Better Compiler Interface & Shared Compiler Objects (#156)

* Add leader and follower node assignment to test

* Update the compilers interface

* Fix Cargo machete

* Add reporting back to the compilers

* Remove the static testing target from the report

* Uncomment instrument macro

* Switch to a for loop when reporting cases

* Update compilers to use interior caching

* Update tests stream func

* Fix tests
This commit is contained in:
Omar
2025-08-28 18:03:45 +03:00
committed by GitHub
parent 8b1afc36a3
commit 7878f68c26
20 changed files with 600 additions and 948 deletions
+281 -449
View File
@@ -1,6 +1,7 @@
mod cached_compiler;
use std::{
borrow::Cow,
collections::{BTreeMap, HashMap},
io::{BufWriter, Write, stderr},
path::Path,
@@ -16,19 +17,20 @@ use anyhow::Context;
use clap::Parser;
use futures::stream;
use futures::{Stream, StreamExt};
use indexmap::IndexMap;
use indexmap::{IndexMap, indexmap};
use revive_dt_node_interaction::EthereumNode;
use revive_dt_report::{
NodeDesignation, ReportAggregator, Reporter, ReporterEvent, TestCaseStatus,
TestSpecificReporter, TestSpecifier,
};
use serde_json::{Value, json};
use temp_dir::TempDir;
use tokio::{join, try_join};
use tracing::{debug, info, info_span, instrument};
use tokio::try_join;
use tracing::{debug, error, info, info_span, instrument};
use tracing_appender::non_blocking::WorkerGuard;
use tracing_subscriber::{EnvFilter, FmtSubscriber};
use revive_dt_common::types::Mode;
use revive_dt_common::{iterators::EitherIter, types::Mode};
use revive_dt_compiler::{CompilerOutput, SolidityCompiler};
use revive_dt_config::*;
use revive_dt_core::{
@@ -48,17 +50,6 @@ use crate::cached_compiler::CachedCompiler;
static TEMP_DIR: LazyLock<TempDir> = LazyLock::new(|| TempDir::new().unwrap());
/// this represents a single "test"; a mode, path and collection of cases.
#[derive(Clone, Debug)]
struct Test<'a> {
metadata: &'a MetadataFile,
metadata_file_path: &'a Path,
mode: Mode,
case_idx: CaseIdx,
case: &'a Case,
reporter: TestSpecificReporter,
}
fn main() -> anyhow::Result<()> {
let (args, _guard) = init_cli().context("Failed to initialize CLI and tracing subscriber")?;
info!(
@@ -93,14 +84,9 @@ fn main() -> anyhow::Result<()> {
})
.collect::<Vec<_>>();
match &args.compile_only {
Some(platform) => {
compile_corpus(&args, &tests, platform, reporter, report_aggregator_task).await
}
None => execute_corpus(&args, &tests, reporter, report_aggregator_task)
.await
.context("Failed to execute corpus")?,
}
execute_corpus(&args, &tests, reporter, report_aggregator_task)
.await
.context("Failed to execute corpus")?;
Ok(())
};
@@ -185,8 +171,20 @@ where
L::Blockchain: revive_dt_node::Node + Send + Sync + 'static,
F::Blockchain: revive_dt_node::Node + Send + Sync + 'static,
{
let tests = prepare_tests::<L, F>(args, metadata_files, reporter.clone());
let driver_task = start_driver_task::<L, F>(args, tests)
let leader_nodes =
NodePool::<L::Blockchain>::new(args).context("Failed to initialize leader node pool")?;
let follower_nodes =
NodePool::<F::Blockchain>::new(args).context("Failed to initialize follower node pool")?;
let tests_stream = tests_stream(
args,
metadata_files.iter(),
&leader_nodes,
&follower_nodes,
reporter.clone(),
)
.await;
let driver_task = start_driver_task::<L, F>(args, tests_stream)
.await
.context("Failed to start driver task")?;
let cli_reporting_task = start_cli_reporting_task(reporter);
@@ -197,19 +195,21 @@ where
Ok(())
}
fn prepare_tests<'a, L, F>(
async fn tests_stream<'a, L, F>(
args: &Arguments,
metadata_files: &'a [MetadataFile],
metadata_files: impl IntoIterator<Item = &'a MetadataFile> + Clone,
leader_node_pool: &'a NodePool<L::Blockchain>,
follower_node_pool: &'a NodePool<F::Blockchain>,
reporter: Reporter,
) -> impl Stream<Item = Test<'a>>
) -> impl Stream<Item = Test<'a, L, F>>
where
L: Platform,
F: Platform,
L::Blockchain: revive_dt_node::Node + Send + Sync + 'static,
F::Blockchain: revive_dt_node::Node + Send + Sync + 'static,
{
let filtered_tests = metadata_files
.iter()
let tests = metadata_files
.into_iter()
.flat_map(|metadata_file| {
metadata_file
.cases
@@ -219,244 +219,120 @@ where
})
// Flatten over the modes, prefer the case modes over the metadata file modes.
.flat_map(|(metadata_file, case_idx, case)| {
case.modes
.as_ref()
.or(metadata_file.modes.as_ref())
.map(|modes| ParsedMode::many_to_modes(modes.iter()).collect::<Vec<_>>())
.unwrap_or(Mode::all().collect())
.into_iter()
.map(move |mode| (metadata_file, case_idx, case, mode))
})
.map(move |(metadata_file, case_idx, case, mode)| Test {
metadata: metadata_file,
metadata_file_path: metadata_file.metadata_file_path.as_path(),
mode: mode.clone(),
case_idx: CaseIdx::new(case_idx),
case,
reporter: reporter.test_specific_reporter(Arc::new(TestSpecifier {
solc_mode: mode.clone(),
metadata_file_path: metadata_file.metadata_file_path.clone(),
case_idx: CaseIdx::new(case_idx),
})),
})
.inspect(|test| {
test.reporter
.report_test_case_discovery_event()
.expect("Can't fail")
})
.collect::<Vec<_>>()
.into_iter()
// Filter the test out if the leader and follower do not support the target.
.filter(|test| {
let leader_support =
<L::Blockchain as Node>::matches_target(test.metadata.targets.as_deref());
let follower_support =
<F::Blockchain as Node>::matches_target(test.metadata.targets.as_deref());
let is_allowed = leader_support && follower_support;
let reporter = reporter.clone();
if !is_allowed {
debug!(
file_path = %test.metadata.relative_path().display(),
leader_support,
follower_support,
"Target is not supported, throwing metadata file out"
);
test
.reporter
.report_test_ignored_event(
"Either the leader or the follower do not support the target desired by the test",
IndexMap::from_iter([
(
"test_desired_targets".to_string(),
serde_json::to_value(test.metadata.targets.as_ref())
.expect("Can't fail")
),
(
"leader_support".to_string(),
serde_json::to_value(leader_support)
.expect("Can't fail")
),
(
"follower_support".to_string(),
serde_json::to_value(follower_support)
.expect("Can't fail")
)
])
)
.expect("Can't fail");
}
let modes = case.modes.as_ref().or(metadata_file.modes.as_ref());
let modes = match modes {
Some(modes) => EitherIter::A(
ParsedMode::many_to_modes(modes.iter()).map(Cow::<'static, _>::Owned),
),
None => EitherIter::B(Mode::all().map(Cow::<'static, _>::Borrowed)),
};
is_allowed
modes.into_iter().map(move |mode| {
(
metadata_file,
case_idx,
case,
mode.clone(),
reporter.test_specific_reporter(Arc::new(TestSpecifier {
solc_mode: mode.as_ref().clone(),
metadata_file_path: metadata_file.metadata_file_path.clone(),
case_idx: CaseIdx::new(case_idx),
})),
)
})
})
// Filter the test out if the metadata file is ignored.
.filter(|test| {
if test.metadata.ignore.is_some_and(|ignore| ignore) {
debug!(
file_path = %test.metadata.relative_path().display(),
"Metadata file is ignored, throwing case out"
);
test
.reporter
.report_test_ignored_event(
"Metadata file is ignored, therefore all cases are ignored",
IndexMap::new(),
)
.expect("Can't fail");
false
} else {
true
}
})
// Filter the test case if the case is ignored.
.filter(|test| {
if test.case.ignore.is_some_and(|ignore| ignore) {
debug!(
file_path = %test.metadata.relative_path().display(),
case_idx = %test.case_idx,
"Case is ignored, throwing case out"
);
test
.reporter
.report_test_ignored_event(
"Case is ignored",
IndexMap::new(),
)
.expect("Can't fail");
false
} else {
true
}
})
// Filtering based on the EVM version compatibility
.filter(|test| {
if let Some(evm_version_requirement) = test.metadata.required_evm_version {
let leader_compatibility = evm_version_requirement
.matches(&<L::Blockchain as revive_dt_node::Node>::evm_version());
let follower_compatibility = evm_version_requirement
.matches(&<F::Blockchain as revive_dt_node::Node>::evm_version());
let is_allowed = leader_compatibility && follower_compatibility;
.collect::<Vec<_>>();
if !is_allowed {
// Note: before we do any kind of filtering or process the iterator in any way, we need to
// inform the report aggregator of all of the cases that were found as it keeps a state of the
// test cases for its internal use.
for (_, _, _, _, reporter) in tests.iter() {
reporter
.report_test_case_discovery_event()
.expect("Can't fail")
}
stream::iter(tests.into_iter())
.filter_map(
move |(metadata_file, case_idx, case, mode, reporter)| async move {
let leader_compiler = <L::Compiler as SolidityCompiler>::new(
args,
mode.version.clone().map(Into::into),
)
.await
.inspect_err(|err| error!(?err, "Failed to instantiate the leader compiler"))
.ok()?;
let follower_compiler = <F::Compiler as SolidityCompiler>::new(
args,
mode.version.clone().map(Into::into),
)
.await
.inspect_err(|err| error!(?err, "Failed to instantiate the follower compiler"))
.ok()?;
let leader_node = leader_node_pool.round_robbin();
let follower_node = follower_node_pool.round_robbin();
Some(Test::<L, F> {
metadata: metadata_file,
metadata_file_path: metadata_file.metadata_file_path.as_path(),
mode: mode.clone(),
case_idx: CaseIdx::new(case_idx),
case,
leader_node,
follower_node,
leader_compiler,
follower_compiler,
reporter,
})
},
)
.filter_map(move |test| async move {
match test.check_compatibility() {
Ok(()) => Some(test),
Err((reason, additional_information)) => {
debug!(
file_path = %test.metadata.relative_path().display(),
metadata_file_path = %test.metadata.metadata_file_path.display(),
case_idx = %test.case_idx,
leader_compatibility,
follower_compatibility,
"EVM Version is incompatible, throwing case out"
mode = %test.mode,
reason,
additional_information =
serde_json::to_string(&additional_information).unwrap(),
"Ignoring Test Case"
);
test
.reporter
test.reporter
.report_test_ignored_event(
"EVM version is incompatible with either the leader or the follower",
IndexMap::from_iter([
(
"test_desired_evm_version".to_string(),
serde_json::to_value(test.metadata.required_evm_version)
.expect("Can't fail")
),
(
"leader_compatibility".to_string(),
serde_json::to_value(leader_compatibility)
.expect("Can't fail")
),
(
"follower_compatibility".to_string(),
serde_json::to_value(follower_compatibility)
.expect("Can't fail")
)
])
reason.to_string(),
additional_information
.into_iter()
.map(|(k, v)| (k.into(), v))
.collect::<IndexMap<_, _>>(),
)
.expect("Can't fail");
None
}
is_allowed
} else {
true
}
});
stream::iter(filtered_tests)
// Filter based on the compiler compatibility
.filter_map(move |test| async move {
let leader_support = does_compiler_support_mode::<L>(args, &test.mode)
.await
.ok()
.unwrap_or(false);
let follower_support = does_compiler_support_mode::<F>(args, &test.mode)
.await
.ok()
.unwrap_or(false);
let is_allowed = leader_support && follower_support;
if !is_allowed {
debug!(
file_path = %test.metadata.relative_path().display(),
leader_support,
follower_support,
"Compilers do not support this, throwing case out"
);
test
.reporter
.report_test_ignored_event(
"Compilers do not support this mode either for the leader or for the follower.",
IndexMap::from_iter([
(
"leader_support".to_string(),
serde_json::to_value(leader_support)
.expect("Can't fail")
),
(
"follower_support".to_string(),
serde_json::to_value(follower_support)
.expect("Can't fail")
)
])
)
.expect("Can't fail");
}
is_allowed.then_some(test)
})
}
async fn does_compiler_support_mode<P: Platform>(
args: &Arguments,
mode: &Mode,
) -> anyhow::Result<bool> {
let compiler_version_or_requirement = mode.compiler_version_to_use(args.solc.clone());
let compiler_path = P::Compiler::get_compiler_executable(args, compiler_version_or_requirement)
.await
.context("Failed to obtain compiler executable path")?;
let compiler_version = P::Compiler::new(compiler_path.clone())
.version()
.await
.context("Failed to query compiler version")?;
Ok(P::Compiler::supports_mode(
&compiler_version,
mode.optimize_setting,
mode.pipeline,
))
}
async fn start_driver_task<'a, L, F>(
args: &Arguments,
tests: impl Stream<Item = Test<'a>>,
tests: impl Stream<Item = Test<'a, L, F>>,
) -> anyhow::Result<impl Future<Output = ()>>
where
L: Platform,
F: Platform,
L::Blockchain: revive_dt_node::Node + Send + Sync + 'static,
F::Blockchain: revive_dt_node::Node + Send + Sync + 'static,
L::Compiler: 'a,
F::Compiler: 'a,
{
info!("Starting driver task");
let leader_nodes = Arc::new(
NodePool::<L::Blockchain>::new(args).context("Failed to initialize leader node pool")?,
);
let follower_nodes = Arc::new(
NodePool::<F::Blockchain>::new(args).context("Failed to initialize follower node pool")?,
);
let number_concurrent_tasks = args.number_of_concurrent_tasks();
let cached_compiler = Arc::new(
CachedCompiler::new(
@@ -477,38 +353,26 @@ where
// this number will automatically be low enough to address (2). The user can override this.
Some(number_concurrent_tasks),
move |test| {
let leader_nodes = leader_nodes.clone();
let follower_nodes = follower_nodes.clone();
let cached_compiler = cached_compiler.clone();
async move {
let leader_node = leader_nodes.round_robbin();
let follower_node = follower_nodes.round_robbin();
test.reporter
.report_leader_node_assigned_event(
leader_node.id(),
L::config_id(),
leader_node.connection_string(),
test.leader_node.id(),
*L::config_id(),
test.leader_node.connection_string(),
)
.expect("Can't fail");
test.reporter
.report_follower_node_assigned_event(
follower_node.id(),
F::config_id(),
follower_node.connection_string(),
test.follower_node.id(),
*F::config_id(),
test.follower_node.connection_string(),
)
.expect("Can't fail");
let reporter = test.reporter.clone();
let result = handle_case_driver::<L, F>(
test,
args,
cached_compiler,
leader_node,
follower_node,
)
.await;
let result = handle_case_driver::<L, F>(test, cached_compiler).await;
match result {
Ok(steps_executed) => reporter
@@ -615,99 +479,52 @@ async fn start_cli_reporting_task(reporter: Reporter) {
mode = %test.mode,
case_idx = %test.case_idx,
case_name = test.case.name.as_deref().unwrap_or("Unnamed Case"),
leader_node = leader_node.id(),
follower_node = follower_node.id(),
leader_node = test.leader_node.id(),
follower_node = test.follower_node.id(),
)
)]
async fn handle_case_driver<L, F>(
test: Test<'_>,
config: &Arguments,
cached_compiler: Arc<CachedCompiler>,
leader_node: &L::Blockchain,
follower_node: &F::Blockchain,
async fn handle_case_driver<'a, L, F>(
test: Test<'a, L, F>,
cached_compiler: Arc<CachedCompiler<'a>>,
) -> anyhow::Result<usize>
where
L: Platform,
F: Platform,
L::Blockchain: revive_dt_node::Node + Send + Sync + 'static,
F::Blockchain: revive_dt_node::Node + Send + Sync + 'static,
L::Compiler: 'a,
F::Compiler: 'a,
{
let leader_reporter = test
.reporter
.execution_specific_reporter(leader_node.id(), NodeDesignation::Leader);
.execution_specific_reporter(test.leader_node.id(), NodeDesignation::Leader);
let follower_reporter = test
.reporter
.execution_specific_reporter(follower_node.id(), NodeDesignation::Follower);
.execution_specific_reporter(test.follower_node.id(), NodeDesignation::Follower);
let (
(
CompilerOutput {
contracts: leader_pre_link_contracts,
},
_,
),
(
CompilerOutput {
contracts: follower_pre_link_contracts,
},
_,
),
CompilerOutput {
contracts: leader_pre_link_contracts,
},
CompilerOutput {
contracts: follower_pre_link_contracts,
},
) = try_join!(
cached_compiler.compile_contracts::<L>(
test.metadata,
test.metadata_file_path,
&test.mode,
config,
test.mode.clone(),
None,
|compiler_version, compiler_path, is_cached, compiler_input, compiler_output| {
leader_reporter
.report_pre_link_contracts_compilation_succeeded_event(
compiler_version,
compiler_path,
is_cached,
compiler_input,
compiler_output,
)
.expect("Can't fail")
},
|compiler_version, compiler_path, compiler_input, failure_reason| {
leader_reporter
.report_pre_link_contracts_compilation_failed_event(
compiler_version,
compiler_path,
compiler_input,
failure_reason,
)
.expect("Can't fail")
}
&test.leader_compiler,
&leader_reporter,
),
cached_compiler.compile_contracts::<F>(
test.metadata,
test.metadata_file_path,
&test.mode,
config,
test.mode.clone(),
None,
|compiler_version, compiler_path, is_cached, compiler_input, compiler_output| {
follower_reporter
.report_pre_link_contracts_compilation_succeeded_event(
compiler_version,
compiler_path,
is_cached,
compiler_input,
compiler_output,
)
.expect("Can't fail")
},
|compiler_version, compiler_path, compiler_input, failure_reason| {
follower_reporter
.report_pre_link_contracts_compilation_failed_event(
compiler_version,
compiler_path,
compiler_input,
failure_reason,
)
.expect("Can't fail")
}
&test.follower_compiler,
&follower_reporter
)
)
.context("Failed to compile pre-link contracts for leader/follower in parallel")?;
@@ -780,8 +597,8 @@ where
);
let (leader_receipt, follower_receipt) = try_join!(
leader_node.execute_transaction(leader_tx),
follower_node.execute_transaction(follower_tx)
test.leader_node.execute_transaction(leader_tx),
test.follower_node.execute_transaction(follower_tx)
)?;
debug!(
@@ -839,86 +656,40 @@ where
}
let (
(
CompilerOutput {
contracts: leader_post_link_contracts,
},
leader_compiler_version,
),
(
CompilerOutput {
contracts: follower_post_link_contracts,
},
follower_compiler_version,
),
CompilerOutput {
contracts: leader_post_link_contracts,
},
CompilerOutput {
contracts: follower_post_link_contracts,
},
) = try_join!(
cached_compiler.compile_contracts::<L>(
test.metadata,
test.metadata_file_path,
&test.mode,
config,
test.mode.clone(),
leader_deployed_libraries.as_ref(),
|compiler_version, compiler_path, is_cached, compiler_input, compiler_output| {
leader_reporter
.report_post_link_contracts_compilation_succeeded_event(
compiler_version,
compiler_path,
is_cached,
compiler_input,
compiler_output,
)
.expect("Can't fail")
},
|compiler_version, compiler_path, compiler_input, failure_reason| {
leader_reporter
.report_post_link_contracts_compilation_failed_event(
compiler_version,
compiler_path,
compiler_input,
failure_reason,
)
.expect("Can't fail")
}
&test.leader_compiler,
&leader_reporter,
),
cached_compiler.compile_contracts::<F>(
test.metadata,
test.metadata_file_path,
&test.mode,
config,
test.mode.clone(),
follower_deployed_libraries.as_ref(),
|compiler_version, compiler_path, is_cached, compiler_input, compiler_output| {
follower_reporter
.report_post_link_contracts_compilation_succeeded_event(
compiler_version,
compiler_path,
is_cached,
compiler_input,
compiler_output,
)
.expect("Can't fail")
},
|compiler_version, compiler_path, compiler_input, failure_reason| {
follower_reporter
.report_post_link_contracts_compilation_failed_event(
compiler_version,
compiler_path,
compiler_input,
failure_reason,
)
.expect("Can't fail")
}
&test.follower_compiler,
&follower_reporter
)
)
.context("Failed to compile post-link contracts for leader/follower in parallel")?;
let leader_state = CaseState::<L>::new(
leader_compiler_version,
test.leader_compiler.version().clone(),
leader_post_link_contracts,
leader_deployed_libraries.unwrap_or_default(),
leader_reporter,
);
let follower_state = CaseState::<F>::new(
follower_compiler_version,
test.follower_compiler.version().clone(),
follower_post_link_contracts,
follower_deployed_libraries.unwrap_or_default(),
follower_reporter,
@@ -927,8 +698,8 @@ where
let mut driver = CaseDriver::<L, F>::new(
test.metadata,
test.case,
leader_node,
follower_node,
test.leader_node,
test.follower_node,
leader_state,
follower_state,
);
@@ -957,60 +728,121 @@ async fn execute_corpus(
Ok(())
}
async fn compile_corpus(
config: &Arguments,
tests: &[MetadataFile],
platform: &TestingPlatform,
_: Reporter,
report_aggregator_task: impl Future<Output = anyhow::Result<()>>,
) {
let tests = tests.iter().flat_map(|metadata| {
metadata
.solc_modes()
.into_iter()
.map(move |solc_mode| (metadata, solc_mode))
});
let file = tempfile::NamedTempFile::new().expect("Failed to create temp file");
let cached_compiler = CachedCompiler::new(file.path(), false)
.await
.map(Arc::new)
.expect("Failed to create the cached compiler");
let compilation_task =
futures::stream::iter(tests).for_each_concurrent(None, |(metadata, mode)| {
let cached_compiler = cached_compiler.clone();
async move {
match platform {
TestingPlatform::Geth => {
let _ = cached_compiler
.compile_contracts::<Geth>(
metadata,
metadata.metadata_file_path.as_path(),
&mode,
config,
None,
|_, _, _, _, _| {},
|_, _, _, _| {},
)
.await;
}
TestingPlatform::Kitchensink => {
let _ = cached_compiler
.compile_contracts::<Kitchensink>(
metadata,
metadata.metadata_file_path.as_path(),
&mode,
config,
None,
|_, _, _, _, _| {},
|_, _, _, _| {},
)
.await;
}
}
}
});
let _ = join!(compilation_task, report_aggregator_task);
/// this represents a single "test"; a mode, path and collection of cases.
#[derive(Clone)]
struct Test<'a, L: Platform, F: Platform> {
metadata: &'a MetadataFile,
metadata_file_path: &'a Path,
mode: Cow<'a, Mode>,
case_idx: CaseIdx,
case: &'a Case,
leader_node: &'a <L as Platform>::Blockchain,
follower_node: &'a <F as Platform>::Blockchain,
leader_compiler: L::Compiler,
follower_compiler: F::Compiler,
reporter: TestSpecificReporter,
}
impl<'a, L: Platform, F: Platform> Test<'a, L, F> {
/// Checks if this test can be ran with the current configuration.
pub fn check_compatibility(&self) -> TestCheckFunctionResult {
self.check_metadata_file_ignored()?;
self.check_case_file_ignored()?;
self.check_target_compatibility()?;
self.check_evm_version_compatibility()?;
self.check_compiler_compatibility()?;
Ok(())
}
/// Checks if the metadata file is ignored or not.
fn check_metadata_file_ignored(&self) -> TestCheckFunctionResult {
if self.metadata.ignore.is_some_and(|ignore| ignore) {
Err(("Metadata file is ignored.", indexmap! {}))
} else {
Ok(())
}
}
/// Checks if the case file is ignored or not.
fn check_case_file_ignored(&self) -> TestCheckFunctionResult {
if self.case.ignore.is_some_and(|ignore| ignore) {
Err(("Case is ignored.", indexmap! {}))
} else {
Ok(())
}
}
/// Checks if the leader and the follower both support the desired targets in the metadata file.
fn check_target_compatibility(&self) -> TestCheckFunctionResult {
let leader_support =
<L::Blockchain as Node>::matches_target(self.metadata.targets.as_deref());
let follower_support =
<F::Blockchain as Node>::matches_target(self.metadata.targets.as_deref());
let is_allowed = leader_support && follower_support;
if is_allowed {
Ok(())
} else {
Err((
"Either the leader or the follower do not support the target desired by the test.",
indexmap! {
"test_desired_targets" => json!(self.metadata.targets.as_ref()),
"leader_support" => json!(leader_support),
"follower_support" => json!(follower_support),
},
))
}
}
// Checks for the compatibility of the EVM version with the leader and follower nodes.
fn check_evm_version_compatibility(&self) -> TestCheckFunctionResult {
let Some(evm_version_requirement) = self.metadata.required_evm_version else {
return Ok(());
};
let leader_support = evm_version_requirement
.matches(&<L::Blockchain as revive_dt_node::Node>::evm_version());
let follower_support = evm_version_requirement
.matches(&<F::Blockchain as revive_dt_node::Node>::evm_version());
let is_allowed = leader_support && follower_support;
if is_allowed {
Ok(())
} else {
Err((
"EVM version is incompatible with either the leader or the follower.",
indexmap! {
"test_desired_evm_version" => json!(self.metadata.required_evm_version),
"leader_support" => json!(leader_support),
"follower_support" => json!(follower_support),
},
))
}
}
/// Checks if the leader and follower compilers support the mode that the test is for.
fn check_compiler_compatibility(&self) -> TestCheckFunctionResult {
let leader_support = self
.leader_compiler
.supports_mode(self.mode.optimize_setting, self.mode.pipeline);
let follower_support = self
.follower_compiler
.supports_mode(self.mode.optimize_setting, self.mode.pipeline);
let is_allowed = leader_support && follower_support;
if is_allowed {
Ok(())
} else {
Err((
"Compilers do not support this mode either for the leader or for the follower.",
indexmap! {
"mode" => json!(self.mode),
"leader_support" => json!(leader_support),
"follower_support" => json!(follower_support),
},
))
}
}
}
type TestCheckFunctionResult = Result<(), (&'static str, IndexMap<&'static str, Value>)>;