pub use codec::{Decode, Encode};
pub use paste;
pub use crate::{
xcm_helpers::{xcm_transact_paid_execution, xcm_transact_unpaid_execution},
PROOF_SIZE_THRESHOLD, REF_TIME_THRESHOLD,
};
pub use frame_support::{
assert_ok,
sp_runtime::AccountId32,
traits::fungibles::Inspect,
weights::{Weight, WeightMeter},
};
pub use pallet_assets;
pub use pallet_message_queue;
pub use pallet_xcm;
pub use polkadot_runtime_parachains::{
dmp, hrmp,
inclusion::{AggregateMessageOrigin, UmpQueueId},
};
pub use xcm::{
prelude::{
Asset, InteriorLocation, Location, OriginKind, Outcome, VersionedXcm, XcmError, XcmVersion,
},
DoubleEncoded,
};
pub use cumulus_pallet_parachain_system;
pub use cumulus_pallet_xcmp_queue;
pub use cumulus_primitives_core::{
relay_chain::HrmpChannelId, DmpMessageHandler, Junction, Junctions, NetworkId, ParaId,
XcmpMessageHandler,
};
pub use parachains_common::{AccountId, Balance};
pub use xcm_emulator::{
assert_expected_events, bx, helpers::weight_within_threshold, BridgeLaneId, BridgeMessage,
BridgeMessageDispatchError, BridgeMessageHandler, Chain, Network, Parachain, RelayChain,
TestExt,
};
use bp_messages::{
target_chain::{DispatchMessage, DispatchMessageData, MessageDispatch},
MessageKey, OutboundLaneData,
};
pub use bp_xcm_bridge_hub::XcmBridgeHubCall;
use pallet_bridge_messages::{Config as BridgeMessagesConfig, LaneIdOf, OutboundLanes, Pallet};
pub use pallet_bridge_messages::{
Instance1 as BridgeMessagesInstance1, Instance2 as BridgeMessagesInstance2,
Instance3 as BridgeMessagesInstance3,
};
use pallet_xcm_bridge_hub::XcmBlobMessageDispatchResult;
pub struct BridgeHubMessageHandler<S, SI, T, TI> {
_marker: std::marker::PhantomData<(S, SI, T, TI)>,
}
struct LaneIdWrapper<LaneId>(LaneId);
impl<LaneId: Encode> From<LaneIdWrapper<LaneId>> for BridgeLaneId {
fn from(lane_id: LaneIdWrapper<LaneId>) -> BridgeLaneId {
lane_id.0.encode()
}
}
impl<LaneId: Decode> From<BridgeLaneId> for LaneIdWrapper<LaneId> {
fn from(id: BridgeLaneId) -> LaneIdWrapper<LaneId> {
LaneIdWrapper(LaneId::decode(&mut &id[..]).expect("decodable"))
}
}
impl<S, SI, T, TI> BridgeMessageHandler for BridgeHubMessageHandler<S, SI, T, TI>
where
S: BridgeMessagesConfig<SI>,
SI: 'static,
T: BridgeMessagesConfig<TI>,
TI: 'static,
<T as BridgeMessagesConfig<TI>>::InboundPayload: From<Vec<u8>>,
<T as BridgeMessagesConfig<TI>>::MessageDispatch:
MessageDispatch<DispatchLevelResult = XcmBlobMessageDispatchResult>,
{
fn get_source_outbound_messages() -> Vec<BridgeMessage> {
let active_outbound_lanes = OutboundLanes::<S, SI>::iter_keys();
let mut messages: Vec<BridgeMessage> = Default::default();
for lane in active_outbound_lanes {
let latest_generated_nonce =
OutboundLanes::<S, SI>::get(lane).unwrap().latest_generated_nonce;
let latest_received_nonce =
OutboundLanes::<S, SI>::get(lane).unwrap().latest_received_nonce;
(latest_received_nonce + 1..=latest_generated_nonce).for_each(|nonce| {
let encoded_payload: Vec<u8> = Pallet::<S, SI>::outbound_message_data(lane, nonce)
.expect("Bridge message does not exist")
.into();
let payload = Vec::<u8>::decode(&mut &encoded_payload[..])
.expect("Decoding XCM message failed");
let message = BridgeMessage { lane_id: LaneIdWrapper(lane).into(), nonce, payload };
messages.push(message);
});
}
messages
}
fn dispatch_target_inbound_message(
message: BridgeMessage,
) -> Result<(), BridgeMessageDispatchError> {
type TargetMessageDispatch<T, I> = <T as BridgeMessagesConfig<I>>::MessageDispatch;
type InboundPayload<T, I> = <T as BridgeMessagesConfig<I>>::InboundPayload;
let lane_id = LaneIdWrapper::from(message.lane_id).0;
let nonce = message.nonce;
let payload = Ok(From::from(message.payload));
let dispatch_result = TargetMessageDispatch::<T, TI>::dispatch(DispatchMessage {
key: MessageKey { lane_id, nonce },
data: DispatchMessageData::<InboundPayload<T, TI>> { payload },
});
let result = match dispatch_result.dispatch_level_result {
XcmBlobMessageDispatchResult::Dispatched => Ok(()),
XcmBlobMessageDispatchResult::InvalidPayload => Err(BridgeMessageDispatchError(
Box::new(XcmBlobMessageDispatchResult::InvalidPayload),
)),
XcmBlobMessageDispatchResult::NotDispatched(e) => Err(BridgeMessageDispatchError(
Box::new(XcmBlobMessageDispatchResult::NotDispatched(e)),
)),
};
result
}
fn notify_source_message_delivery(lane_id: BridgeLaneId) {
let lane_id: LaneIdOf<S, SI> = LaneIdWrapper::from(lane_id).0;
let data = OutboundLanes::<S, SI>::get(lane_id).unwrap();
let new_data = OutboundLaneData {
oldest_unpruned_nonce: data.oldest_unpruned_nonce + 1,
latest_received_nonce: data.latest_received_nonce + 1,
..data
};
OutboundLanes::<S, SI>::insert(lane_id, new_data);
}
}
#[macro_export]
macro_rules! impl_accounts_helpers_for_relay_chain {
( $chain:ident ) => {
$crate::impls::paste::paste! {
impl<N: $crate::impls::Network> $chain<N> {
pub fn fund_accounts(accounts: Vec<($crate::impls::AccountId, $crate::impls::Balance)>) {
<Self as $crate::impls::TestExt>::execute_with(|| {
for account in accounts {
let who = account.0;
let actual = <Self as [<$chain RelayPallet>]>::Balances::free_balance(&who);
let actual = actual.saturating_add(<Self as [<$chain RelayPallet>]>::Balances::reserved_balance(&who));
$crate::impls::assert_ok!(<Self as [<$chain RelayPallet>]>::Balances::force_set_balance(
<Self as $crate::impls::Chain>::RuntimeOrigin::root(),
who.into(),
actual.saturating_add(account.1),
));
}
});
}
pub fn fund_para_sovereign(amount: $crate::impls::Balance, para_id: $crate::impls::ParaId) -> $crate::impls::AccountId32 {
let sovereign_account = <Self as $crate::impls::RelayChain>::sovereign_account_id_of_child_para(para_id);
Self::fund_accounts(vec![(sovereign_account.clone(), amount)]);
sovereign_account
}
}
}
};
}
#[macro_export]
macro_rules! impl_assert_events_helpers_for_relay_chain {
( $chain:ident ) => {
$crate::impls::paste::paste! {
type [<$chain RuntimeEvent>]<N> = <$chain<N> as $crate::impls::Chain>::RuntimeEvent;
impl<N: $crate::impls::Network> $chain<N> {
pub fn assert_xcm_pallet_attempted_complete(expected_weight: Option<$crate::impls::Weight>) {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::XcmPallet(
$crate::impls::pallet_xcm::Event::Attempted { outcome: $crate::impls::Outcome::Complete { used: weight } }
) => {
weight: $crate::impls::weight_within_threshold(
($crate::impls::REF_TIME_THRESHOLD, $crate::impls::PROOF_SIZE_THRESHOLD),
expected_weight.unwrap_or(*weight),
*weight
),
},
]
);
}
pub fn assert_xcm_pallet_attempted_incomplete(
expected_weight: Option<$crate::impls::Weight>,
expected_error: Option<$crate::impls::XcmError>,
) {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::XcmPallet(
$crate::impls::pallet_xcm::Event::Attempted { outcome: $crate::impls::Outcome::Incomplete { used: weight, error } }
) => {
weight: $crate::impls::weight_within_threshold(
($crate::impls::REF_TIME_THRESHOLD, $crate::impls::PROOF_SIZE_THRESHOLD),
expected_weight.unwrap_or(*weight),
*weight
),
error: *error == expected_error.unwrap_or((*error).into()).into(),
},
]
);
}
pub fn assert_xcm_pallet_sent() {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::XcmPallet($crate::impls::pallet_xcm::Event::Sent { .. }) => {},
]
);
}
pub fn assert_ump_queue_processed(
expected_success: bool,
expected_id: Option<$crate::impls::ParaId>,
expected_weight: Option<$crate::impls::Weight>,
) {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::MessageQueue($crate::impls::pallet_message_queue::Event::Processed {
origin: $crate::impls::AggregateMessageOrigin::Ump($crate::impls::UmpQueueId::Para(id)),
weight_used,
success,
..
}) => {
id: *id == expected_id.unwrap_or(*id),
weight_used: $crate::impls::weight_within_threshold(
($crate::impls::REF_TIME_THRESHOLD, $crate::impls::PROOF_SIZE_THRESHOLD),
expected_weight.unwrap_or(*weight_used),
*weight_used
),
success: *success == expected_success,
},
]
);
}
}
}
};
}
#[macro_export]
macro_rules! impl_hrmp_channels_helpers_for_relay_chain {
( $chain:ident ) => {
$crate::impls::paste::paste! {
impl<N: $crate::impls::Network> $chain<N> {
pub fn init_open_channel_call(
recipient_para_id: $crate::impls::ParaId,
max_capacity: u32,
max_message_size: u32,
) -> $crate::impls::DoubleEncoded<()> {
use $crate::impls::Encode;
<Self as $crate::impls::Chain>::RuntimeCall::Hrmp($crate::impls::hrmp::Call::<
<Self as $crate::impls::Chain>::Runtime,
>::hrmp_init_open_channel {
recipient: recipient_para_id,
proposed_max_capacity: max_capacity,
proposed_max_message_size: max_message_size,
})
.encode()
.into()
}
pub fn accept_open_channel_call(sender_para_id: $crate::impls::ParaId) -> $crate::impls::DoubleEncoded<()> {
use $crate::impls::Encode;
<Self as $crate::impls::Chain>::RuntimeCall::Hrmp($crate::impls::hrmp::Call::<
<Self as $crate::impls::Chain>::Runtime,
>::hrmp_accept_open_channel {
sender: sender_para_id,
})
.encode()
.into()
}
pub fn force_process_hrmp_open(sender: $crate::impls::ParaId, recipient: $crate::impls::ParaId) {
use $crate::impls::Chain;
<Self as $crate::impls::TestExt>::execute_with(|| {
let relay_root_origin = <Self as Chain>::RuntimeOrigin::root();
$crate::impls::assert_ok!(<Self as [<$chain RelayPallet>]>::Hrmp::force_process_hrmp_open(
relay_root_origin,
0
));
let channel_id = $crate::impls::HrmpChannelId { sender, recipient };
let hrmp_channel_exist = $crate::impls::hrmp::HrmpChannels::<
<Self as Chain>::Runtime,
>::contains_key(&channel_id);
assert!(hrmp_channel_exist)
});
}
}
}
};
}
#[macro_export]
macro_rules! impl_send_transact_helpers_for_relay_chain {
( $chain:ident ) => {
$crate::impls::paste::paste! {
impl<N: $crate::impls::Network> $chain<N> {
pub fn send_unpaid_transact_to_parachain_as_root(
recipient: $crate::impls::ParaId,
call: $crate::impls::DoubleEncoded<()>
) {
use $crate::impls::{bx, Chain, RelayChain};
<Self as $crate::impls::TestExt>::execute_with(|| {
let root_origin = <Self as Chain>::RuntimeOrigin::root();
let destination: $crate::impls::Location = <Self as RelayChain>::child_location_of(recipient);
let xcm = $crate::impls::xcm_transact_unpaid_execution(call, $crate::impls::OriginKind::Superuser);
$crate::impls::dmp::Pallet::<<Self as $crate::impls::Chain>::Runtime>::make_parachain_reachable(recipient);
$crate::impls::assert_ok!(<Self as [<$chain RelayPallet>]>::XcmPallet::send(
root_origin,
bx!(destination.into()),
bx!(xcm),
));
Self::assert_xcm_pallet_sent();
});
}
}
}
};
}
#[macro_export]
macro_rules! impl_accounts_helpers_for_parachain {
( $chain:ident ) => {
$crate::impls::paste::paste! {
impl<N: $crate::impls::Network> $chain<N> {
pub fn fund_accounts(accounts: Vec<($crate::impls::AccountId, $crate::impls::Balance)>) {
<Self as $crate::impls::TestExt>::execute_with(|| {
for account in accounts {
let who = account.0;
let actual = <Self as [<$chain ParaPallet>]>::Balances::free_balance(&who);
let actual = actual.saturating_add(<Self as [<$chain ParaPallet>]>::Balances::reserved_balance(&who));
$crate::impls::assert_ok!(<Self as [<$chain ParaPallet>]>::Balances::force_set_balance(
<Self as $crate::impls::Chain>::RuntimeOrigin::root(),
who.into(),
actual.saturating_add(account.1),
));
}
});
}
pub fn fund_para_sovereign(sibling_para_id: $crate::impls::ParaId, balance: $crate::impls::Balance) {
let sibling_location = Self::sibling_location_of(sibling_para_id);
let sovereign_account = Self::sovereign_account_id_of(sibling_location);
Self::fund_accounts(vec![(sovereign_account.into(), balance)])
}
pub fn sovereign_account_of_parachain_on_other_global_consensus(
network_id: $crate::impls::NetworkId,
para_id: $crate::impls::ParaId,
) -> $crate::impls::AccountId {
let remote_location = $crate::impls::Location::new(
2,
[
$crate::impls::Junction::GlobalConsensus(network_id),
$crate::impls::Junction::Parachain(para_id.into()),
],
);
<Self as $crate::impls::TestExt>::execute_with(|| {
Self::sovereign_account_id_of(remote_location)
})
}
}
}
};
}
#[macro_export]
macro_rules! impl_assert_events_helpers_for_parachain {
( $chain:ident ) => {
$crate::impls::paste::paste! {
type [<$chain RuntimeEvent>]<N> = <$chain<N> as $crate::impls::Chain>::RuntimeEvent;
impl<N: $crate::impls::Network> $chain<N> {
pub fn assert_xcm_pallet_attempted_complete(expected_weight: Option<$crate::impls::Weight>) {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::PolkadotXcm(
$crate::impls::pallet_xcm::Event::Attempted { outcome: $crate::impls::Outcome::Complete { used: weight } }
) => {
weight: $crate::impls::weight_within_threshold(
($crate::impls::REF_TIME_THRESHOLD, $crate::impls::PROOF_SIZE_THRESHOLD),
expected_weight.unwrap_or(*weight),
*weight
),
},
]
);
}
pub fn assert_xcm_pallet_attempted_incomplete(
expected_weight: Option<$crate::impls::Weight>,
expected_error: Option<$crate::impls::XcmError>,
) {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::PolkadotXcm(
$crate::impls::pallet_xcm::Event::Attempted { outcome: $crate::impls::Outcome::Incomplete { used: weight, error } }
) => {
weight: $crate::impls::weight_within_threshold(
($crate::impls::REF_TIME_THRESHOLD, $crate::impls::PROOF_SIZE_THRESHOLD),
expected_weight.unwrap_or(*weight),
*weight
),
error: *error == expected_error.unwrap_or((*error).into()).into(),
},
]
);
}
pub fn assert_xcm_pallet_attempted_error(expected_error: Option<$crate::impls::XcmError>) {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::PolkadotXcm(
$crate::impls::pallet_xcm::Event::Attempted { outcome: $crate::impls::Outcome::Error { error } }
) => {
error: *error == expected_error.unwrap_or((*error).into()).into(),
},
]
);
}
pub fn assert_xcm_pallet_sent() {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::PolkadotXcm($crate::impls::pallet_xcm::Event::Sent { .. }) => {},
]
);
}
pub fn assert_parachain_system_ump_sent() {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::ParachainSystem(
$crate::impls::cumulus_pallet_parachain_system::Event::UpwardMessageSent { .. }
) => {},
]
);
}
pub fn assert_dmp_queue_complete(expected_weight: Option<$crate::impls::Weight>) {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::MessageQueue($crate::impls::pallet_message_queue::Event::Processed {
success: true, weight_used: weight, ..
}) => {
weight: $crate::impls::weight_within_threshold(
($crate::impls::REF_TIME_THRESHOLD, $crate::impls::PROOF_SIZE_THRESHOLD),
expected_weight.unwrap_or(*weight),
*weight
),
},
]
);
}
pub fn assert_dmp_queue_incomplete(
expected_weight: Option<$crate::impls::Weight>,
) {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::MessageQueue($crate::impls::pallet_message_queue::Event::Processed {
success: false, weight_used: weight, ..
}) => {
weight: $crate::impls::weight_within_threshold(
($crate::impls::REF_TIME_THRESHOLD, $crate::impls::PROOF_SIZE_THRESHOLD),
expected_weight.unwrap_or(*weight),
*weight
),
},
]
);
}
pub fn assert_dmp_queue_error() {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::MessageQueue($crate::impls::pallet_message_queue::Event::ProcessingFailed {
..
}) => {
},
]
);
}
pub fn assert_xcmp_queue_success(expected_weight: Option<$crate::impls::Weight>) {
$crate::impls::assert_expected_events!(
Self,
vec![
[<$chain RuntimeEvent>]::<N>::MessageQueue($crate::impls::pallet_message_queue::Event::Processed { success: true, weight_used: weight, .. }
) => {
weight: $crate::impls::weight_within_threshold(
($crate::impls::REF_TIME_THRESHOLD, $crate::impls::PROOF_SIZE_THRESHOLD),
expected_weight.unwrap_or(*weight),
*weight
),
},
]
);
}
}
}
};
}
#[macro_export]
macro_rules! impl_assets_helpers_for_system_parachain {
( $chain:ident, $relay_chain:ident ) => {
$crate::impls::paste::paste! {
impl<N: $crate::impls::Network> $chain<N> {
pub fn force_create_asset_call(
asset_id: u32,
owner: $crate::impls::AccountId,
is_sufficient: bool,
min_balance: $crate::impls::Balance,
) -> $crate::impls::DoubleEncoded<()> {
use $crate::impls::{Chain, Encode};
<Self as Chain>::RuntimeCall::Assets($crate::impls::pallet_assets::Call::<
<Self as Chain>::Runtime,
$crate::impls::pallet_assets::Instance1,
>::force_create {
id: asset_id.into(),
owner: owner.into(),
is_sufficient,
min_balance,
})
.encode()
.into()
}
pub fn force_create_asset_xcm(
origin_kind: $crate::impls::OriginKind,
asset_id: u32,
owner: $crate::impls::AccountId,
is_sufficient: bool,
min_balance: $crate::impls::Balance,
) -> $crate::impls::VersionedXcm<()> {
let call = Self::force_create_asset_call(asset_id, owner, is_sufficient, min_balance);
$crate::impls::xcm_transact_unpaid_execution(call, origin_kind)
}
pub fn force_create_and_mint_asset(
id: u32,
min_balance: u128,
is_sufficient: bool,
asset_owner: $crate::impls::AccountId,
dmp_weight_threshold: Option<$crate::impls::Weight>,
amount_to_mint: u128,
) {
use $crate::impls::Chain;
Self::force_create_asset_from_relay_as_root(
id,
min_balance,
is_sufficient,
asset_owner.clone(),
dmp_weight_threshold
);
let signed_origin = <Self as Chain>::RuntimeOrigin::signed(asset_owner.clone());
Self::mint_asset(signed_origin, id, asset_owner, amount_to_mint);
}
pub fn force_create_asset_from_relay_as_root(
id: u32,
min_balance: u128,
is_sufficient: bool,
asset_owner: $crate::impls::AccountId,
dmp_weight_threshold: Option<$crate::impls::Weight>,
) {
use $crate::impls::{Parachain, Inspect, TestExt};
<$relay_chain<N>>::send_unpaid_transact_to_parachain_as_root(
Self::para_id(),
Self::force_create_asset_call(id, asset_owner.clone(), is_sufficient, min_balance),
);
Self::execute_with(|| {
type RuntimeEvent<N> = <$chain<N> as $crate::impls::Chain>::RuntimeEvent;
Self::assert_dmp_queue_complete(dmp_weight_threshold);
$crate::impls::assert_expected_events!(
Self,
vec![
RuntimeEvent::<N>::Assets($crate::impls::pallet_assets::Event::ForceCreated { asset_id, owner }) => {
asset_id: *asset_id == id,
owner: *owner == asset_owner,
},
]
);
assert!(<Self as [<$chain ParaPallet>]>::Assets::asset_exists(id.clone().into()));
});
}
}
}
};
}
#[macro_export]
macro_rules! impl_assets_helpers_for_parachain {
($chain:ident) => {
$crate::impls::paste::paste! {
impl<N: $crate::impls::Network> $chain<N> {
pub fn force_create_asset(
id: u32,
owner: $crate::impls::AccountId,
is_sufficient: bool,
min_balance: u128,
prefund_accounts: Vec<($crate::impls::AccountId, u128)>,
) {
use $crate::impls::Inspect;
let sudo_origin = <$chain<N> as $crate::impls::Chain>::RuntimeOrigin::root();
<Self as $crate::impls::TestExt>::execute_with(|| {
$crate::impls::assert_ok!(
<Self as [<$chain ParaPallet>]>::Assets::force_create(
sudo_origin,
id.clone().into(),
owner.clone().into(),
is_sufficient,
min_balance,
)
);
assert!(<Self as [<$chain ParaPallet>]>::Assets::asset_exists(id.clone()));
type RuntimeEvent<N> = <$chain<N> as $crate::impls::Chain>::RuntimeEvent;
$crate::impls::assert_expected_events!(
Self,
vec![
RuntimeEvent::<N>::Assets(
$crate::impls::pallet_assets::Event::ForceCreated {
asset_id,
..
}
) => { asset_id: *asset_id == id, },
]
);
});
for (beneficiary, amount) in prefund_accounts.into_iter() {
let signed_origin =
<$chain<N> as $crate::impls::Chain>::RuntimeOrigin::signed(owner.clone());
Self::mint_asset(signed_origin, id.clone(), beneficiary, amount);
}
}
pub fn mint_asset(
signed_origin: <Self as $crate::impls::Chain>::RuntimeOrigin,
id: u32,
beneficiary: $crate::impls::AccountId,
amount_to_mint: u128,
) {
<Self as $crate::impls::TestExt>::execute_with(|| {
$crate::impls::assert_ok!(<Self as [<$chain ParaPallet>]>::Assets::mint(
signed_origin,
id.clone().into(),
beneficiary.clone().into(),
amount_to_mint
));
type RuntimeEvent<N> = <$chain<N> as $crate::impls::Chain>::RuntimeEvent;
$crate::impls::assert_expected_events!(
Self,
vec![
RuntimeEvent::<N>::Assets(
$crate::impls::pallet_assets::Event::Issued { asset_id, owner, amount }
) => {
asset_id: *asset_id == id,
owner: *owner == beneficiary.clone().into(),
amount: *amount == amount_to_mint,
},
]
);
});
}
pub fn create_asset_call(
asset_id: u32,
min_balance: $crate::impls::Balance,
admin: $crate::impls::AccountId,
) -> $crate::impls::DoubleEncoded<()> {
use $crate::impls::{Chain, Encode};
<Self as Chain>::RuntimeCall::Assets($crate::impls::pallet_assets::Call::<
<Self as Chain>::Runtime,
$crate::impls::pallet_assets::Instance1,
>::create {
id: asset_id.into(),
min_balance,
admin: admin.into(),
})
.encode()
.into()
}
}
}
};
}
#[macro_export]
macro_rules! impl_foreign_assets_helpers_for_parachain {
($chain:ident, $asset_id_type:ty) => {
$crate::impls::paste::paste! {
impl<N: $crate::impls::Network> $chain<N> {
pub fn force_create_foreign_asset(
id: $asset_id_type,
owner: $crate::impls::AccountId,
is_sufficient: bool,
min_balance: u128,
prefund_accounts: Vec<($crate::impls::AccountId, u128)>,
) {
use $crate::impls::Inspect;
let sudo_origin = <$chain<N> as $crate::impls::Chain>::RuntimeOrigin::root();
<Self as $crate::impls::TestExt>::execute_with(|| {
$crate::impls::assert_ok!(
<Self as [<$chain ParaPallet>]>::ForeignAssets::force_create(
sudo_origin,
id.clone(),
owner.clone().into(),
is_sufficient,
min_balance,
)
);
assert!(<Self as [<$chain ParaPallet>]>::ForeignAssets::asset_exists(id.clone()));
type RuntimeEvent<N> = <$chain<N> as $crate::impls::Chain>::RuntimeEvent;
$crate::impls::assert_expected_events!(
Self,
vec![
RuntimeEvent::<N>::ForeignAssets(
$crate::impls::pallet_assets::Event::ForceCreated {
asset_id,
..
}
) => { asset_id: *asset_id == id, },
]
);
});
for (beneficiary, amount) in prefund_accounts.into_iter() {
let signed_origin =
<$chain<N> as $crate::impls::Chain>::RuntimeOrigin::signed(owner.clone());
Self::mint_foreign_asset(signed_origin, id.clone(), beneficiary, amount);
}
}
pub fn mint_foreign_asset(
signed_origin: <Self as $crate::impls::Chain>::RuntimeOrigin,
id: $asset_id_type,
beneficiary: $crate::impls::AccountId,
amount_to_mint: u128,
) {
<Self as $crate::impls::TestExt>::execute_with(|| {
$crate::impls::assert_ok!(<Self as [<$chain ParaPallet>]>::ForeignAssets::mint(
signed_origin,
id.clone().into(),
beneficiary.clone().into(),
amount_to_mint
));
type RuntimeEvent<N> = <$chain<N> as $crate::impls::Chain>::RuntimeEvent;
$crate::impls::assert_expected_events!(
Self,
vec![
RuntimeEvent::<N>::ForeignAssets(
$crate::impls::pallet_assets::Event::Issued { asset_id, owner, amount }
) => {
asset_id: *asset_id == id,
owner: *owner == beneficiary.clone().into(),
amount: *amount == amount_to_mint,
},
]
);
});
}
pub fn create_foreign_asset_call(
asset_id: $asset_id_type,
min_balance: $crate::impls::Balance,
admin: $crate::impls::AccountId,
) -> $crate::impls::DoubleEncoded<()> {
use $crate::impls::{Chain, Encode};
<Self as Chain>::RuntimeCall::ForeignAssets($crate::impls::pallet_assets::Call::<
<Self as Chain>::Runtime,
$crate::impls::pallet_assets::Instance2,
>::create {
id: asset_id.into(),
min_balance,
admin: admin.into(),
})
.encode()
.into()
}
}
}
};
}
#[macro_export]
macro_rules! impl_xcm_helpers_for_parachain {
( $chain:ident ) => {
$crate::impls::paste::paste! {
impl<N: $crate::impls::Network> $chain<N> {
pub fn force_xcm_version(dest: $crate::impls::Location, version: $crate::impls::XcmVersion) {
<Self as $crate::impls::TestExt>::execute_with(|| {
$crate::impls::assert_ok!(<Self as [<$chain ParaPallet>]>::PolkadotXcm::force_xcm_version(
<Self as $crate::impls::Chain>::RuntimeOrigin::root(),
$crate::impls::bx!(dest),
version,
));
});
}
pub fn force_default_xcm_version(version: Option<$crate::impls::XcmVersion>) {
<Self as $crate::impls::TestExt>::execute_with(|| {
$crate::impls::assert_ok!(<Self as [<$chain ParaPallet>]>::PolkadotXcm::force_default_xcm_version(
<Self as $crate::impls::Chain>::RuntimeOrigin::root(),
version,
));
});
}
}
}
}
}
#[macro_export]
macro_rules! impl_bridge_helpers_for_chain {
( $chain:ident, $pallet:ident, $pallet_xcm:ident, $runtime_call_wrapper:path ) => {
$crate::impls::paste::paste! {
impl<N: $crate::impls::Network> $chain<N> {
pub fn open_bridge(
bridge_location: $crate::impls::Location,
bridge_destination_universal_location: $crate::impls::InteriorLocation,
maybe_paid: Option<($crate::impls::Asset, $crate::impls::AccountId)>
) {
<Self as $crate::impls::TestExt>::execute_with(|| {
use $crate::impls::{bx, Chain};
use $crate::impls::XcmBridgeHubCall;
use $crate::impls::Encode;
let root_origin = <Self as Chain>::RuntimeOrigin::root();
let call: $crate::impls::DoubleEncoded<()> = $runtime_call_wrapper(XcmBridgeHubCall::open_bridge {
bridge_destination_universal_location: bx!(
bridge_destination_universal_location.clone().into()
)
}).encode().into();
let xcm = if let Some((fee_asset, beneficiary)) = maybe_paid {
$crate::impls::xcm_transact_paid_execution(call, $crate::impls::OriginKind::Xcm, fee_asset, beneficiary)
} else {
$crate::impls::xcm_transact_unpaid_execution(call, $crate::impls::OriginKind::Xcm)
};
$crate::impls::assert_ok!(<Self as [<$chain $pallet>]>::$pallet_xcm::send(
root_origin,
bx!(bridge_location.into()),
bx!(xcm),
));
Self::assert_xcm_pallet_sent();
});
}
}
}
}
}