feat: Rebrand Polkadot/Substrate references to PezkuwiChain

This commit systematically rebrands various references from Parity Technologies'
Polkadot/Substrate ecosystem to PezkuwiChain within the kurdistan-sdk.

Key changes include:
- Updated external repository URLs (zombienet-sdk, parity-db, parity-scale-codec, wasm-instrument) to point to pezkuwichain forks.
- Modified internal documentation and code comments to reflect PezkuwiChain naming and structure.
- Replaced direct references to  with  or specific paths within the  for XCM, Pezkuwi, and other modules.
- Cleaned up deprecated  issue and PR references in various  and  files, particularly in  and  modules.
- Adjusted image and logo URLs in documentation to point to PezkuwiChain assets.
- Removed or rephrased comments related to external Polkadot/Substrate PRs and issues.

This is a significant step towards fully customizing the SDK for the PezkuwiChain ecosystem.
This commit is contained in:
2025-12-14 00:04:10 +03:00
parent 286de54384
commit 1c0e57d984
9084 changed files with 997839 additions and 997557 deletions
@@ -0,0 +1,634 @@
// This file is part of Bizinikiwi.
// Copyright (C) Parity Technologies (UK) Ltd.
// SPDX-License-Identifier: Apache-2.0
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
//! Two phase election pallet benchmarking.
use core::cmp::Reverse;
use pezframe_benchmarking::{v2::*, BenchmarkError};
use pezframe_election_provider_support::{bounds::DataProviderBounds, IndexAssignment};
use pezframe_support::{
assert_ok,
traits::{Hooks, TryCollect},
BoundedVec,
};
use pezframe_system::RawOrigin;
use rand::{prelude::SliceRandom, rngs::SmallRng, SeedableRng};
use pezsp_arithmetic::{per_things::Percent, traits::One};
use pezsp_runtime::InnerOf;
use crate::{unsigned::IndexAssignmentOf, *};
const SEED: u32 = 999;
/// Creates a **valid** solution with exactly the given size.
///
/// The snapshot is also created internally.
fn solution_with_size<T: Config>(
size: SolutionOrSnapshotSize,
active_voters_count: u32,
desired_targets: u32,
) -> Result<RawSolution<SolutionOf<T::MinerConfig>>, &'static str> {
ensure!(size.targets >= desired_targets, "must have enough targets");
ensure!(
size.targets >= (<SolutionOf<T::MinerConfig>>::LIMIT * 2) as u32,
"must have enough targets for unique votes."
);
ensure!(size.voters >= active_voters_count, "must have enough voters");
ensure!(
(<SolutionOf<T::MinerConfig>>::LIMIT as u32) < desired_targets,
"must have enough winners to give them votes."
);
let ed: VoteWeight = T::Currency::minimum_balance().saturated_into::<u64>();
let stake: VoteWeight = ed.max(One::one()).saturating_mul(100);
// first generates random targets.
let targets: Vec<T::AccountId> = (0..size.targets)
.map(|i| pezframe_benchmarking::account("Targets", i, SEED))
.collect();
let mut rng = SmallRng::seed_from_u64(SEED.into());
// decide who are the winners.
let winners = targets
.as_slice()
.choose_multiple(&mut rng, desired_targets as usize)
.cloned()
.collect::<Vec<_>>();
// first generate active voters who must vote for a subset of winners.
let active_voters = (0..active_voters_count)
.map(|i| {
// chose a random subset of winners.
let winner_votes: BoundedVec<_, _> = winners
.as_slice()
.choose_multiple(&mut rng, <SolutionOf<T::MinerConfig>>::LIMIT)
.cloned()
.try_collect()
.expect("<SolutionOf<T::MinerConfig>>::LIMIT is the correct bound; qed.");
let voter = pezframe_benchmarking::account::<T::AccountId>("Voter", i, SEED);
(voter, stake, winner_votes)
})
.collect::<Vec<_>>();
// rest of the voters. They can only vote for non-winners.
let non_winners = targets
.iter()
.filter(|t| !winners.contains(t))
.cloned()
.collect::<Vec<T::AccountId>>();
let rest_voters = (active_voters_count..size.voters)
.map(|i| {
let votes: BoundedVec<_, _> = (&non_winners)
.choose_multiple(&mut rng, <SolutionOf<T::MinerConfig>>::LIMIT)
.cloned()
.try_collect()
.expect("<SolutionOf<T::MinerConfig>>::LIMIT is the correct bound; qed.");
let voter = pezframe_benchmarking::account::<T::AccountId>("Voter", i, SEED);
(voter, stake, votes)
})
.collect::<Vec<_>>();
let mut all_voters = active_voters.clone();
all_voters.extend(rest_voters);
all_voters.shuffle(&mut rng);
assert_eq!(active_voters.len() as u32, active_voters_count);
assert_eq!(all_voters.len() as u32, size.voters);
assert_eq!(winners.len() as u32, desired_targets);
SnapshotMetadata::<T>::put(SolutionOrSnapshotSize {
voters: all_voters.len() as u32,
targets: targets.len() as u32,
});
DesiredTargets::<T>::put(desired_targets);
Snapshot::<T>::put(RoundSnapshot { voters: all_voters.clone(), targets: targets.clone() });
// write the snapshot to staking or whoever is the data provider, in case it is needed further
// down the road.
T::DataProvider::put_snapshot(all_voters.clone(), targets.clone(), Some(stake));
let cache = helpers::generate_voter_cache::<T::MinerConfig>(&all_voters);
let stake_of = helpers::stake_of_fn::<T::MinerConfig>(&all_voters, &cache);
let voter_index = helpers::voter_index_fn::<T::MinerConfig>(&cache);
let target_index = helpers::target_index_fn::<T::MinerConfig>(&targets);
let voter_at = helpers::voter_at_fn::<T::MinerConfig>(&all_voters);
let target_at = helpers::target_at_fn::<T::MinerConfig>(&targets);
let assignments = active_voters
.iter()
.map(|(voter, _stake, votes)| {
let percent_per_edge: InnerOf<SolutionAccuracyOf<T>> =
(100 / votes.len()).try_into().unwrap_or_else(|_| panic!("failed to convert"));
unsigned::Assignment::<T> {
who: voter.clone(),
distribution: votes
.iter()
.map(|t| (t.clone(), SolutionAccuracyOf::<T>::from_percent(percent_per_edge)))
.collect::<Vec<_>>(),
}
})
.collect::<Vec<_>>();
let solution =
<SolutionOf<T::MinerConfig>>::from_assignment(&assignments, &voter_index, &target_index)
.unwrap();
let score = solution.clone().score(stake_of, voter_at, target_at).unwrap();
let round = Round::<T>::get();
assert!(
score.minimal_stake > 0,
"score is zero, this probably means that the stakes are not set."
);
Ok(RawSolution { solution, score, round })
}
fn set_up_data_provider<T: Config>(v: u32, t: u32) {
T::DataProvider::clear();
log!(
info,
"setting up with voters = {} [degree = {}], targets = {}",
v,
<T::DataProvider as ElectionDataProvider>::MaxVotesPerVoter::get(),
t
);
// fill targets.
let mut targets = (0..t)
.map(|i| {
let target = pezframe_benchmarking::account::<T::AccountId>("Target", i, SEED);
T::DataProvider::add_target(target.clone());
target
})
.collect::<Vec<_>>();
// we should always have enough voters to fill.
assert!(
targets.len() > <T::DataProvider as ElectionDataProvider>::MaxVotesPerVoter::get() as usize
);
targets.truncate(<T::DataProvider as ElectionDataProvider>::MaxVotesPerVoter::get() as usize);
// fill voters.
(0..v).for_each(|i| {
let voter = pezframe_benchmarking::account::<T::AccountId>("Voter", i, SEED);
let weight = T::Currency::minimum_balance().saturated_into::<u64>() * 1000;
T::DataProvider::add_voter(voter, weight, targets.clone().try_into().unwrap());
});
}
#[benchmarks]
mod benchmarks {
use super::*;
#[benchmark]
fn on_initialize_nothing() {
assert!(CurrentPhase::<T>::get().is_off());
#[block]
{
Pallet::<T>::on_initialize(1_u32.into());
}
assert!(CurrentPhase::<T>::get().is_off());
}
#[benchmark]
fn on_initialize_open_signed() {
assert!(Snapshot::<T>::get().is_none());
assert!(CurrentPhase::<T>::get().is_off());
#[block]
{
Pallet::<T>::phase_transition(Phase::Signed);
}
assert!(Snapshot::<T>::get().is_none());
assert!(CurrentPhase::<T>::get().is_signed());
}
#[benchmark]
fn on_initialize_open_unsigned() {
assert!(Snapshot::<T>::get().is_none());
assert!(CurrentPhase::<T>::get().is_off());
#[block]
{
let now = pezframe_system::Pallet::<T>::block_number();
Pallet::<T>::phase_transition(Phase::Unsigned((true, now)));
}
assert!(Snapshot::<T>::get().is_none());
assert!(CurrentPhase::<T>::get().is_unsigned());
}
#[benchmark]
fn finalize_signed_phase_accept_solution() {
let receiver = account("receiver", 0, SEED);
let initial_balance = T::Currency::minimum_balance() + 10_u32.into();
T::Currency::make_free_balance_be(&receiver, initial_balance);
let ready = Default::default();
let deposit: BalanceOf<T> = 10_u32.into();
let reward: BalanceOf<T> = T::SignedRewardBase::get();
let call_fee: BalanceOf<T> = 30_u32.into();
assert_ok!(T::Currency::reserve(&receiver, deposit));
assert_eq!(T::Currency::free_balance(&receiver), T::Currency::minimum_balance());
#[block]
{
Pallet::<T>::finalize_signed_phase_accept_solution(ready, &receiver, deposit, call_fee);
}
assert_eq!(T::Currency::free_balance(&receiver), initial_balance + reward + call_fee);
assert_eq!(T::Currency::reserved_balance(&receiver), 0_u32.into());
}
#[benchmark]
fn finalize_signed_phase_reject_solution() {
let receiver = account("receiver", 0, SEED);
let initial_balance = T::Currency::minimum_balance() + 10_u32.into();
let deposit: BalanceOf<T> = 10_u32.into();
T::Currency::make_free_balance_be(&receiver, initial_balance);
assert_ok!(T::Currency::reserve(&receiver, deposit));
assert_eq!(T::Currency::free_balance(&receiver), T::Currency::minimum_balance());
assert_eq!(T::Currency::reserved_balance(&receiver), 10_u32.into());
#[block]
{
Pallet::<T>::finalize_signed_phase_reject_solution(&receiver, deposit)
}
assert_eq!(T::Currency::free_balance(&receiver), T::Currency::minimum_balance());
assert_eq!(T::Currency::reserved_balance(&receiver), 0_u32.into());
}
#[benchmark]
fn create_snapshot_internal(
// Number of votes in snapshot.
v: Linear<{ T::BenchmarkingConfig::VOTERS[0] }, { T::BenchmarkingConfig::VOTERS[1] }>,
// Number of targets in snapshot.
t: Linear<{ T::BenchmarkingConfig::TARGETS[0] }, { T::BenchmarkingConfig::TARGETS[1] }>,
) -> Result<(), BenchmarkError> {
// We don't directly need the data-provider to be populated, but it is just easy to use it.
set_up_data_provider::<T>(v, t);
// default bounds are unbounded.
let targets =
T::DataProvider::electable_targets(DataProviderBounds::default(), Zero::zero())?;
let voters = T::DataProvider::electing_voters(DataProviderBounds::default(), Zero::zero())?;
let desired_targets = T::DataProvider::desired_targets()?;
assert!(Snapshot::<T>::get().is_none());
#[block]
{
Pallet::<T>::create_snapshot_internal(targets, voters, desired_targets)
}
assert!(Snapshot::<T>::get().is_some());
assert_eq!(SnapshotMetadata::<T>::get().ok_or("metadata missing")?.voters, v);
assert_eq!(SnapshotMetadata::<T>::get().ok_or("metadata missing")?.targets, t);
Ok(())
}
// A call to `<Pallet as ElectionProvider>::elect` where we only return the queued solution.
#[benchmark]
fn elect_queued(
// Number of assignments, i.e. `solution.len()`.
// This means the active nominators, thus must be a subset of `v`.
a: Linear<
{ T::BenchmarkingConfig::ACTIVE_VOTERS[0] },
{ T::BenchmarkingConfig::ACTIVE_VOTERS[1] },
>,
// Number of desired targets. Must be a subset of `t`.
d: Linear<
{ T::BenchmarkingConfig::DESIRED_TARGETS[0] },
{ T::BenchmarkingConfig::DESIRED_TARGETS[1] },
>,
) -> Result<(), BenchmarkError> {
// Number of votes in snapshot. Not dominant.
let v = T::BenchmarkingConfig::VOTERS[1];
// Number of targets in snapshot. Not dominant.
let t = T::BenchmarkingConfig::TARGETS[1];
let witness = SolutionOrSnapshotSize { voters: v, targets: t };
let raw_solution = solution_with_size::<T>(witness, a, d)?;
let ready_solution = Pallet::<T>::feasibility_check(raw_solution, ElectionCompute::Signed)
.map_err(<&str>::from)?;
CurrentPhase::<T>::put(Phase::Signed);
// Assume a queued solution is stored, regardless of where it comes from.
QueuedSolution::<T>::put(ready_solution);
// These are set by the `solution_with_size` function.
assert!(DesiredTargets::<T>::get().is_some());
assert!(Snapshot::<T>::get().is_some());
assert!(SnapshotMetadata::<T>::get().is_some());
let result;
#[block]
{
result = <Pallet<T> as ElectionProvider>::elect(Zero::zero());
}
assert!(result.is_ok());
assert!(QueuedSolution::<T>::get().is_none());
assert!(DesiredTargets::<T>::get().is_none());
assert!(Snapshot::<T>::get().is_none());
assert!(SnapshotMetadata::<T>::get().is_none());
assert_eq!(
CurrentPhase::<T>::get(),
<Phase<pezframe_system::pezpallet_prelude::BlockNumberFor::<T>>>::Off
);
Ok(())
}
#[benchmark]
fn submit() -> Result<(), BenchmarkError> {
// The queue is full and the solution is only better than the worse.
Pallet::<T>::create_snapshot().map_err(<&str>::from)?;
Pallet::<T>::phase_transition(Phase::Signed);
Round::<T>::put(1);
let mut signed_submissions = SignedSubmissions::<T>::get();
// Insert `max` submissions
for i in 0..(T::SignedMaxSubmissions::get() - 1) {
let raw_solution = RawSolution {
score: ElectionScore {
minimal_stake: 10_000_000u128 + (i as u128),
..Default::default()
},
..Default::default()
};
let signed_submission = SignedSubmission {
raw_solution,
who: account("submitters", i, SEED),
deposit: Default::default(),
call_fee: Default::default(),
};
signed_submissions.insert(signed_submission);
}
signed_submissions.put();
// This score will eject the weakest one.
let solution = RawSolution {
score: ElectionScore { minimal_stake: 10_000_000u128 + 1, ..Default::default() },
..Default::default()
};
let caller = pezframe_benchmarking::whitelisted_caller();
let deposit =
Pallet::<T>::deposit_for(&solution, SnapshotMetadata::<T>::get().unwrap_or_default());
T::Currency::make_free_balance_be(
&caller,
T::Currency::minimum_balance() * 1000u32.into() + deposit,
);
#[extrinsic_call]
_(RawOrigin::Signed(caller), Box::new(solution));
assert!(Pallet::<T>::signed_submissions().len() as u32 == T::SignedMaxSubmissions::get());
Ok(())
}
#[benchmark]
fn submit_unsigned(
// Number of votes in snapshot.
v: Linear<{ T::BenchmarkingConfig::VOTERS[0] }, { T::BenchmarkingConfig::VOTERS[1] }>,
// Number of targets in snapshot.
t: Linear<{ T::BenchmarkingConfig::TARGETS[0] }, { T::BenchmarkingConfig::TARGETS[1] }>,
// Number of assignments, i.e. `solution.len()`.
// This means the active nominators, thus must be a subset of `v` component.
a: Linear<
{ T::BenchmarkingConfig::ACTIVE_VOTERS[0] },
{ T::BenchmarkingConfig::ACTIVE_VOTERS[1] },
>,
// Number of desired targets. Must be a subset of `t` component.
d: Linear<
{ T::BenchmarkingConfig::DESIRED_TARGETS[0] },
{ T::BenchmarkingConfig::DESIRED_TARGETS[1] },
>,
) -> Result<(), BenchmarkError> {
let witness = SolutionOrSnapshotSize { voters: v, targets: t };
let raw_solution = solution_with_size::<T>(witness, a, d)?;
assert!(QueuedSolution::<T>::get().is_none());
CurrentPhase::<T>::put(Phase::Unsigned((true, 1_u32.into())));
#[extrinsic_call]
_(RawOrigin::None, Box::new(raw_solution), witness);
assert!(QueuedSolution::<T>::get().is_some());
Ok(())
}
// This is checking a valid solution. The worse case is indeed a valid solution.
#[benchmark]
fn feasibility_check(
// Number of votes in snapshot.
v: Linear<{ T::BenchmarkingConfig::VOTERS[0] }, { T::BenchmarkingConfig::VOTERS[1] }>,
// Number of targets in snapshot.
t: Linear<{ T::BenchmarkingConfig::TARGETS[0] }, { T::BenchmarkingConfig::TARGETS[1] }>,
// Number of assignments, i.e. `solution.len()`.
// This means the active nominators, thus must be a subset of `v` component.
a: Linear<
{ T::BenchmarkingConfig::ACTIVE_VOTERS[0] },
{ T::BenchmarkingConfig::ACTIVE_VOTERS[1] },
>,
// Number of desired targets. Must be a subset of `t` component.
d: Linear<
{ T::BenchmarkingConfig::DESIRED_TARGETS[0] },
{ T::BenchmarkingConfig::DESIRED_TARGETS[1] },
>,
) -> Result<(), BenchmarkError> {
let size = SolutionOrSnapshotSize { voters: v, targets: t };
let raw_solution = solution_with_size::<T>(size, a, d)?;
assert_eq!(raw_solution.solution.voter_count() as u32, a);
assert_eq!(raw_solution.solution.unique_targets().len() as u32, d);
let result;
#[block]
{
result = Pallet::<T>::feasibility_check(raw_solution, ElectionCompute::Unsigned);
}
assert!(result.is_ok());
Ok(())
}
// NOTE: this weight is not used anywhere, but the fact that it should succeed when execution in
// isolation is vital to ensure memory-safety. For the same reason, we don't care about the
// components iterating, we merely check that this operation will work with the "maximum"
// numbers.
//
// ONLY run this benchmark in isolation, and pass the `--extra` flag to enable it.
//
// NOTE: If this benchmark does not run out of memory with a given heap pages, it means that the
// OCW process can SURELY succeed with the given configuration, but the opposite is not true.
// This benchmark is doing more work than a raw call to `OffchainWorker_offchain_worker` runtime
// api call, since it is also setting up some mock data, which will itself exhaust the heap to
// some extent.
#[benchmark(extra)]
fn mine_solution_offchain_memory() {
// Number of votes in snapshot. Fixed to maximum.
let v = T::BenchmarkingConfig::MINER_MAXIMUM_VOTERS;
// Number of targets in snapshot. Fixed to maximum.
let t = T::BenchmarkingConfig::MAXIMUM_TARGETS;
set_up_data_provider::<T>(v, t);
let now = pezframe_system::Pallet::<T>::block_number();
CurrentPhase::<T>::put(Phase::Unsigned((true, now)));
Pallet::<T>::create_snapshot().unwrap();
#[block]
{
// we can't really verify this as it won't write anything to state, check logs.
Pallet::<T>::offchain_worker(now)
}
}
// NOTE: this weight is not used anywhere, but the fact that it should succeed when execution in
// isolation is vital to ensure memory-safety. For the same reason, we don't care about the
// components iterating, we merely check that this operation will work with the "maximum"
// numbers.
//
// ONLY run this benchmark in isolation, and pass the `--extra` flag to enable it.
#[benchmark(extra)]
fn create_snapshot_memory() -> Result<(), BenchmarkError> {
// Number of votes in snapshot. Fixed to maximum.
let v = T::BenchmarkingConfig::SNAPSHOT_MAXIMUM_VOTERS;
// Number of targets in snapshot. Fixed to maximum.
let t = T::BenchmarkingConfig::MAXIMUM_TARGETS;
set_up_data_provider::<T>(v, t);
assert!(Snapshot::<T>::get().is_none());
#[block]
{
Pallet::<T>::create_snapshot().map_err(|_| "could not create snapshot")?;
}
assert!(Snapshot::<T>::get().is_some());
assert_eq!(SnapshotMetadata::<T>::get().ok_or("snapshot missing")?.voters, v);
assert_eq!(SnapshotMetadata::<T>::get().ok_or("snapshot missing")?.targets, t);
Ok(())
}
#[benchmark(extra)]
fn trim_assignments_length(
// Number of votes in snapshot.
v: Linear<{ T::BenchmarkingConfig::VOTERS[0] }, { T::BenchmarkingConfig::VOTERS[1] }>,
// Number of targets in snapshot.
t: Linear<{ T::BenchmarkingConfig::TARGETS[0] }, { T::BenchmarkingConfig::TARGETS[1] }>,
// Number of assignments, i.e. `solution.len()`.
// This means the active nominators, thus must be a subset of `v` component.
a: Linear<
{ T::BenchmarkingConfig::ACTIVE_VOTERS[0] },
{ T::BenchmarkingConfig::ACTIVE_VOTERS[1] },
>,
// Number of desired targets. Must be a subset of `t` component.
d: Linear<
{ T::BenchmarkingConfig::DESIRED_TARGETS[0] },
{ T::BenchmarkingConfig::DESIRED_TARGETS[1] },
>,
// Subtract this percentage from the actual encoded size.
f: Linear<0, 95>,
) -> Result<(), BenchmarkError> {
// Compute a random solution, then work backwards to get the lists of voters, targets, and
// assignments
let witness = SolutionOrSnapshotSize { voters: v, targets: t };
let RawSolution { solution, .. } = solution_with_size::<T>(witness, a, d)?;
let RoundSnapshot { voters, targets } = Snapshot::<T>::get().ok_or("snapshot missing")?;
let voter_at = helpers::voter_at_fn::<T::MinerConfig>(&voters);
let target_at = helpers::target_at_fn::<T::MinerConfig>(&targets);
let mut assignments = solution
.into_assignment(voter_at, target_at)
.expect("solution generated by `solution_with_size` must be valid.");
// make a voter cache and some helper functions for access
let cache = helpers::generate_voter_cache::<T::MinerConfig>(&voters);
let voter_index = helpers::voter_index_fn::<T::MinerConfig>(&cache);
let target_index = helpers::target_index_fn::<T::MinerConfig>(&targets);
// sort assignments by decreasing voter stake
assignments.sort_by_key(|unsigned::Assignment::<T> { who, .. }| {
let stake = cache
.get(who)
.map(|idx| {
let (_, stake, _) = voters[*idx];
stake
})
.unwrap_or_default();
Reverse(stake)
});
let mut index_assignments = assignments
.into_iter()
.map(|assignment| IndexAssignment::new(&assignment, &voter_index, &target_index))
.collect::<Result<Vec<_>, _>>()
.unwrap();
let encoded_size_of = |assignments: &[IndexAssignmentOf<T::MinerConfig>]| {
SolutionOf::<T::MinerConfig>::try_from(assignments)
.map(|solution| solution.encoded_size())
};
let desired_size = Percent::from_percent(100 - f.saturated_into::<u8>())
.mul_ceil(encoded_size_of(index_assignments.as_slice()).unwrap());
log!(trace, "desired_size = {}", desired_size);
#[block]
{
Miner::<T::MinerConfig>::trim_assignments_length(
desired_size.saturated_into(),
&mut index_assignments,
&encoded_size_of,
)
.unwrap();
}
let solution =
SolutionOf::<T::MinerConfig>::try_from(index_assignments.as_slice()).unwrap();
let encoding = solution.encode();
log!(
trace,
"encoded size prediction = {}",
encoded_size_of(index_assignments.as_slice()).unwrap(),
);
log!(trace, "actual encoded size = {}", encoding.len());
assert!(encoding.len() <= desired_size);
Ok(())
}
impl_benchmark_test_suite! {
Pallet,
mock::ExtBuilder::default().build_offchainify(10).0,
mock::Runtime,
}
}
@@ -0,0 +1,219 @@
// This file is part of Bizinikiwi.
// Copyright (C) Parity Technologies (UK) Ltd.
// SPDX-License-Identifier: Apache-2.0
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
//! Some helper functions/macros for this crate.
use crate::{
unsigned::{MinerConfig, MinerVoterOf},
SolutionTargetIndexOf, SolutionVoterIndexOf, VoteWeight,
};
use alloc::{collections::btree_map::BTreeMap, vec::Vec};
#[macro_export]
macro_rules! log {
($level:tt, $pattern:expr $(, $values:expr)* $(,)?) => {
log::$level!(
target: $crate::LOG_TARGET,
concat!("[#{:?}] 🗳 ", $pattern), pezframe_system::Pallet::<T>::block_number() $(, $values)*
)
};
}
// This is only useful for a context where a `<T: Config>` is not in scope.
#[macro_export]
macro_rules! log_no_system {
($level:tt, $pattern:expr $(, $values:expr)* $(,)?) => {
log::$level!(
target: $crate::LOG_TARGET,
concat!("🗳 ", $pattern) $(, $values)*
)
};
}
/// Generate a btree-map cache of the voters and their indices.
///
/// This can be used to efficiently build index getter closures.
pub fn generate_voter_cache<T: MinerConfig>(
snapshot: &Vec<MinerVoterOf<T>>,
) -> BTreeMap<T::AccountId, usize> {
let mut cache: BTreeMap<T::AccountId, usize> = BTreeMap::new();
snapshot.iter().enumerate().for_each(|(i, (x, _, _))| {
let _existed = cache.insert(x.clone(), i);
// if a duplicate exists, we only consider the last one. Defensive only, should never
// happen.
debug_assert!(_existed.is_none());
});
cache
}
/// Create a function that returns the index of a voter in the snapshot.
///
/// The returning index type is the same as the one defined in `T::Solution::Voter`.
///
/// ## Warning
///
/// Note that this will represent the snapshot data from which the `cache` is generated.
pub fn voter_index_fn<T: MinerConfig>(
cache: &BTreeMap<T::AccountId, usize>,
) -> impl Fn(&T::AccountId) -> Option<SolutionVoterIndexOf<T>> + '_ {
move |who| {
cache
.get(who)
.and_then(|i| <usize as TryInto<SolutionVoterIndexOf<T>>>::try_into(*i).ok())
}
}
/// Create a function that returns the index of a voter in the snapshot.
///
/// Same as [`voter_index_fn`] but the returned function owns all its necessary data; nothing is
/// borrowed.
pub fn voter_index_fn_owned<T: MinerConfig>(
cache: BTreeMap<T::AccountId, usize>,
) -> impl Fn(&T::AccountId) -> Option<SolutionVoterIndexOf<T>> {
move |who| {
cache
.get(who)
.and_then(|i| <usize as TryInto<SolutionVoterIndexOf<T>>>::try_into(*i).ok())
}
}
/// Same as [`voter_index_fn`], but the returning index is converted into usize, if possible.
///
/// ## Warning
///
/// Note that this will represent the snapshot data from which the `cache` is generated.
pub fn voter_index_fn_usize<T: MinerConfig>(
cache: &BTreeMap<T::AccountId, usize>,
) -> impl Fn(&T::AccountId) -> Option<usize> + '_ {
move |who| cache.get(who).cloned()
}
/// A non-optimized, linear version of [`voter_index_fn`] that does not need a cache and does a
/// linear search.
///
/// ## Warning
///
/// Not meant to be used in production.
#[cfg(test)]
pub fn voter_index_fn_linear<T: MinerConfig>(
snapshot: &Vec<MinerVoterOf<T>>,
) -> impl Fn(&T::AccountId) -> Option<SolutionVoterIndexOf<T>> + '_ {
move |who| {
snapshot
.iter()
.position(|(x, _, _)| x == who)
.and_then(|i| <usize as TryInto<SolutionVoterIndexOf<T>>>::try_into(i).ok())
}
}
/// Create a function that returns the index of a target in the snapshot.
///
/// The returned index type is the same as the one defined in `T::Solution::Target`.
///
/// Note: to the extent possible, the returned function should be cached and reused. Producing that
/// function requires a `O(n log n)` data transform. Each invocation of that function completes
/// in `O(log n)`.
pub fn target_index_fn<T: MinerConfig>(
snapshot: &Vec<T::AccountId>,
) -> impl Fn(&T::AccountId) -> Option<SolutionTargetIndexOf<T>> + '_ {
let cache: BTreeMap<_, _> =
snapshot.iter().enumerate().map(|(idx, account_id)| (account_id, idx)).collect();
move |who| {
cache
.get(who)
.and_then(|i| <usize as TryInto<SolutionTargetIndexOf<T>>>::try_into(*i).ok())
}
}
/// Create a function the returns the index to a target in the snapshot.
///
/// The returned index type is the same as the one defined in `T::Solution::Target`.
///
/// ## Warning
///
/// Not meant to be used in production.
#[cfg(test)]
pub fn target_index_fn_linear<T: MinerConfig>(
snapshot: &Vec<T::AccountId>,
) -> impl Fn(&T::AccountId) -> Option<SolutionTargetIndexOf<T>> + '_ {
move |who| {
snapshot
.iter()
.position(|x| x == who)
.and_then(|i| <usize as TryInto<SolutionTargetIndexOf<T>>>::try_into(i).ok())
}
}
/// Create a function that can map a voter index ([`SolutionVoterIndexOf`]) to the actual voter
/// account using a linearly indexable snapshot.
pub fn voter_at_fn<T: MinerConfig>(
snapshot: &Vec<MinerVoterOf<T>>,
) -> impl Fn(SolutionVoterIndexOf<T>) -> Option<T::AccountId> + '_ {
move |i| {
<SolutionVoterIndexOf<T> as TryInto<usize>>::try_into(i)
.ok()
.and_then(|i| snapshot.get(i).map(|(x, _, _)| x).cloned())
}
}
/// Create a function that can map a target index ([`SolutionTargetIndexOf`]) to the actual target
/// account using a linearly indexable snapshot.
pub fn target_at_fn<T: MinerConfig>(
snapshot: &Vec<T::AccountId>,
) -> impl Fn(SolutionTargetIndexOf<T>) -> Option<T::AccountId> + '_ {
move |i| {
<SolutionTargetIndexOf<T> as TryInto<usize>>::try_into(i)
.ok()
.and_then(|i| snapshot.get(i).cloned())
}
}
/// Create a function to get the stake of a voter.
///
/// This is not optimized and uses a linear search.
#[cfg(test)]
pub fn stake_of_fn_linear<T: MinerConfig>(
snapshot: &Vec<MinerVoterOf<T>>,
) -> impl Fn(&T::AccountId) -> VoteWeight + '_ {
move |who| {
snapshot
.iter()
.find(|(x, _, _)| x == who)
.map(|(_, x, _)| *x)
.unwrap_or_default()
}
}
/// Create a function to get the stake of a voter.
///
/// ## Warning
///
/// The cache need must be derived from the same snapshot. Zero is returned if a voter is
/// non-existent.
pub fn stake_of_fn<'a, T: MinerConfig>(
snapshot: &'a Vec<MinerVoterOf<T>>,
cache: &'a BTreeMap<T::AccountId, usize>,
) -> impl Fn(&T::AccountId) -> VoteWeight + 'a {
move |who| {
if let Some(index) = cache.get(who) {
snapshot.get(*index).map(|(_, x, _)| x).cloned().unwrap_or_default()
} else {
0
}
}
}
File diff suppressed because it is too large Load Diff
@@ -0,0 +1,78 @@
// This file is part of Bizinikiwi.
// Copyright (C) Parity Technologies (UK) Ltd.
// SPDX-License-Identifier: Apache-2.0
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
pub mod v1 {
use alloc::collections::btree_map::BTreeMap;
use pezframe_support::{
storage::unhashed,
traits::{Defensive, GetStorageVersion, OnRuntimeUpgrade},
BoundedVec,
};
use crate::*;
pub struct MigrateToV1<T>(core::marker::PhantomData<T>);
impl<T: Config> OnRuntimeUpgrade for MigrateToV1<T> {
fn on_runtime_upgrade() -> Weight {
let current = Pallet::<T>::in_code_storage_version();
let onchain = Pallet::<T>::on_chain_storage_version();
log!(
info,
"Running migration with in-code storage version {:?} / onchain {:?}",
current,
onchain
);
if current == 1 && onchain == 0 {
if SignedSubmissionIndices::<T>::exists() {
// This needs to be tested at a both a block height where this value exists, and
// when it doesn't.
let now = pezframe_system::Pallet::<T>::block_number();
let map = unhashed::get::<BTreeMap<ElectionScore, u32>>(
&SignedSubmissionIndices::<T>::hashed_key(),
)
.defensive_unwrap_or_default();
let vector = map
.into_iter()
.map(|(score, index)| (score, now, index))
.collect::<Vec<_>>();
log!(
debug,
"{:?} SignedSubmissionIndices read from storage (max: {:?})",
vector.len(),
T::SignedMaxSubmissions::get()
);
// defensive-only, assuming a constant `SignedMaxSubmissions`.
let bounded = BoundedVec::<_, _>::truncate_from(vector);
SignedSubmissionIndices::<T>::put(bounded);
log!(info, "SignedSubmissionIndices existed and got migrated");
} else {
log!(info, "SignedSubmissionIndices did NOT exist.");
}
current.put::<Pallet<T>>();
T::DbWeight::get().reads_writes(2, 1)
} else {
log!(info, "Migration did not execute. This probably should be removed");
T::DbWeight::get().reads(1)
}
}
}
}
@@ -0,0 +1,691 @@
// This file is part of Bizinikiwi.
// Copyright (C) Parity Technologies (UK) Ltd.
// SPDX-License-Identifier: Apache-2.0
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
use super::*;
use crate::{self as multi_phase, signed::GeometricDepositBase, unsigned::MinerConfig};
use pezframe_election_provider_support::{
bounds::{DataProviderBounds, ElectionBounds, ElectionBoundsBuilder},
data_provider, onchain, ElectionDataProvider, NposSolution, SequentialPhragmen,
};
pub use pezframe_support::derive_impl;
use pezframe_support::{
parameter_types,
traits::{ConstU32, Hooks},
weights::{constants, Weight},
BoundedVec,
};
use multi_phase::unsigned::{IndexAssignmentOf, VoterOf};
use parking_lot::RwLock;
use pezsp_core::{
offchain::{
testing::{PoolState, TestOffchainExt, TestTransactionPoolExt},
OffchainDbExt, OffchainWorkerExt, TransactionPoolExt,
},
ConstBool, H256,
};
use pezsp_npos_elections::{
assignment_ratio_to_staked_normalized, seq_phragmen, to_supports, BalancingConfig,
ElectionResult, EvaluateSupport,
};
use pezsp_runtime::{
bounded_vec,
testing::Header,
traits::{BlakeTwo256, Convert, IdentityLookup},
BuildStorage, PerU16, Percent,
};
use std::sync::Arc;
pub type Block = pezsp_runtime::generic::Block<Header, UncheckedExtrinsic>;
pub type UncheckedExtrinsic =
pezsp_runtime::generic::UncheckedExtrinsic<AccountId, RuntimeCall, (), ()>;
pezframe_support::construct_runtime!(
pub enum Runtime {
System: pezframe_system,
Balances: pezpallet_balances,
MultiPhase: multi_phase,
}
);
pub(crate) type Balance = u64;
pub(crate) type AccountId = u64;
pub(crate) type BlockNumber = u64;
pub(crate) type VoterIndex = u32;
pub(crate) type TargetIndex = u16;
pezframe_election_provider_support::generate_solution_type!(
#[compact]
pub struct TestNposSolution::<
VoterIndex = VoterIndex,
TargetIndex = TargetIndex,
Accuracy = PerU16,
MaxVoters = ConstU32::<2_000>
>(16)
);
/// All events of this pallet.
pub(crate) fn multi_phase_events() -> Vec<super::Event<Runtime>> {
System::read_events_for_pallet::<super::Event<Runtime>>()
}
/// To from `now` to block `n`.
pub fn roll_to(n: BlockNumber) {
let now = System::block_number();
for i in now + 1..=n {
System::set_block_number(i);
MultiPhase::on_initialize(i);
}
}
pub fn roll_to_unsigned() {
while !matches!(CurrentPhase::<Runtime>::get(), Phase::Unsigned(_)) {
roll_to(System::block_number() + 1);
}
}
pub fn roll_to_signed() {
while !matches!(CurrentPhase::<Runtime>::get(), Phase::Signed) {
roll_to(System::block_number() + 1);
}
}
pub fn roll_to_with_ocw(n: BlockNumber) {
let now = System::block_number();
for i in now + 1..=n {
System::set_block_number(i);
MultiPhase::on_initialize(i);
MultiPhase::offchain_worker(i);
}
}
pub fn roll_to_round(n: u32) {
assert!(Round::<Runtime>::get() <= n);
while Round::<Runtime>::get() != n {
roll_to_signed();
pezframe_support::assert_ok!(MultiPhase::elect(Zero::zero()));
}
}
pub struct TrimHelpers {
pub voters: Vec<VoterOf<Runtime>>,
pub assignments: Vec<IndexAssignmentOf<Runtime>>,
pub encoded_size_of:
Box<dyn Fn(&[IndexAssignmentOf<Runtime>]) -> Result<usize, pezsp_npos_elections::Error>>,
pub voter_index: Box<
dyn Fn(
&<Runtime as pezframe_system::Config>::AccountId,
) -> Option<SolutionVoterIndexOf<Runtime>>,
>,
}
/// Helpers for setting up trimming tests.
///
/// Assignments are pre-sorted in reverse order of stake.
pub fn trim_helpers() -> TrimHelpers {
let RoundSnapshot { voters, targets } = Snapshot::<Runtime>::get().unwrap();
let stakes: std::collections::HashMap<_, _> =
voters.iter().map(|(id, stake, _)| (*id, *stake)).collect();
// Compute the size of a solution comprised of the selected arguments.
//
// This function completes in `O(edges)`; it's expensive, but linear.
let encoded_size_of = Box::new(|assignments: &[IndexAssignmentOf<Runtime>]| {
SolutionOf::<Runtime>::try_from(assignments).map(|s| s.encoded_size())
});
let cache = helpers::generate_voter_cache::<Runtime>(&voters);
let voter_index = helpers::voter_index_fn_owned::<Runtime>(cache);
let target_index = helpers::target_index_fn::<Runtime>(&targets);
let desired_targets = crate::DesiredTargets::<Runtime>::get().unwrap();
let ElectionResult::<_, SolutionAccuracyOf<Runtime>> { mut assignments, .. } =
seq_phragmen(desired_targets as usize, targets.clone(), voters.clone(), None).unwrap();
// sort by decreasing order of stake
assignments.sort_by_key(|assignment| {
std::cmp::Reverse(stakes.get(&assignment.who).cloned().unwrap_or_default())
});
// convert to IndexAssignment
let assignments = assignments
.iter()
.map(|assignment| {
IndexAssignmentOf::<Runtime>::new(assignment, &voter_index, &target_index)
})
.collect::<Result<Vec<_>, _>>()
.expect("test assignments don't contain any voters with too many votes");
TrimHelpers { voters, assignments, encoded_size_of, voter_index: Box::new(voter_index) }
}
/// Spit out a verifiable raw solution.
///
/// This is a good example of what an offchain miner would do.
pub fn raw_solution() -> RawSolution<SolutionOf<Runtime>> {
let RoundSnapshot { voters, targets } = Snapshot::<Runtime>::get().unwrap();
let desired_targets = crate::DesiredTargets::<Runtime>::get().unwrap();
let ElectionResult::<_, SolutionAccuracyOf<Runtime>> { winners: _, assignments } =
seq_phragmen(desired_targets as usize, targets.clone(), voters.clone(), None).unwrap();
// closures
let cache = helpers::generate_voter_cache::<Runtime>(&voters);
let voter_index = helpers::voter_index_fn_linear::<Runtime>(&voters);
let target_index = helpers::target_index_fn_linear::<Runtime>(&targets);
let stake_of = helpers::stake_of_fn::<Runtime>(&voters, &cache);
let score = {
let staked = assignment_ratio_to_staked_normalized(assignments.clone(), &stake_of).unwrap();
to_supports(&staked).evaluate()
};
let solution =
SolutionOf::<Runtime>::from_assignment(&assignments, &voter_index, &target_index).unwrap();
let round = Round::<Runtime>::get();
RawSolution { solution, score, round }
}
pub fn witness() -> SolutionOrSnapshotSize {
Snapshot::<Runtime>::get()
.map(|snap| SolutionOrSnapshotSize {
voters: snap.voters.len() as u32,
targets: snap.targets.len() as u32,
})
.unwrap_or_default()
}
#[derive_impl(pezframe_system::config_preludes::TestDefaultConfig)]
impl pezframe_system::Config for Runtime {
type SS58Prefix = ();
type BaseCallFilter = pezframe_support::traits::Everything;
type RuntimeOrigin = RuntimeOrigin;
type Nonce = u64;
type RuntimeCall = RuntimeCall;
type Hash = H256;
type Hashing = BlakeTwo256;
type AccountId = AccountId;
type Lookup = IdentityLookup<Self::AccountId>;
type Block = Block;
type RuntimeEvent = RuntimeEvent;
type BlockHashCount = ();
type DbWeight = ();
type BlockLength = ();
type BlockWeights = BlockWeights;
type Version = ();
type PalletInfo = PalletInfo;
type AccountData = pezpallet_balances::AccountData<u64>;
type OnNewAccount = ();
type OnKilledAccount = ();
type SystemWeightInfo = ();
type OnSetCode = ();
type MaxConsumers = ConstU32<16>;
}
const NORMAL_DISPATCH_RATIO: Perbill = Perbill::from_percent(75);
parameter_types! {
pub BlockWeights: pezframe_system::limits::BlockWeights = pezframe_system::limits::BlockWeights
::with_sensible_defaults(
Weight::from_parts(2u64 * constants::WEIGHT_REF_TIME_PER_SECOND, u64::MAX),
NORMAL_DISPATCH_RATIO,
);
}
#[derive_impl(pezpallet_balances::config_preludes::TestDefaultConfig)]
impl pezpallet_balances::Config for Runtime {
type AccountStore = System;
}
#[derive(Default, Eq, PartialEq, Debug, Clone, Copy)]
pub enum MockedWeightInfo {
#[default]
Basic,
Complex,
Real,
}
parameter_types! {
pub static Targets: Vec<AccountId> = vec![10, 20, 30, 40];
pub static Voters: Vec<VoterOf<Runtime>> = vec![
(1, 10, bounded_vec![10, 20]),
(2, 10, bounded_vec![30, 40]),
(3, 10, bounded_vec![40]),
(4, 10, bounded_vec![10, 20, 30, 40]),
// self votes.
(10, 10, bounded_vec![10]),
(20, 20, bounded_vec![20]),
(30, 30, bounded_vec![30]),
(40, 40, bounded_vec![40]),
];
pub static DesiredTargets: u32 = 2;
pub static SignedPhase: BlockNumber = 10;
pub static UnsignedPhase: BlockNumber = 5;
pub static SignedMaxSubmissions: u32 = 5;
pub static SignedMaxRefunds: u32 = 1;
// for tests only. if `EnableVariableDepositBase` is true, the deposit base will be calculated
// by `Multiphase::DepositBase`. Otherwise the deposit base is `SignedFixedDeposit`.
pub static EnableVariableDepositBase: bool = false;
pub static SignedFixedDeposit: Balance = 5;
pub static SignedDepositIncreaseFactor: Percent = Percent::from_percent(10);
pub static SignedDepositByte: Balance = 0;
pub static SignedDepositWeight: Balance = 0;
pub static SignedRewardBase: Balance = 7;
pub static SignedMaxWeight: Weight = BlockWeights::get().max_block;
pub static MinerTxPriority: u64 = 100;
pub static BetterSignedThreshold: Perbill = Perbill::zero();
pub static OffchainRepeat: BlockNumber = 5;
pub static MinerMaxWeight: Weight = BlockWeights::get().max_block;
pub static MinerMaxLength: u32 = 256;
pub static MockWeightInfo: MockedWeightInfo = MockedWeightInfo::Real;
pub static MaxElectingVoters: VoterIndex = u32::max_value();
pub static MaxElectableTargets: TargetIndex = TargetIndex::max_value();
#[derive(Debug)]
pub static MaxWinners: u32 = 200;
#[derive(Debug)]
pub static MaxBackersPerWinner: u32 = 200;
// `ElectionBounds` and `OnChainElectionsBounds` are defined separately to set them independently in the tests.
pub static ElectionsBounds: ElectionBounds = ElectionBoundsBuilder::default().build();
pub static OnChainElectionsBounds: ElectionBounds = ElectionBoundsBuilder::default().build();
pub static EpochLength: u64 = 30;
pub static OnChainFallback: bool = true;
}
pub struct OnChainSeqPhragmen;
impl onchain::Config for OnChainSeqPhragmen {
type System = Runtime;
type Solver = SequentialPhragmen<AccountId, SolutionAccuracyOf<Runtime>, Balancing>;
type DataProvider = StakingMock;
type WeightInfo = ();
type MaxWinnersPerPage = MaxWinners;
type MaxBackersPerWinner = MaxBackersPerWinner;
type Sort = ConstBool<true>;
type Bounds = OnChainElectionsBounds;
}
pub struct MockFallback;
impl ElectionProvider for MockFallback {
type AccountId = AccountId;
type BlockNumber = BlockNumber;
type Error = &'static str;
type MaxWinnersPerPage = MaxWinners;
type MaxBackersPerWinner = MaxBackersPerWinner;
type MaxBackersPerWinnerFinal = MaxBackersPerWinner;
type Pages = ConstU32<1>;
type DataProvider = StakingMock;
fn elect(_remaining: PageIndex) -> Result<BoundedSupportsOf<Self>, Self::Error> {
unimplemented!()
}
fn duration() -> Self::BlockNumber {
0
}
fn start() -> Result<(), Self::Error> {
Ok(())
}
fn status() -> Result<bool, ()> {
Ok(true)
}
}
impl InstantElectionProvider for MockFallback {
fn instant_elect(
voters: Vec<VoterOf<Runtime>>,
targets: Vec<AccountId>,
desired_targets: u32,
) -> Result<BoundedSupportsOf<Self>, Self::Error> {
if OnChainFallback::get() {
onchain::OnChainExecution::<OnChainSeqPhragmen>::instant_elect(
voters,
targets,
desired_targets,
)
.map_err(|_| "onchain::OnChainExecution failed.")
} else {
Err("NoFallback.")
}
}
fn bother() -> bool {
OnChainFallback::get()
}
}
parameter_types! {
pub static Balancing: Option<BalancingConfig> = Some( BalancingConfig { iterations: 0, tolerance: 0 } );
}
pub struct TestBenchmarkingConfig;
impl BenchmarkingConfig for TestBenchmarkingConfig {
const VOTERS: [u32; 2] = [400, 600];
const ACTIVE_VOTERS: [u32; 2] = [100, 300];
const TARGETS: [u32; 2] = [200, 400];
const DESIRED_TARGETS: [u32; 2] = [100, 180];
const SNAPSHOT_MAXIMUM_VOTERS: u32 = 1000;
const MINER_MAXIMUM_VOTERS: u32 = 1000;
const MAXIMUM_TARGETS: u32 = 200;
}
impl MinerConfig for Runtime {
type AccountId = AccountId;
type MaxLength = MinerMaxLength;
type MaxWeight = MinerMaxWeight;
type MaxVotesPerVoter = <StakingMock as ElectionDataProvider>::MaxVotesPerVoter;
type MaxWinners = MaxWinners;
type MaxBackersPerWinner = MaxBackersPerWinner;
type Solution = TestNposSolution;
fn solution_weight(v: u32, t: u32, a: u32, d: u32) -> Weight {
match MockWeightInfo::get() {
MockedWeightInfo::Basic => Weight::from_parts(
(10 as u64).saturating_add((5 as u64).saturating_mul(a as u64)),
0,
),
MockedWeightInfo::Complex =>
Weight::from_parts((0 * v + 0 * t + 1000 * a + 0 * d) as u64, 0),
MockedWeightInfo::Real =>
<() as multi_phase::weights::WeightInfo>::feasibility_check(v, t, a, d),
}
}
}
impl crate::Config for Runtime {
type RuntimeEvent = RuntimeEvent;
type Currency = Balances;
type EstimateCallFee = pezframe_support::traits::ConstU64<8>;
type SignedPhase = SignedPhase;
type UnsignedPhase = UnsignedPhase;
type BetterSignedThreshold = BetterSignedThreshold;
type OffchainRepeat = OffchainRepeat;
type MinerTxPriority = MinerTxPriority;
type SignedRewardBase = SignedRewardBase;
type SignedDepositBase = Self;
type SignedDepositByte = ();
type SignedDepositWeight = ();
type SignedMaxWeight = SignedMaxWeight;
type SignedMaxSubmissions = SignedMaxSubmissions;
type SignedMaxRefunds = SignedMaxRefunds;
type SlashHandler = ();
type RewardHandler = ();
type DataProvider = StakingMock;
type WeightInfo = ();
type BenchmarkingConfig = TestBenchmarkingConfig;
type Fallback = MockFallback;
type GovernanceFallback =
pezframe_election_provider_support::onchain::OnChainExecution<OnChainSeqPhragmen>;
type ForceOrigin = pezframe_system::EnsureRoot<AccountId>;
type MaxWinners = MaxWinners;
type MaxBackersPerWinner = MaxBackersPerWinner;
type MinerConfig = Self;
type Solver = SequentialPhragmen<AccountId, SolutionAccuracyOf<Runtime>, Balancing>;
type ElectionBounds = ElectionsBounds;
}
impl Convert<usize, BalanceOf<Runtime>> for Runtime {
/// returns the geometric increase deposit fee if `EnableVariableDepositBase` is set, otherwise
/// the fee is `SignedFixedDeposit`.
fn convert(queue_len: usize) -> Balance {
if !EnableVariableDepositBase::get() {
SignedFixedDeposit::get()
} else {
GeometricDepositBase::<Balance, SignedFixedDeposit, SignedDepositIncreaseFactor>::convert(queue_len)
}
}
}
impl<LocalCall> pezframe_system::offchain::CreateTransactionBase<LocalCall> for Runtime
where
RuntimeCall: From<LocalCall>,
{
type RuntimeCall = RuntimeCall;
type Extrinsic = Extrinsic;
}
impl<LocalCall> pezframe_system::offchain::CreateBare<LocalCall> for Runtime
where
RuntimeCall: From<LocalCall>,
{
fn create_bare(call: Self::RuntimeCall) -> Self::Extrinsic {
Extrinsic::new_bare(call)
}
}
pub type Extrinsic = pezsp_runtime::testing::TestXt<RuntimeCall, ()>;
parameter_types! {
pub MaxNominations: u32 = <TestNposSolution as NposSolution>::LIMIT as u32;
// only used in testing to manipulate mock behaviour
pub static DataProviderAllowBadData: bool = false;
}
#[derive(Default)]
pub struct ExtBuilder {}
pub struct StakingMock;
impl ElectionDataProvider for StakingMock {
type BlockNumber = BlockNumber;
type AccountId = AccountId;
type MaxVotesPerVoter = MaxNominations;
fn electable_targets(
bounds: DataProviderBounds,
remaining_pages: PageIndex,
) -> data_provider::Result<Vec<AccountId>> {
assert!(remaining_pages.is_zero());
let targets = Targets::get();
if !DataProviderAllowBadData::get() &&
bounds.count.map_or(false, |max_len| targets.len() > max_len.0 as usize)
{
return Err("Targets too big");
}
Ok(targets)
}
fn electing_voters(
bounds: DataProviderBounds,
remaining_pages: PageIndex,
) -> data_provider::Result<Vec<VoterOf<Runtime>>> {
assert!(remaining_pages.is_zero());
let mut voters = Voters::get();
if !DataProviderAllowBadData::get() {
if let Some(max_len) = bounds.count {
voters.truncate(max_len.0 as usize)
}
}
Ok(voters)
}
fn desired_targets() -> data_provider::Result<u32> {
Ok(DesiredTargets::get())
}
fn next_election_prediction(now: u64) -> u64 {
now + EpochLength::get() - now % EpochLength::get()
}
#[cfg(feature = "runtime-benchmarks")]
fn put_snapshot(
voters: Vec<VoterOf<Runtime>>,
targets: Vec<AccountId>,
_target_stake: Option<VoteWeight>,
) {
Targets::set(targets);
Voters::set(voters);
}
#[cfg(feature = "runtime-benchmarks")]
fn clear() {
Targets::set(vec![]);
Voters::set(vec![]);
}
#[cfg(feature = "runtime-benchmarks")]
fn add_voter(
voter: AccountId,
weight: VoteWeight,
targets: pezframe_support::BoundedVec<AccountId, Self::MaxVotesPerVoter>,
) {
let mut current = Voters::get();
current.push((voter, weight, targets));
Voters::set(current);
}
#[cfg(feature = "runtime-benchmarks")]
fn add_target(target: AccountId) {
let mut current = Targets::get();
current.push(target);
Targets::set(current);
}
}
impl ExtBuilder {
pub fn miner_tx_priority(self, p: u64) -> Self {
<MinerTxPriority>::set(p);
self
}
pub fn better_signed_threshold(self, p: Perbill) -> Self {
<BetterSignedThreshold>::set(p);
self
}
pub fn phases(self, signed: BlockNumber, unsigned: BlockNumber) -> Self {
<SignedPhase>::set(signed);
<UnsignedPhase>::set(unsigned);
self
}
pub fn onchain_fallback(self, onchain: bool) -> Self {
<OnChainFallback>::set(onchain);
self
}
pub fn miner_weight(self, weight: Weight) -> Self {
<MinerMaxWeight>::set(weight);
self
}
pub fn mock_weight_info(self, mock: MockedWeightInfo) -> Self {
<MockWeightInfo>::set(mock);
self
}
pub fn desired_targets(self, t: u32) -> Self {
<DesiredTargets>::set(t);
self
}
pub fn add_voter(
self,
who: AccountId,
stake: Balance,
targets: BoundedVec<AccountId, MaxNominations>,
) -> Self {
VOTERS.with(|v| v.borrow_mut().push((who, stake, targets)));
self
}
pub fn signed_max_submission(self, count: u32) -> Self {
<SignedMaxSubmissions>::set(count);
self
}
pub fn signed_base_deposit(self, base: u64, variable: bool, increase: Percent) -> Self {
<EnableVariableDepositBase>::set(variable);
<SignedFixedDeposit>::set(base);
<SignedDepositIncreaseFactor>::set(increase);
self
}
pub fn signed_deposit(self, base: u64, byte: u64, weight: u64) -> Self {
<SignedFixedDeposit>::set(base);
<SignedDepositByte>::set(byte);
<SignedDepositWeight>::set(weight);
self
}
pub fn signed_weight(self, weight: Weight) -> Self {
<SignedMaxWeight>::set(weight);
self
}
pub fn max_backers_per_winner(self, max: u32) -> Self {
MaxBackersPerWinner::set(max);
self
}
pub fn build(self) -> pezsp_io::TestExternalities {
pezsp_tracing::try_init_simple();
let mut storage =
pezframe_system::GenesisConfig::<Runtime>::default().build_storage().unwrap();
let _ = pezpallet_balances::GenesisConfig::<Runtime> {
balances: vec![
// bunch of account for submitting stuff only.
(99, 100),
(100, 100),
(101, 100),
(102, 100),
(103, 100),
(104, 100),
(105, 100),
(999, 100),
(9999, 100),
],
..Default::default()
}
.assimilate_storage(&mut storage);
pezsp_io::TestExternalities::from(storage)
}
pub fn build_offchainify(
self,
iters: u32,
) -> (pezsp_io::TestExternalities, Arc<RwLock<PoolState>>) {
let mut ext = self.build();
let (offchain, offchain_state) = TestOffchainExt::new();
let (pool, pool_state) = TestTransactionPoolExt::new();
let mut seed = [0_u8; 32];
seed[0..4].copy_from_slice(&iters.to_le_bytes());
offchain_state.write().seed = seed;
ext.register_extension(OffchainDbExt::new(offchain.clone()));
ext.register_extension(OffchainWorkerExt::new(offchain));
ext.register_extension(TransactionPoolExt::new(pool));
(ext, pool_state)
}
pub fn build_and_execute(self, test: impl FnOnce() -> ()) {
pezsp_tracing::try_init_simple();
let mut ext = self.build();
ext.execute_with(test);
#[cfg(feature = "try-runtime")]
ext.execute_with(|| {
pezframe_support::assert_ok!(
<MultiPhase as pezframe_support::traits::Hooks<u64>>::try_state(System::block_number())
);
});
}
}
pub(crate) fn balances(who: &AccountId) -> (Balance, Balance) {
(Balances::free_balance(who), Balances::reserved_balance(who))
}
@@ -0,0 +1,265 @@
// This file is part of Bizinikiwi.
// Copyright (C) Parity Technologies (UK) Ltd.
// SPDX-License-Identifier: Apache-2.0
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
//! Remote mining tests for Kusama and Pezkuwi.
//!
//! Run like this:
//!
//! ```ignore
//! RUST_LOG=remote-ext=info,runtime::election-provider=debug cargo test --release --features remote-mining -p pezpallet-election-provider-multi-phase mine_for_ -- --test-threads 1
//! ```
//!
//! See the comments below on how to feed specific hash.
use crate::{ElectionCompute, Miner, MinerConfig, RawSolution, RoundSnapshot};
use codec::Decode;
use core::marker::PhantomData;
use pezframe_election_provider_support::generate_solution_type;
use pezframe_support::{
traits::Get,
weights::constants::{WEIGHT_PROOF_SIZE_PER_MB, WEIGHT_REF_TIME_PER_SECOND},
};
use remote_externalities::{Builder, Mode, OnlineConfig, Transport};
use pezsp_core::{ConstU32, H256};
use pezsp_npos_elections::BalancingConfig;
use pezsp_runtime::{Perbill, Weight};
pub mod pezkuwi {
use super::*;
pub struct MinerConfig;
pub struct MaxWeight;
impl Get<Weight> for MaxWeight {
fn get() -> Weight {
Weight::from_parts(
WEIGHT_REF_TIME_PER_SECOND.saturating_mul(2),
WEIGHT_PROOF_SIZE_PER_MB.saturating_mul(5),
)
}
}
generate_solution_type!(
#[compact]
pub struct PezkuwiSolution::<
VoterIndex = u32,
TargetIndex = u16,
Accuracy = pezsp_runtime::PerU16,
MaxVoters = ConstU32<22_500>,
>(16)
);
/// Some configs are a bit inconsistent, but we don't care about them for now.
impl crate::MinerConfig for MinerConfig {
type AccountId = pezsp_runtime::AccountId32;
type MaxBackersPerWinner = ConstU32<1024>;
type MaxLength = ConstU32<{ 4 * 1024 * 1024 }>;
type MaxVotesPerVoter = ConstU32<16>;
type MaxWeight = MaxWeight;
type MaxWinners = ConstU32<1000>;
type Solution = PezkuwiSolution;
fn solution_weight(
_voters: u32,
_targets: u32,
_active_voters: u32,
_degree: u32,
) -> Weight {
Default::default()
}
}
}
pub mod kusama {
use super::*;
pub struct MinerConfig;
pub struct MaxWeight;
impl Get<Weight> for MaxWeight {
fn get() -> Weight {
Weight::from_parts(
WEIGHT_REF_TIME_PER_SECOND.saturating_mul(2),
WEIGHT_PROOF_SIZE_PER_MB.saturating_mul(5),
)
}
}
generate_solution_type!(
#[compact]
pub struct PezkuwiSolution::<
VoterIndex = u32,
TargetIndex = u16,
Accuracy = pezsp_runtime::PerU16,
MaxVoters = ConstU32<12_500>,
>(24)
);
/// Some configs are a bit inconsistent, but we don't care about them for now.
impl crate::MinerConfig for MinerConfig {
type AccountId = pezsp_runtime::AccountId32;
type MaxBackersPerWinner = ConstU32<1024>;
type MaxLength = ConstU32<{ 4 * 1024 * 1024 }>;
type MaxVotesPerVoter = ConstU32<24>;
type MaxWeight = MaxWeight;
type MaxWinners = ConstU32<1000>;
type Solution = PezkuwiSolution;
fn solution_weight(
_voters: u32,
_targets: u32,
_active_voters: u32,
_degree: u32,
) -> Weight {
Default::default()
}
}
}
pub struct HackyGetSnapshot<T: MinerConfig>(PhantomData<T>);
type UntypedSnapshotOf<T> = RoundSnapshot<
<T as MinerConfig>::AccountId,
pezframe_election_provider_support::Voter<
<T as MinerConfig>::AccountId,
<T as MinerConfig>::MaxVotesPerVoter,
>,
>;
impl<T: MinerConfig> HackyGetSnapshot<T> {
fn snapshot() -> UntypedSnapshotOf<T>
where
UntypedSnapshotOf<T>: Decode,
{
let key = [
pezsp_core::hashing::twox_128(b"ElectionProviderMultiPhase"),
pezsp_core::hashing::twox_128(b"Snapshot"),
]
.concat();
pezframe_support::storage::unhashed::get::<UntypedSnapshotOf<T>>(&key).unwrap()
}
fn desired_targets() -> u32 {
let key = [
pezsp_core::hashing::twox_128(b"ElectionProviderMultiPhase"),
pezsp_core::hashing::twox_128(b"DesiredTargets"),
]
.concat();
pezframe_support::storage::unhashed::get::<u32>(&key).unwrap()
}
}
pub type FakeBlock = pezsp_runtime::testing::Block<pezsp_runtime::testing::TestXt<(), ()>>;
pub struct Balancing;
impl Get<Option<BalancingConfig>> for Balancing {
fn get() -> Option<BalancingConfig> {
Some(BalancingConfig { iterations: 10, tolerance: 0 })
}
}
pub type SolverOf<T> = pezframe_election_provider_support::SequentialPhragmen<
<T as MinerConfig>::AccountId,
Perbill,
Balancing,
>;
fn test_for_network<T: MinerConfig>()
where
UntypedSnapshotOf<T>: Decode,
{
let snapshot = HackyGetSnapshot::<T>::snapshot();
let desired_targets = HackyGetSnapshot::<T>::desired_targets();
let (solution, score, _size, _trimming) =
Miner::<T>::mine_solution_with_snapshot::<SolverOf<T>>(
snapshot.voters.clone(),
snapshot.targets.clone(),
desired_targets,
)
.unwrap();
let raw_solution = RawSolution { round: 0, solution, score };
let _ready_solution = Miner::<T>::feasibility_check(
raw_solution,
ElectionCompute::Signed,
desired_targets,
snapshot,
0,
Default::default(),
)
.unwrap();
}
#[tokio::test]
async fn mine_for_pezkuwi() {
pezsp_tracing::try_init_simple();
// good way to find good block hashes: https://polkadot.subscan.io/event?page=1&time_dimension=date&module=electionprovidermultiphase&event_id=solutionstored
// we are just looking for blocks with snapshot present, that's all.
let block_hash_str = std::option_env!("BLOCK_HASH")
// known good pezkuwi hash
.unwrap_or("047f1f5b1081fdaa72c9224d0ea302553738556758dc53269b1bfe6a069986bb")
.to_string();
let block_hash = H256::from_slice(hex::decode(block_hash_str).unwrap().as_ref());
let online = OnlineConfig {
at: Some(block_hash),
pallets: vec!["ElectionProviderMultiPhase".to_string()],
transport: Transport::from(
std::option_env!("WS").unwrap_or("wss://rpc.pezkuwichain.io").to_string(),
),
..Default::default()
};
let _ = Builder::<FakeBlock>::default()
.mode(Mode::Online(online))
.build()
.await
.unwrap()
.execute_with(|| {
test_for_network::<pezkuwi::MinerConfig>();
});
}
#[tokio::test]
async fn mine_for_kusama() {
pezsp_tracing::try_init_simple();
// good way to find good block hashes: https://kusama.subscan.io/event?page=1&time_dimension=date&module=electionprovidermultiphase&event_id=solutionstored
// we are just looking for blocks with snapshot present, that's all.
let block_hash_str = std::option_env!("BLOCK_HASH")
// known good kusama hash
.unwrap_or("d5d9f5e098fcb41915c85e6695eddc18c0bc4aa4976ad0d9bf5f4713039bca26")
.to_string();
let block_hash = H256::from_slice(hex::decode(block_hash_str).unwrap().as_ref());
let online = OnlineConfig {
at: Some(block_hash),
pallets: vec!["ElectionProviderMultiPhase".to_string()],
transport: Transport::from(
std::option_env!("WS").unwrap_or("wss://rpc.zagros.pezkuwichain.io").to_string(),
),
..Default::default()
};
let _ = Builder::<FakeBlock>::default()
.mode(Mode::Online(online))
.build()
.await
.unwrap()
.execute_with(|| {
test_for_network::<kusama::MinerConfig>();
});
}
File diff suppressed because it is too large Load Diff
File diff suppressed because it is too large Load Diff
@@ -0,0 +1,480 @@
// This file is part of Bizinikiwi.
// Copyright (C) Parity Technologies (UK) Ltd.
// SPDX-License-Identifier: Apache-2.0
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
// This file is part of Bizinikiwi.
// Copyright (C) Parity Technologies (UK) Ltd.
// SPDX-License-Identifier: Apache-2.0
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
//! Autogenerated weights for `pezpallet_election_provider_multi_phase`
//!
//! THIS FILE WAS AUTO-GENERATED USING THE BIZINIKIWI BENCHMARK CLI VERSION 32.0.0
//! DATE: 2025-02-21, STEPS: `50`, REPEAT: `20`, LOW RANGE: `[]`, HIGH RANGE: `[]`
//! WORST CASE MAP SIZE: `1000000`
//! HOSTNAME: `4563561839a5`, CPU: `Intel(R) Xeon(R) CPU @ 2.60GHz`
//! WASM-EXECUTION: `Compiled`, CHAIN: `None`, DB CACHE: `1024`
// Executed Command:
// frame-omni-bencher
// v1
// benchmark
// pallet
// --extrinsic=*
// --runtime=target/production/wbuild/kitchensink-runtime/kitchensink_runtime.wasm
// --pallet=pezpallet_election_provider_multi_phase
// --header=/__w/pezkuwi-sdk/pezkuwi-sdk/bizinikiwi/HEADER-APACHE2
// --output=/__w/pezkuwi-sdk/pezkuwi-sdk/bizinikiwi/pezframe/election-provider-multi-phase/src/weights.rs
// --wasm-execution=compiled
// --steps=50
// --repeat=20
// --heap-pages=4096
// --template=bizinikiwi/.maintain/frame-weight-template.hbs
// --no-storage-info
// --no-min-squares
// --no-median-slopes
// --genesis-builder-policy=none
// --exclude-pallets=pezpallet_xcm,pezpallet_xcm_benchmarks::fungible,pezpallet_xcm_benchmarks::generic,pezpallet_nomination_pools,pezpallet_remark,pezpallet_transaction_storage,pezpallet_election_provider_multi_block,pezpallet_election_provider_multi_block::signed,pezpallet_election_provider_multi_block::unsigned,pezpallet_election_provider_multi_block::verifier
#![cfg_attr(rustfmt, rustfmt_skip)]
#![allow(unused_parens)]
#![allow(unused_imports)]
#![allow(missing_docs)]
#![allow(dead_code)]
use pezframe_support::{traits::Get, weights::{Weight, constants::RocksDbWeight}};
use core::marker::PhantomData;
/// Weight functions needed for `pezpallet_election_provider_multi_phase`.
pub trait WeightInfo {
fn on_initialize_nothing() -> Weight;
fn on_initialize_open_signed() -> Weight;
fn on_initialize_open_unsigned() -> Weight;
fn finalize_signed_phase_accept_solution() -> Weight;
fn finalize_signed_phase_reject_solution() -> Weight;
fn create_snapshot_internal(v: u32, t: u32, ) -> Weight;
fn elect_queued(a: u32, d: u32, ) -> Weight;
fn submit() -> Weight;
fn submit_unsigned(v: u32, t: u32, a: u32, d: u32, ) -> Weight;
fn feasibility_check(v: u32, t: u32, a: u32, d: u32, ) -> Weight;
}
/// Weights for `pezpallet_election_provider_multi_phase` using the Bizinikiwi node and recommended hardware.
pub struct BizinikiwiWeight<T>(PhantomData<T>);
impl<T: pezframe_system::Config> WeightInfo for BizinikiwiWeight<T> {
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
fn on_initialize_nothing() -> Weight {
// Proof Size summary in bytes:
// Measured: `0`
// Estimated: `1485`
// Minimum execution time: 1_355_000 picoseconds.
Weight::from_parts(1_403_000, 1485)
.saturating_add(T::DbWeight::get().reads(1_u64))
}
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
fn on_initialize_open_signed() -> Weight {
// Proof Size summary in bytes:
// Measured: `0`
// Estimated: `1485`
// Minimum execution time: 5_350_000 picoseconds.
Weight::from_parts(5_507_000, 1485)
.saturating_add(T::DbWeight::get().reads(2_u64))
.saturating_add(T::DbWeight::get().writes(1_u64))
}
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
fn on_initialize_open_unsigned() -> Weight {
// Proof Size summary in bytes:
// Measured: `0`
// Estimated: `1485`
// Minimum execution time: 6_110_000 picoseconds.
Weight::from_parts(6_312_000, 1485)
.saturating_add(T::DbWeight::get().reads(2_u64))
.saturating_add(T::DbWeight::get().writes(1_u64))
}
/// Storage: `System::Account` (r:1 w:1)
/// Proof: `System::Account` (`max_values`: None, `max_size`: Some(128), added: 2603, mode: `MaxEncodedLen`)
/// Storage: `ElectionProviderMultiPhase::QueuedSolution` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::QueuedSolution` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
fn finalize_signed_phase_accept_solution() -> Weight {
// Proof Size summary in bytes:
// Measured: `52`
// Estimated: `3593`
// Minimum execution time: 24_085_000 picoseconds.
Weight::from_parts(24_495_000, 3593)
.saturating_add(T::DbWeight::get().reads(1_u64))
.saturating_add(T::DbWeight::get().writes(2_u64))
}
/// Storage: `System::Account` (r:1 w:1)
/// Proof: `System::Account` (`max_values`: None, `max_size`: Some(128), added: 2603, mode: `MaxEncodedLen`)
fn finalize_signed_phase_reject_solution() -> Weight {
// Proof Size summary in bytes:
// Measured: `52`
// Estimated: `3593`
// Minimum execution time: 16_509_000 picoseconds.
Weight::from_parts(17_064_000, 3593)
.saturating_add(T::DbWeight::get().reads(1_u64))
.saturating_add(T::DbWeight::get().writes(1_u64))
}
/// Storage: `ElectionProviderMultiPhase::SnapshotMetadata` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::SnapshotMetadata` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::DesiredTargets` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::DesiredTargets` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Snapshot` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::Snapshot` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// The range of component `v` is `[1000, 2000]`.
/// The range of component `t` is `[500, 1000]`.
fn create_snapshot_internal(v: u32, t: u32, ) -> Weight {
// Proof Size summary in bytes:
// Measured: `0`
// Estimated: `0`
// Minimum execution time: 502_941_000 picoseconds.
Weight::from_parts(3_670_497, 0)
// Standard Error: 2_331
.saturating_add(Weight::from_parts(417_190, 0).saturating_mul(v.into()))
// Standard Error: 4_660
.saturating_add(Weight::from_parts(123_320, 0).saturating_mul(t.into()))
.saturating_add(T::DbWeight::get().writes(3_u64))
}
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionIndices` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionIndices` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionNextIndex` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionNextIndex` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SnapshotMetadata` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SnapshotMetadata` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionsMap` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionsMap` (`max_values`: None, `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::QueuedSolution` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::QueuedSolution` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::DesiredTargets` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::DesiredTargets` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Snapshot` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::Snapshot` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// The range of component `a` is `[500, 800]`.
/// The range of component `d` is `[200, 400]`.
fn elect_queued(a: u32, d: u32, ) -> Weight {
// Proof Size summary in bytes:
// Measured: `204 + a * (768 ±0) + d * (48 ±0)`
// Estimated: `3756 + a * (768 ±0) + d * (49 ±0)`
// Minimum execution time: 351_780_000 picoseconds.
Weight::from_parts(377_006_000, 3756)
// Standard Error: 8_676
.saturating_add(Weight::from_parts(497_086, 0).saturating_mul(a.into()))
.saturating_add(T::DbWeight::get().reads(7_u64))
.saturating_add(T::DbWeight::get().writes(8_u64))
.saturating_add(Weight::from_parts(0, 768).saturating_mul(a.into()))
.saturating_add(Weight::from_parts(0, 49).saturating_mul(d.into()))
}
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SnapshotMetadata` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::SnapshotMetadata` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionIndices` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionIndices` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionNextIndex` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionNextIndex` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionsMap` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionsMap` (`max_values`: None, `max_size`: None, mode: `Measured`)
fn submit() -> Weight {
// Proof Size summary in bytes:
// Measured: `683`
// Estimated: `2168`
// Minimum execution time: 40_602_000 picoseconds.
Weight::from_parts(41_937_000, 2168)
.saturating_add(T::DbWeight::get().reads(5_u64))
.saturating_add(T::DbWeight::get().writes(3_u64))
}
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::DesiredTargets` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::DesiredTargets` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::QueuedSolution` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::QueuedSolution` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SnapshotMetadata` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::SnapshotMetadata` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Snapshot` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Snapshot` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::MinimumUntrustedScore` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::MinimumUntrustedScore` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// The range of component `v` is `[1000, 2000]`.
/// The range of component `t` is `[500, 1000]`.
/// The range of component `a` is `[500, 800]`.
/// The range of component `d` is `[200, 400]`.
fn submit_unsigned(v: u32, t: u32, a: u32, _d: u32, ) -> Weight {
// Proof Size summary in bytes:
// Measured: `89 + t * (32 ±0) + v * (553 ±0)`
// Estimated: `1574 + t * (32 ±0) + v * (553 ±0)`
// Minimum execution time: 5_664_045_000 picoseconds.
Weight::from_parts(5_771_637_000, 1574)
// Standard Error: 18_838
.saturating_add(Weight::from_parts(202_471, 0).saturating_mul(v.into()))
// Standard Error: 55_824
.saturating_add(Weight::from_parts(4_436_597, 0).saturating_mul(a.into()))
.saturating_add(T::DbWeight::get().reads(7_u64))
.saturating_add(T::DbWeight::get().writes(1_u64))
.saturating_add(Weight::from_parts(0, 32).saturating_mul(t.into()))
.saturating_add(Weight::from_parts(0, 553).saturating_mul(v.into()))
}
/// Storage: `ElectionProviderMultiPhase::DesiredTargets` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::DesiredTargets` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Snapshot` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Snapshot` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::MinimumUntrustedScore` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::MinimumUntrustedScore` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// The range of component `v` is `[1000, 2000]`.
/// The range of component `t` is `[500, 1000]`.
/// The range of component `a` is `[500, 800]`.
/// The range of component `d` is `[200, 400]`.
fn feasibility_check(v: u32, t: u32, a: u32, _d: u32, ) -> Weight {
// Proof Size summary in bytes:
// Measured: `64 + t * (32 ±0) + v * (553 ±0)`
// Estimated: `1549 + t * (32 ±0) + v * (553 ±0)`
// Minimum execution time: 4_805_475_000 picoseconds.
Weight::from_parts(4_914_697_000, 1549)
// Standard Error: 18_827
.saturating_add(Weight::from_parts(384_743, 0).saturating_mul(v.into()))
// Standard Error: 55_792
.saturating_add(Weight::from_parts(2_733_267, 0).saturating_mul(a.into()))
.saturating_add(T::DbWeight::get().reads(4_u64))
.saturating_add(Weight::from_parts(0, 32).saturating_mul(t.into()))
.saturating_add(Weight::from_parts(0, 553).saturating_mul(v.into()))
}
}
// For backwards compatibility and tests.
impl WeightInfo for () {
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
fn on_initialize_nothing() -> Weight {
// Proof Size summary in bytes:
// Measured: `0`
// Estimated: `1485`
// Minimum execution time: 1_355_000 picoseconds.
Weight::from_parts(1_403_000, 1485)
.saturating_add(RocksDbWeight::get().reads(1_u64))
}
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
fn on_initialize_open_signed() -> Weight {
// Proof Size summary in bytes:
// Measured: `0`
// Estimated: `1485`
// Minimum execution time: 5_350_000 picoseconds.
Weight::from_parts(5_507_000, 1485)
.saturating_add(RocksDbWeight::get().reads(2_u64))
.saturating_add(RocksDbWeight::get().writes(1_u64))
}
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
fn on_initialize_open_unsigned() -> Weight {
// Proof Size summary in bytes:
// Measured: `0`
// Estimated: `1485`
// Minimum execution time: 6_110_000 picoseconds.
Weight::from_parts(6_312_000, 1485)
.saturating_add(RocksDbWeight::get().reads(2_u64))
.saturating_add(RocksDbWeight::get().writes(1_u64))
}
/// Storage: `System::Account` (r:1 w:1)
/// Proof: `System::Account` (`max_values`: None, `max_size`: Some(128), added: 2603, mode: `MaxEncodedLen`)
/// Storage: `ElectionProviderMultiPhase::QueuedSolution` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::QueuedSolution` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
fn finalize_signed_phase_accept_solution() -> Weight {
// Proof Size summary in bytes:
// Measured: `52`
// Estimated: `3593`
// Minimum execution time: 24_085_000 picoseconds.
Weight::from_parts(24_495_000, 3593)
.saturating_add(RocksDbWeight::get().reads(1_u64))
.saturating_add(RocksDbWeight::get().writes(2_u64))
}
/// Storage: `System::Account` (r:1 w:1)
/// Proof: `System::Account` (`max_values`: None, `max_size`: Some(128), added: 2603, mode: `MaxEncodedLen`)
fn finalize_signed_phase_reject_solution() -> Weight {
// Proof Size summary in bytes:
// Measured: `52`
// Estimated: `3593`
// Minimum execution time: 16_509_000 picoseconds.
Weight::from_parts(17_064_000, 3593)
.saturating_add(RocksDbWeight::get().reads(1_u64))
.saturating_add(RocksDbWeight::get().writes(1_u64))
}
/// Storage: `ElectionProviderMultiPhase::SnapshotMetadata` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::SnapshotMetadata` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::DesiredTargets` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::DesiredTargets` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Snapshot` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::Snapshot` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// The range of component `v` is `[1000, 2000]`.
/// The range of component `t` is `[500, 1000]`.
fn create_snapshot_internal(v: u32, t: u32, ) -> Weight {
// Proof Size summary in bytes:
// Measured: `0`
// Estimated: `0`
// Minimum execution time: 502_941_000 picoseconds.
Weight::from_parts(3_670_497, 0)
// Standard Error: 2_331
.saturating_add(Weight::from_parts(417_190, 0).saturating_mul(v.into()))
// Standard Error: 4_660
.saturating_add(Weight::from_parts(123_320, 0).saturating_mul(t.into()))
.saturating_add(RocksDbWeight::get().writes(3_u64))
}
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionIndices` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionIndices` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionNextIndex` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionNextIndex` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SnapshotMetadata` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SnapshotMetadata` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionsMap` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionsMap` (`max_values`: None, `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::QueuedSolution` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::QueuedSolution` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::DesiredTargets` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::DesiredTargets` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Snapshot` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::Snapshot` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// The range of component `a` is `[500, 800]`.
/// The range of component `d` is `[200, 400]`.
fn elect_queued(a: u32, d: u32, ) -> Weight {
// Proof Size summary in bytes:
// Measured: `204 + a * (768 ±0) + d * (48 ±0)`
// Estimated: `3756 + a * (768 ±0) + d * (49 ±0)`
// Minimum execution time: 351_780_000 picoseconds.
Weight::from_parts(377_006_000, 3756)
// Standard Error: 8_676
.saturating_add(Weight::from_parts(497_086, 0).saturating_mul(a.into()))
.saturating_add(RocksDbWeight::get().reads(7_u64))
.saturating_add(RocksDbWeight::get().writes(8_u64))
.saturating_add(Weight::from_parts(0, 768).saturating_mul(a.into()))
.saturating_add(Weight::from_parts(0, 49).saturating_mul(d.into()))
}
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SnapshotMetadata` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::SnapshotMetadata` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionIndices` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionIndices` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionNextIndex` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionNextIndex` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SignedSubmissionsMap` (r:0 w:1)
/// Proof: `ElectionProviderMultiPhase::SignedSubmissionsMap` (`max_values`: None, `max_size`: None, mode: `Measured`)
fn submit() -> Weight {
// Proof Size summary in bytes:
// Measured: `683`
// Estimated: `2168`
// Minimum execution time: 40_602_000 picoseconds.
Weight::from_parts(41_937_000, 2168)
.saturating_add(RocksDbWeight::get().reads(5_u64))
.saturating_add(RocksDbWeight::get().writes(3_u64))
}
/// Storage: `ElectionProviderMultiPhase::CurrentPhase` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::CurrentPhase` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::DesiredTargets` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::DesiredTargets` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::QueuedSolution` (r:1 w:1)
/// Proof: `ElectionProviderMultiPhase::QueuedSolution` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::SnapshotMetadata` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::SnapshotMetadata` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Snapshot` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Snapshot` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::MinimumUntrustedScore` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::MinimumUntrustedScore` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// The range of component `v` is `[1000, 2000]`.
/// The range of component `t` is `[500, 1000]`.
/// The range of component `a` is `[500, 800]`.
/// The range of component `d` is `[200, 400]`.
fn submit_unsigned(v: u32, t: u32, a: u32, _d: u32, ) -> Weight {
// Proof Size summary in bytes:
// Measured: `89 + t * (32 ±0) + v * (553 ±0)`
// Estimated: `1574 + t * (32 ±0) + v * (553 ±0)`
// Minimum execution time: 5_664_045_000 picoseconds.
Weight::from_parts(5_771_637_000, 1574)
// Standard Error: 18_838
.saturating_add(Weight::from_parts(202_471, 0).saturating_mul(v.into()))
// Standard Error: 55_824
.saturating_add(Weight::from_parts(4_436_597, 0).saturating_mul(a.into()))
.saturating_add(RocksDbWeight::get().reads(7_u64))
.saturating_add(RocksDbWeight::get().writes(1_u64))
.saturating_add(Weight::from_parts(0, 32).saturating_mul(t.into()))
.saturating_add(Weight::from_parts(0, 553).saturating_mul(v.into()))
}
/// Storage: `ElectionProviderMultiPhase::DesiredTargets` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::DesiredTargets` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Snapshot` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Snapshot` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::Round` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::Round` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// Storage: `ElectionProviderMultiPhase::MinimumUntrustedScore` (r:1 w:0)
/// Proof: `ElectionProviderMultiPhase::MinimumUntrustedScore` (`max_values`: Some(1), `max_size`: None, mode: `Measured`)
/// The range of component `v` is `[1000, 2000]`.
/// The range of component `t` is `[500, 1000]`.
/// The range of component `a` is `[500, 800]`.
/// The range of component `d` is `[200, 400]`.
fn feasibility_check(v: u32, t: u32, a: u32, _d: u32, ) -> Weight {
// Proof Size summary in bytes:
// Measured: `64 + t * (32 ±0) + v * (553 ±0)`
// Estimated: `1549 + t * (32 ±0) + v * (553 ±0)`
// Minimum execution time: 4_805_475_000 picoseconds.
Weight::from_parts(4_914_697_000, 1549)
// Standard Error: 18_827
.saturating_add(Weight::from_parts(384_743, 0).saturating_mul(v.into()))
// Standard Error: 55_792
.saturating_add(Weight::from_parts(2_733_267, 0).saturating_mul(a.into()))
.saturating_add(RocksDbWeight::get().reads(4_u64))
.saturating_add(Weight::from_parts(0, 32).saturating_mul(t.into()))
.saturating_add(Weight::from_parts(0, 553).saturating_mul(v.into()))
}
}