmExecutor{heap_pages: 8}.call(&mut t, COMPACT_CODE, "execute_block", &block2().0, true).0.unwrap();
runtime_io::with_externalities(&mut t, || {
assert_eq!(Staking::voting_balance(&alice()), 30);
assert_eq!(Staking::voting_balance(&bob()), 78);
});
}
#[test]
fn wasm_big_block_import_fails() {
let mut t = new_test_ext();
let r = WasmExecutor{heap_pages: 8}.call(&mut t, COMPACT_CODE, "execute_block", &block1big().0, true).0;
assert!(!r.is_ok());
}
#[test]
fn native_big_block_import_succeeds() {
let mut t = new_test_ext();
let r = Executor::with_heap_pages(8).call(&mut t, COMPACT_CODE, "execute_block", &block1big().0, true).0;
assert!(r.is_ok());
}
#[test]
fn native_big_block_import_fails_on_fallback() {
let mut t = new_test_ext();
let r = Executor::with_heap_pages(8).call(&mut t, COMPACT_CODE, "execute_block", &block1big().0, false).0;
assert!(!r.is_ok());
}
#[test]
fn panic_execution_gives_error() {
let mut t: TestExternalities = map![
twox_128(&>::key_for(alice())).to_vec() => vec![69u8, 0, 0, 0, 0, 0, 0, 0],
twox_128(>::key()).to_vec() => vec![70u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(&>::key_for(0)).to_vec() => vec![0u8; 32]
];
let foreign_code = include_bytes!("../../runtime/wasm/target/wasm32-unknown-unknown/release/demo_runtime.wasm");
let r = WasmExecutor{heap_pages: 8}.call(&mut t, &foreign_code[..], "initialise_block", &vec![].and(&from_block_number(1u64)), true).0;
assert!(r.is_ok());
let r = WasmExecutor{heap_pages: 8}.call(&mut t, &foreign_code[..], "apply_extrinsic", &vec![].and(&xt()), true).0.unwrap();
let r = ApplyResult::decode(&mut &r[..]).unwrap();
assert_eq!(r, Err(ApplyError::CantPay));
}
#[test]
fn successful_execution_gives_ok() {
let mut t: TestExternalities = map![
twox_128(&>::key_for(alice())).to_vec() => vec![111u8, 0, 0, 0, 0, 0, 0, 0],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(>::key()).to_vec() => vec![0u8; 8],
twox_128(&>::key_for(0)).to_vec() => vec![0u8; 32]
];
let foreign_code = include_bytes!("../../runtime/wasm/target/wasm32-unknown-unknown/release/demo_runtime.compact.wasm");
let r = WasmExecutor{heap_pages: 8}.call(&mut t, &foreign_code[..], "initialise_block", &vec![].and(&from_block_number(1u64)), true).0;
assert!(r.is_ok());
let r = WasmExecutor{heap_pages: 8}.call(&mut t, &foreign_code[..], "apply_extrinsic", &vec![].and(&xt()), true).0.unwrap();
let r = ApplyResult::decode(&mut &r[..]).unwrap();
assert_eq!(r, Ok(ApplyOutcome::Success));
runtime_io::with_externalities(&mut t, || {
assert_eq!(Staking::voting_balance(&alice()), 42);
assert_eq!(Staking::voting_balance(&bob()), 69);
});
}
}