// 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)] #[macro_use] extern crate hex_literal; native_executor_instance!(pub Executor, demo_runtime::api::dispatch, 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::{self, Alice, Bob}; use runtime_support::{Hashable, StorageValue, StorageMap}; use state_machine::{CodeExecutor, TestExternalities}; use primitives::twox_128; use demo_primitives::{Hash, BlockNumber}; use runtime_primitives::traits::Header as HeaderT; use {staking, system}; use demo_runtime::{Header, Block, UncheckedExtrinsic, Extrinsic, Call, Concrete, Staking, BuildExternalities, GenesisConfig, SessionConfig, StakingConfig}; 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 xt() -> UncheckedExtrinsic { let extrinsic = Extrinsic { signed: Alice.into(), index: 0, function: Call::Staking(staking::Call::transfer::(Bob.into(), 69)), }; let signature = Keyring::from_raw_public(extrinsic.signed).unwrap() .sign(&extrinsic.encode()).into(); UncheckedExtrinsic { 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![68u8, 0, 0, 0, 0, 0, 0, 0], 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))); assert!(r.is_ok()); let r = Executor::new().call(&mut t, BLOATY_CODE, "apply_extrinsic", &vec![].and(&xt())); assert!(r.is_err()); } #[test] fn panic_execution_with_native_equivalent_code_gives_error() { let mut t: TestExternalities = map![ twox_128(&>::key_for(*Alice)).to_vec() => vec![68u8, 0, 0, 0, 0, 0, 0, 0], 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))); assert!(r.is_ok()); let r = Executor::new().call(&mut t, COMPACT_CODE, "apply_extrinsic", &vec![].and(&xt())); assert!(r.is_err()); } #[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_for(0)).to_vec() => vec![0u8; 32] ]; let r = Executor::new().call(&mut t, COMPACT_CODE, "initialise_block", &vec![].and(&from_block_number(1u64))); assert!(r.is_ok()); let r = Executor::new().call(&mut t, COMPACT_CODE, "apply_extrinsic", &vec![].and(&xt())); assert!(r.is_ok()); runtime_io::with_externalities(&mut t, || { assert_eq!(Staking::balance(&Alice), 42); assert_eq!(Staking::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_for(0)).to_vec() => vec![0u8; 32] ]; let r = Executor::new().call(&mut t, BLOATY_CODE, "initialise_block", &vec![].and(&from_block_number(1u64))); assert!(r.is_ok()); let r = Executor::new().call(&mut t, BLOATY_CODE, "apply_extrinsic", &vec![].and(&xt())); assert!(r.is_ok()); runtime_io::with_externalities(&mut t, || { assert_eq!(Staking::balance(&Alice), 42); assert_eq!(Staking::balance(&Bob), 69); }); } fn new_test_ext() -> TestExternalities { use keyring::Keyring::*; let three = [3u8; 32]; GenesisConfig { consensus: Some(Default::default()), system: Some(Default::default()), session: Some(SessionConfig { session_length: 2, validators: vec![One.into(), Two.into(), three], }), staking: Some(StakingConfig { sessions_per_era: 2, current_era: 0, balances: vec![(Alice.into(), 111)], intentions: vec![Alice.into(), Bob.into(), Charlie.into()], validator_count: 3, bonding_duration: 0, transaction_fee: 1, }), democracy: Some(Default::default()), council: Some(Default::default()), }.build_externalities() } 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 = Pair::from(Keyring::from_public(Public::from_raw(extrinsic.signed)).unwrap()) .sign(&extrinsic.encode()).into(); UncheckedExtrinsic { 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!("a63d59c6a7347cd7a1dc1ec139723b531f0ac450e39b1c532d5ca69ff74ad811").into(), vec![Extrinsic { signed: Alice.into(), index: 0, function: Call::Staking(staking::Call::transfer(Bob.into(), 69)), }] ) } fn block2() -> (Vec, Hash) { construct_block( 2, block1().1, hex!("1c3623b2e3f7e43752debb9015bace4f6931593579b5af34457b931315f5e2ab").into(), vec![ Extrinsic { signed: Bob.into(), index: 0, function: Call::Staking(staking::Call::transfer(Alice.into(), 5)), }, Extrinsic { signed: Alice.into(), index: 1, function: Call::Staking(staking::Call::transfer(Bob.into(), 15)), } ] ) } #[test] fn full_native_block_import_works() { let mut t = new_test_ext(); Executor::new().call(&mut t, COMPACT_CODE, "execute_block", &block1().0).unwrap(); runtime_io::with_externalities(&mut t, || { assert_eq!(Staking::balance(&Alice), 41); assert_eq!(Staking::balance(&Bob), 69); }); Executor::new().call(&mut t, COMPACT_CODE, "execute_block", &block2().0).unwrap(); runtime_io::with_externalities(&mut t, || { assert_eq!(Staking::balance(&Alice), 30); assert_eq!(Staking::balance(&Bob), 78); }); } #[test] fn full_wasm_block_import_works() { let mut t = new_test_ext(); WasmExecutor.call(&mut t, COMPACT_CODE, "execute_block", &block1().0).unwrap(); runtime_io::with_externalities(&mut t, || { assert_eq!(Staking::balance(&Alice), 41); assert_eq!(Staking::balance(&Bob), 69); }); WasmExecutor.call(&mut t, COMPACT_CODE, "execute_block", &block2().0).unwrap(); runtime_io::with_externalities(&mut t, || { assert_eq!(Staking::balance(&Alice), 30); assert_eq!(Staking::balance(&Bob), 78); }); } #[test] fn panic_execution_gives_error() { let mut t: TestExternalities = map![ twox_128(&>::key_for(*Alice)).to_vec() => vec![68u8, 0, 0, 0, 0, 0, 0, 0], 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.call(&mut t, &foreign_code[..], "initialise_block", &vec![].and(&from_block_number(1u64))); assert!(r.is_ok()); let r = WasmExecutor.call(&mut t, &foreign_code[..], "apply_extrinsic", &vec![].and(&xt())); assert!(r.is_err()); } #[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_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.call(&mut t, &foreign_code[..], "initialise_block", &vec![].and(&from_block_number(1u64))); assert!(r.is_ok()); let r = WasmExecutor.call(&mut t, &foreign_code[..], "apply_extrinsic", &vec![].and(&xt())); assert!(r.is_ok()); runtime_io::with_externalities(&mut t, || { assert_eq!(Staking::balance(&Alice), 42); assert_eq!(Staking::balance(&Bob), 69); }); } }