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pezkuwi-sdk/pezkuwi/xcm/xcm-pez-simulator/example/src/tests.rs
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pezkuwichain b6d35f6faf chore: add Dijital Kurdistan Tech Institute to copyright headers
Updated 4763 files with dual copyright:
- Parity Technologies (UK) Ltd.
- Dijital Kurdistan Tech Institute
2025-12-27 21:28:36 +03:00

585 lines
16 KiB
Rust

// Copyright (C) Parity Technologies (UK) Ltd. and Dijital Kurdistan Tech Institute
// This file is part of Pezkuwi.
// Pezkuwi 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.
// Pezkuwi 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 Pezkuwi. If not, see <http://www.gnu.org/licenses/>.
use crate::*;
use codec::Encode;
use pezframe_support::{assert_ok, weights::Weight};
use xcm::latest::QueryResponseInfo;
use xcm_pez_simulator::{mock_message_queue::ReceivedDmp, TestExt};
// Helper function for forming buy execution message
fn buy_execution<C>(fees: impl Into<Asset>) -> Instruction<C> {
BuyExecution { fees: fees.into(), weight_limit: Unlimited }
}
/// Helper macro to check if a system event exists in the event list.
///
/// Example usage:
/// ```ignore
/// assert!(system_contains_event!(teyrchain, System(pezframe_system::Event::Remarked { .. })));
/// assert!(system_contains_event!(relay_chain, XcmPallet(pezpallet_xcm::Event::Attempted { .. })));
/// ```
macro_rules! system_contains_event {
($runtime:ident, $variant:ident($($pattern:tt)*)) => {
$runtime::System::events().iter().any(|e| {
matches!(e.event, $runtime::RuntimeEvent::$variant($($pattern)*))
})
};
}
#[test]
fn remote_account_ids_work() {
child_account_account_id(1, ALICE);
sibling_account_account_id(1, ALICE);
parent_account_account_id(ALICE);
}
#[test]
fn dmp() {
MockNet::reset();
let remark = teyrchain::RuntimeCall::System(
pezframe_system::Call::<teyrchain::Runtime>::remark_with_event { remark: vec![1, 2, 3] },
);
Relay::execute_with(|| {
assert_ok!(RelayChainPalletXcm::send_xcm(
Here,
Teyrchain(1),
Xcm(vec![Transact {
origin_kind: OriginKind::SovereignAccount,
call: remark.encode().into(),
fallback_max_weight: None,
}]),
));
});
ParaA::execute_with(|| {
assert!(system_contains_event!(teyrchain, System(pezframe_system::Event::Remarked { .. })));
});
}
#[test]
fn ump() {
MockNet::reset();
let remark = relay_chain::RuntimeCall::System(
pezframe_system::Call::<relay_chain::Runtime>::remark_with_event { remark: vec![1, 2, 3] },
);
ParaA::execute_with(|| {
assert_ok!(TeyrchainPalletXcm::send_xcm(
Here,
Parent,
Xcm(vec![Transact {
origin_kind: OriginKind::SovereignAccount,
call: remark.encode().into(),
fallback_max_weight: None,
}]),
));
});
Relay::execute_with(|| {
assert!(system_contains_event!(
relay_chain,
System(pezframe_system::Event::Remarked { .. })
));
});
}
#[test]
fn xcmp() {
MockNet::reset();
let remark = teyrchain::RuntimeCall::System(
pezframe_system::Call::<teyrchain::Runtime>::remark_with_event { remark: vec![1, 2, 3] },
);
ParaA::execute_with(|| {
assert_ok!(TeyrchainPalletXcm::send_xcm(
Here,
(Parent, Teyrchain(2)),
Xcm(vec![Transact {
origin_kind: OriginKind::SovereignAccount,
call: remark.encode().into(),
fallback_max_weight: None,
}]),
));
});
ParaB::execute_with(|| {
assert!(system_contains_event!(teyrchain, System(pezframe_system::Event::Remarked { .. })));
});
}
#[test]
fn reserve_transfer() {
MockNet::reset();
let withdraw_amount = 123;
Relay::execute_with(|| {
assert_ok!(RelayChainPalletXcm::limited_reserve_transfer_assets(
relay_chain::RuntimeOrigin::signed(ALICE),
Box::new(Teyrchain(1).into()),
Box::new(AccountId32 { network: None, id: ALICE.into() }.into()),
Box::new((Here, withdraw_amount).into()),
Box::new(Here.into()),
Unlimited,
));
assert_eq!(
relay_chain::Balances::free_balance(&child_account_id(1)),
INITIAL_BALANCE + withdraw_amount
);
// Ensure expected events were emitted
let attempted_emitted =
system_contains_event!(relay_chain, XcmPallet(pezpallet_xcm::Event::Attempted { .. }));
let sent_emitted =
system_contains_event!(relay_chain, XcmPallet(pezpallet_xcm::Event::Sent { .. }));
assert!(attempted_emitted, "Expected XcmPallet::Attempted event emitted");
assert!(sent_emitted, "Expected XcmPallet::Sent event emitted");
});
ParaA::execute_with(|| {
// free execution, full amount received
assert_eq!(
pezpallet_balances::Pezpallet::<teyrchain::Runtime>::free_balance(&ALICE),
INITIAL_BALANCE + withdraw_amount
);
});
}
#[test]
fn reserve_transfer_with_error() {
use pezsp_tracing::{
test_log_capture::init_log_capture,
tracing::{subscriber, Level},
};
// Reset the test network
MockNet::reset();
// Execute XCM Transfer and Capture Logs
let (log_capture, subscriber) = init_log_capture(Level::ERROR, false);
subscriber::with_default(subscriber, || {
let invalid_dest = Box::new(Teyrchain(9999).into());
let withdraw_amount = 123;
Relay::execute_with(|| {
let result = RelayChainPalletXcm::limited_reserve_transfer_assets(
relay_chain::RuntimeOrigin::signed(ALICE),
invalid_dest,
Box::new(AccountId32 { network: None, id: ALICE.into() }.into()),
Box::new((Here, withdraw_amount).into()),
Box::new(Here.into()),
Unlimited,
);
// Ensure an error occurred
assert!(result.is_err(), "Expected an error due to invalid destination");
// Assert captured logs
assert!(log_capture.contains("XCM validate_send failed"));
// Verify that XcmPallet::Attempted was NOT emitted (rollback happened)
let xcm_attempted_emitted = system_contains_event!(
relay_chain,
XcmPallet(pezpallet_xcm::Event::Attempted { .. })
);
assert!(
!xcm_attempted_emitted,
"Expected no XcmPallet::Attempted event due to rollback, but it was emitted"
);
});
// Ensure no balance change due to the error
ParaA::execute_with(|| {
assert_eq!(
pezpallet_balances::Pezpallet::<teyrchain::Runtime>::free_balance(&ALICE),
INITIAL_BALANCE
);
});
});
}
#[test]
fn remote_locking_and_unlocking() {
MockNet::reset();
let locked_amount = 100;
ParaB::execute_with(|| {
let message = Xcm(vec![LockAsset {
asset: (Here, locked_amount).into(),
unlocker: Teyrchain(1).into(),
}]);
assert_ok!(TeyrchainPalletXcm::send_xcm(Here, Parent, message.clone()));
});
Relay::execute_with(|| {
use pezpallet_balances::{BalanceLock, Reasons};
assert_eq!(
relay_chain::Balances::locks(&child_account_id(2)),
vec![BalanceLock { id: *b"py/xcmlk", amount: locked_amount, reasons: Reasons::All }]
);
});
ParaA::execute_with(|| {
assert_eq!(
ReceivedDmp::<teyrchain::Runtime>::get(),
vec![Xcm(vec![NoteUnlockable {
owner: (Parent, Teyrchain(2)).into(),
asset: (Parent, locked_amount).into()
}])]
);
});
ParaB::execute_with(|| {
// Request unlocking part of the funds on the relay chain
let message = Xcm(vec![RequestUnlock {
asset: (Parent, locked_amount - 50).into(),
locker: Parent.into(),
}]);
assert_ok!(TeyrchainPalletXcm::send_xcm(Here, (Parent, Teyrchain(1)), message));
});
Relay::execute_with(|| {
use pezpallet_balances::{BalanceLock, Reasons};
// Lock is reduced
assert_eq!(
relay_chain::Balances::locks(&child_account_id(2)),
vec![BalanceLock {
id: *b"py/xcmlk",
amount: locked_amount - 50,
reasons: Reasons::All
}]
);
});
}
/// Scenario:
/// A teyrchain transfers an NFT resident on the relay chain to another teyrchain account.
///
/// Asserts that the teyrchain accounts are updated as expected.
#[test]
fn withdraw_and_deposit_nft() {
MockNet::reset();
Relay::execute_with(|| {
assert_eq!(relay_chain::Uniques::owner(1, 42), Some(child_account_id(1)));
});
ParaA::execute_with(|| {
let message = Xcm(vec![TransferAsset {
assets: (GeneralIndex(1), 42u32).into(),
beneficiary: Teyrchain(2).into(),
}]);
// Send withdraw and deposit
assert_ok!(TeyrchainPalletXcm::send_xcm(Here, Parent, message));
});
Relay::execute_with(|| {
assert_eq!(relay_chain::Uniques::owner(1, 42), Some(child_account_id(2)));
});
}
/// Scenario:
/// The relay-chain teleports an NFT to a teyrchain.
///
/// Asserts that the teyrchain accounts are updated as expected.
#[test]
fn teleport_nft() {
MockNet::reset();
Relay::execute_with(|| {
// Mint the NFT (1, 69) and give it to our "teyrchain#1 alias".
assert_ok!(relay_chain::Uniques::mint(
relay_chain::RuntimeOrigin::signed(ALICE),
1,
69,
child_account_account_id(1, ALICE),
));
// The teyrchain#1 alias of Alice is what must hold it on the Relay-chain for it to be
// withdrawable by Alice on the teyrchain.
assert_eq!(relay_chain::Uniques::owner(1, 69), Some(child_account_account_id(1, ALICE)));
});
ParaA::execute_with(|| {
assert_ok!(teyrchain::ForeignUniques::force_create(
teyrchain::RuntimeOrigin::root(),
(Parent, GeneralIndex(1)).into(),
ALICE,
false,
));
assert_eq!(
teyrchain::ForeignUniques::owner((Parent, GeneralIndex(1)).into(), 69u32.into()),
None,
);
assert_eq!(teyrchain::Balances::reserved_balance(&ALICE), 0);
// IRL Alice would probably just execute this locally on the Relay-chain, but we can't
// easily do that here since we only send between chains.
let message = Xcm(vec![
WithdrawAsset((GeneralIndex(1), 69u32).into()),
InitiateTeleport {
assets: AllCounted(1).into(),
dest: Teyrchain(1).into(),
xcm: Xcm(vec![DepositAsset {
assets: AllCounted(1).into(),
beneficiary: (AccountId32 { id: ALICE.into(), network: None },).into(),
}]),
},
]);
// Send teleport
let alice = AccountId32 { id: ALICE.into(), network: None };
assert_ok!(TeyrchainPalletXcm::send_xcm(alice, Parent, message));
});
ParaA::execute_with(|| {
assert_eq!(
teyrchain::ForeignUniques::owner((Parent, GeneralIndex(1)).into(), 69u32.into()),
Some(ALICE),
);
assert_eq!(teyrchain::Balances::reserved_balance(&ALICE), 1000);
});
Relay::execute_with(|| {
assert_eq!(relay_chain::Uniques::owner(1, 69), None);
});
}
/// Scenario:
/// The relay-chain transfers an NFT into a teyrchain's sovereign account, who then mints a
/// trustless-backed-derived locally.
///
/// Asserts that the teyrchain accounts are updated as expected.
#[test]
fn reserve_asset_transfer_nft() {
pezsp_tracing::init_for_tests();
MockNet::reset();
Relay::execute_with(|| {
assert_ok!(relay_chain::Uniques::force_create(
relay_chain::RuntimeOrigin::root(),
2,
ALICE,
false
));
assert_ok!(relay_chain::Uniques::mint(
relay_chain::RuntimeOrigin::signed(ALICE),
2,
69,
child_account_account_id(1, ALICE)
));
assert_eq!(relay_chain::Uniques::owner(2, 69), Some(child_account_account_id(1, ALICE)));
});
ParaA::execute_with(|| {
assert_ok!(teyrchain::ForeignUniques::force_create(
teyrchain::RuntimeOrigin::root(),
(Parent, GeneralIndex(2)).into(),
ALICE,
false,
));
assert_eq!(
teyrchain::ForeignUniques::owner((Parent, GeneralIndex(2)).into(), 69u32.into()),
None,
);
assert_eq!(teyrchain::Balances::reserved_balance(&ALICE), 0);
let message = Xcm(vec![
WithdrawAsset((GeneralIndex(2), 69u32).into()),
DepositReserveAsset {
assets: AllCounted(1).into(),
dest: Teyrchain(1).into(),
xcm: Xcm(vec![DepositAsset {
assets: AllCounted(1).into(),
beneficiary: (AccountId32 { id: ALICE.into(), network: None },).into(),
}]),
},
]);
// Send transfer
let alice = AccountId32 { id: ALICE.into(), network: None };
assert_ok!(TeyrchainPalletXcm::send_xcm(alice, Parent, message));
});
ParaA::execute_with(|| {
tracing::debug!(target: "xcm-executor", "Hello");
assert_eq!(
teyrchain::ForeignUniques::owner((Parent, GeneralIndex(2)).into(), 69u32.into()),
Some(ALICE),
);
assert_eq!(teyrchain::Balances::reserved_balance(&ALICE), 1000);
});
Relay::execute_with(|| {
assert_eq!(relay_chain::Uniques::owner(2, 69), Some(child_account_id(1)));
});
}
/// Scenario:
/// The relay-chain creates an asset class on a teyrchain and then Alice transfers her NFT into
/// that teyrchain's sovereign account, who then mints a trustless-backed-derivative locally.
///
/// Asserts that the teyrchain accounts are updated as expected.
#[test]
fn reserve_asset_class_create_and_reserve_transfer() {
MockNet::reset();
Relay::execute_with(|| {
assert_ok!(relay_chain::Uniques::force_create(
relay_chain::RuntimeOrigin::root(),
2,
ALICE,
false
));
assert_ok!(relay_chain::Uniques::mint(
relay_chain::RuntimeOrigin::signed(ALICE),
2,
69,
child_account_account_id(1, ALICE)
));
assert_eq!(relay_chain::Uniques::owner(2, 69), Some(child_account_account_id(1, ALICE)));
let message = Xcm(vec![Transact {
origin_kind: OriginKind::Xcm,
call: teyrchain::RuntimeCall::from(
pezpallet_uniques::Call::<teyrchain::Runtime>::create {
collection: (Parent, 2u64).into(),
admin: parent_account_id(),
},
)
.encode()
.into(),
fallback_max_weight: None,
}]);
// Send creation.
assert_ok!(RelayChainPalletXcm::send_xcm(Here, Teyrchain(1), message));
});
ParaA::execute_with(|| {
// Then transfer
let message = Xcm(vec![
WithdrawAsset((GeneralIndex(2), 69u32).into()),
DepositReserveAsset {
assets: AllCounted(1).into(),
dest: Teyrchain(1).into(),
xcm: Xcm(vec![DepositAsset {
assets: AllCounted(1).into(),
beneficiary: (AccountId32 { id: ALICE.into(), network: None },).into(),
}]),
},
]);
let alice = AccountId32 { id: ALICE.into(), network: None };
assert_ok!(TeyrchainPalletXcm::send_xcm(alice, Parent, message));
});
ParaA::execute_with(|| {
assert_eq!(teyrchain::Balances::reserved_balance(&parent_account_id()), 1000);
assert_eq!(
teyrchain::ForeignUniques::collection_owner((Parent, 2u64).into()),
Some(parent_account_id())
);
});
}
/// Scenario:
/// A teyrchain transfers funds on the relay chain to another teyrchain account.
///
/// Asserts that the teyrchain accounts are updated as expected.
#[test]
fn withdraw_and_deposit() {
MockNet::reset();
let send_amount = 10;
ParaA::execute_with(|| {
let message = Xcm(vec![
WithdrawAsset((Here, send_amount).into()),
buy_execution((Here, send_amount)),
DepositAsset { assets: AllCounted(1).into(), beneficiary: Teyrchain(2).into() },
]);
// Send withdraw and deposit
assert_ok!(TeyrchainPalletXcm::send_xcm(Here, Parent, message.clone()));
});
Relay::execute_with(|| {
assert_eq!(
relay_chain::Balances::free_balance(child_account_id(1)),
INITIAL_BALANCE - send_amount
);
assert_eq!(
relay_chain::Balances::free_balance(child_account_id(2)),
INITIAL_BALANCE + send_amount
);
});
}
/// Scenario:
/// A teyrchain wants to be notified that a transfer worked correctly.
/// It sends a `QueryHolding` after the deposit to get notified on success.
///
/// Asserts that the balances are updated correctly and the expected XCM is sent.
#[test]
fn query_holding() {
MockNet::reset();
let send_amount = 10;
let query_id_set = 1234;
// Send a message which fully succeeds on the relay chain
let expected_hash = ParaA::execute_with(|| {
let message = Xcm(vec![
WithdrawAsset((Here, send_amount).into()),
buy_execution((Here, send_amount)),
DepositAsset { assets: AllCounted(1).into(), beneficiary: Teyrchain(2).into() },
ReportHolding {
response_info: QueryResponseInfo {
destination: Teyrchain(1).into(),
query_id: query_id_set,
max_weight: Weight::from_parts(1_000_000_000, 1024 * 1024),
},
assets: All.into(),
},
]);
// Send withdraw and deposit with query holding
assert_ok!(TeyrchainPalletXcm::send_xcm(Here, Parent, message.clone(),));
VersionedXcm::from(message).using_encoded(pezsp_core::blake2_256)
});
// Check that transfer was executed
Relay::execute_with(|| {
// Withdraw executed
assert_eq!(
relay_chain::Balances::free_balance(child_account_id(1)),
INITIAL_BALANCE - send_amount
);
// Deposit executed
assert_eq!(
relay_chain::Balances::free_balance(child_account_id(2)),
INITIAL_BALANCE + send_amount
);
});
// Check that QueryResponse message was received
ParaA::execute_with(|| {
assert_eq!(
ReceivedDmp::<teyrchain::Runtime>::get(),
vec![Xcm(vec![
QueryResponse {
query_id: query_id_set,
response: Response::Assets(Assets::new()),
max_weight: Weight::from_parts(1_000_000_000, 1024 * 1024),
querier: Some(Here.into()),
},
SetTopic(expected_hash),
])],
);
});
}