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Only run runtime_core tests on Android

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This commit is contained in:
Mark McCaskey
2020-04-06 14:13:54 -07:00
parent 9d312f4500
commit b6011d5dc4
3 changed files with 241 additions and 235 deletions
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2
Makefile
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@ -169,7 +169,7 @@ test: spectests emtests middleware wasitests test-rest examples
test-android:
ci/run-docker.sh x86_64-linux-android --manifest-path=lib/singlepass-backend/Cargo.toml
ci/run-docker.sh x86_64-linux-android
ci/run-docker.sh x86_64-linux-android runtime_core
# Integration tests
integration-tests: release-clif examples

24
tests/exception_handling.rs
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@ -1,23 +1,25 @@
mod runtime_core_tests;
use runtime_core_tests::{get_compiler, wat2wasm};
use wasmer_runtime_core::{compile_with, imports};
pub mod runtime_core_exception_handling {
use super::runtime_core_tests::{get_compiler, wat2wasm};
use wasmer_runtime_core::{compile_with, imports};
#[test]
fn exception_handling_works() {
const MODULE: &str = r#"
#[test]
fn exception_handling_works() {
const MODULE: &str = r#"
(module
(func (export "throw_trap")
unreachable
))
"#;
let wasm_binary = wat2wasm(MODULE.as_bytes()).expect("WAST not valid or malformed");
let module = compile_with(&wasm_binary, &get_compiler()).unwrap();
let wasm_binary = wat2wasm(MODULE.as_bytes()).expect("WAST not valid or malformed");
let module = compile_with(&wasm_binary, &get_compiler()).unwrap();
let imports = imports! {};
for _ in 0..2 {
let instance = module.instantiate(&imports).unwrap();
assert!(instance.call("throw_trap", &[]).is_err());
let imports = imports! {};
for _ in 0..2 {
let instance = module.instantiate(&imports).unwrap();
assert!(instance.call("throw_trap", &[]).is_err());
}
}
}

450
tests/imports.rs
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@ -1,22 +1,25 @@
mod runtime_core_tests;
use runtime_core_tests::{get_compiler, wat2wasm};
use std::{convert::TryInto, sync::Arc};
use wasmer_runtime_core::{
compile_with,
error::RuntimeError,
global::Global,
imports,
memory::Memory,
typed_func::{DynamicFunc, Func},
types::{FuncSig, MemoryDescriptor, Type, Value},
units::Pages,
vm, DynFunc, Instance,
};
#[cfg(test)]
pub mod runtime_core_imports {
#[test]
fn new_api_works() {
let wasm = r#"
use super::runtime_core_tests::{get_compiler, wat2wasm};
use std::{convert::TryInto, sync::Arc};
use wasmer_runtime_core::{
compile_with,
error::RuntimeError,
global::Global,
imports,
memory::Memory,
typed_func::{DynamicFunc, Func},
types::{FuncSig, MemoryDescriptor, Type, Value},
units::Pages,
vm, DynFunc, Instance,
};
#[test]
fn runtime_core_new_api_works() {
let wasm = r#"
(module
(type $type (func (param i32) (result i32)))
(global (export "my_global") i32 (i32.const 45))
@ -27,22 +30,22 @@ fn new_api_works() {
(i32.mul (get_local 0)
(i32.const 2)))
)"#;
let wasm_binary = wat2wasm(wasm.as_bytes()).expect("WAST not valid or malformed");
let module = compile_with(&wasm_binary, &get_compiler()).unwrap();
let import_object = imports! {};
let instance = module.instantiate(&import_object).unwrap();
let wasm_binary = wat2wasm(wasm.as_bytes()).expect("WAST not valid or malformed");
let module = compile_with(&wasm_binary, &get_compiler()).unwrap();
let import_object = imports! {};
let instance = module.instantiate(&import_object).unwrap();
let my_global: Global = instance.exports.get("my_global").unwrap();
assert_eq!(my_global.get(), Value::I32(45));
let double: Func<i32, i32> = instance.exports.get("double").unwrap();
assert_eq!(double.call(5).unwrap(), 10);
let add_one: DynFunc = instance.exports.get("add_one").unwrap();
assert_eq!(add_one.call(&[Value::I32(5)]).unwrap(), &[Value::I32(6)]);
let add_one_memory: Result<DynFunc, _> = instance.exports.get("my_global");
assert!(add_one_memory.is_err());
}
let my_global: Global = instance.exports.get("my_global").unwrap();
assert_eq!(my_global.get(), Value::I32(45));
let double: Func<i32, i32> = instance.exports.get("double").unwrap();
assert_eq!(double.call(5).unwrap(), 10);
let add_one: DynFunc = instance.exports.get("add_one").unwrap();
assert_eq!(add_one.call(&[Value::I32(5)]).unwrap(), &[Value::I32(6)]);
let add_one_memory: Result<DynFunc, _> = instance.exports.get("my_global");
assert!(add_one_memory.is_err());
}
macro_rules! call_and_assert {
macro_rules! call_and_assert {
($instance:ident, $function:ident( $( $inputs:ty ),* ) -> $output:ty, ( $( $arguments:expr ),* ) == $expected_value:expr) => {
#[allow(unused_parens)]
let $function: Func<( $( $inputs ),* ), $output> = $instance.exports.get(stringify!($function)).expect(concat!("Failed to get the `", stringify!($function), "` export function."));
@ -89,20 +92,20 @@ macro_rules! call_and_assert {
};
}
/// The shift that is set in the instance memory. The value is part of
/// the result returned by the imported functions if the memory is
/// read properly.
const SHIFT: i32 = 10;
/// The shift that is set in the instance memory. The value is part of
/// the result returned by the imported functions if the memory is
/// read properly.
const SHIFT: i32 = 10;
/// The shift that is captured in the environment of a closure. The
/// value is part of the result returned by the imported function if
/// the closure captures its environment properly.
#[allow(non_upper_case_globals)]
const shift: i32 = 100;
/// The shift that is captured in the environment of a closure. The
/// value is part of the result returned by the imported function if
/// the closure captures its environment properly.
#[allow(non_upper_case_globals)]
const shift: i32 = 100;
#[cfg(all(unix, target_arch = "x86_64"))]
fn imported_functions_forms(test: &dyn Fn(&Instance)) {
const MODULE: &str = r#"
#[cfg(all(unix, target_arch = "x86_64"))]
fn imported_functions_forms(test: &dyn Fn(&Instance)) {
const MODULE: &str = r#"
(module
(type $type (func (param i32) (result i32)))
(import "env" "memory" (memory 1 1))
@ -203,194 +206,194 @@ fn imported_functions_forms(test: &dyn Fn(&Instance)) {
call $callback_closure_trap_with_vmctx_and_env))
"#;
let wasm_binary = wat2wasm(MODULE.as_bytes()).expect("WAST not valid or malformed");
let module = compile_with(&wasm_binary, &get_compiler()).unwrap();
let memory_descriptor = MemoryDescriptor::new(Pages(1), Some(Pages(1)), false).unwrap();
let memory = Memory::new(memory_descriptor).unwrap();
let wasm_binary = wat2wasm(MODULE.as_bytes()).expect("WAST not valid or malformed");
let module = compile_with(&wasm_binary, &get_compiler()).unwrap();
let memory_descriptor = MemoryDescriptor::new(Pages(1), Some(Pages(1)), false).unwrap();
let memory = Memory::new(memory_descriptor).unwrap();
memory.view()[0].set(SHIFT);
memory.view()[0].set(SHIFT);
let import_object = imports! {
"env" => {
"memory" => memory.clone(),
let import_object = imports! {
"env" => {
"memory" => memory.clone(),
// Regular function.
"callback_fn" => Func::new(callback_fn),
// Regular function.
"callback_fn" => Func::new(callback_fn),
// Closure without a captured environment.
"callback_closure" => Func::new(|n: i32| -> Result<i32, ()> {
Ok(n + 1)
}),
// Closure without a captured environment.
"callback_closure" => Func::new(|n: i32| -> Result<i32, ()> {
Ok(n + 1)
}),
// Regular polymorphic function.
"callback_fn_dynamic" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32], vec![Type::I32])),
callback_fn_dynamic,
),
// Regular polymorphic function.
"callback_fn_dynamic" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32], vec![Type::I32])),
callback_fn_dynamic,
),
// Polymorphic function that panics.
"callback_fn_dynamic_panic" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32], vec![Type::I32])),
callback_fn_dynamic_panic,
),
// Polymorphic function that panics.
"callback_fn_dynamic_panic" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32], vec![Type::I32])),
callback_fn_dynamic_panic,
),
// Polymorphic closure “closures”.
"callback_closure_dynamic_0" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![], vec![])),
|_, inputs: &[Value]| -> Vec<Value> {
assert!(inputs.is_empty());
// Polymorphic closure “closures”.
"callback_closure_dynamic_0" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![], vec![])),
|_, inputs: &[Value]| -> Vec<Value> {
assert!(inputs.is_empty());
vec![]
}
),
"callback_closure_dynamic_1" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32], vec![Type::I32])),
move |vmctx: &mut vm::Ctx, inputs: &[Value]| -> Vec<Value> {
assert_eq!(inputs.len(), 1);
vec![]
}
),
"callback_closure_dynamic_1" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32], vec![Type::I32])),
move |vmctx: &mut vm::Ctx, inputs: &[Value]| -> Vec<Value> {
assert_eq!(inputs.len(), 1);
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
let n: i32 = (&inputs[0]).try_into().unwrap();
vec![Value::I32(shift_ + n)]
}
),
"callback_closure_dynamic_2" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32, Type::I64], vec![Type::I64])),
move |vmctx: &mut vm::Ctx, inputs: &[Value]| -> Vec<Value> {
assert_eq!(inputs.len(), 2);
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
let i: i32 = (&inputs[0]).try_into().unwrap();
let j: i64 = (&inputs[1]).try_into().unwrap();
vec![Value::I64(shift_ as i64 + i as i64 + j)]
}
),
"callback_closure_dynamic_3" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32, Type::I64, Type::F32], vec![Type::F32])),
move |vmctx: &mut vm::Ctx, inputs: &[Value]| -> Vec<Value> {
assert_eq!(inputs.len(), 3);
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
let i: i32 = (&inputs[0]).try_into().unwrap();
let j: i64 = (&inputs[1]).try_into().unwrap();
let k: f32 = (&inputs[2]).try_into().unwrap();
vec![Value::F32(shift_ as f32 + i as f32 + j as f32 + k)]
}
),
"callback_closure_dynamic_4" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32, Type::I64, Type::F32, Type::F64], vec![Type::F64])),
move |vmctx: &mut vm::Ctx, inputs: &[Value]| -> Vec<Value> {
assert_eq!(inputs.len(), 4);
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
let i: i32 = (&inputs[0]).try_into().unwrap();
let j: i64 = (&inputs[1]).try_into().unwrap();
let k: f32 = (&inputs[2]).try_into().unwrap();
let l: f64 = (&inputs[3]).try_into().unwrap();
vec![Value::F64(shift_ as f64 + i as f64 + j as f64 + k as f64 + l)]
}
),
// Closure with a captured environment (a single variable + an instance of `Memory`).
"callback_closure_with_env" => Func::new(move |n: i32| -> Result<i32, ()> {
let shift_ = shift + memory.view::<i32>()[0].get();
Ok(shift_ + n + 1)
}),
// Regular function with an explicit `vmctx`.
"callback_fn_with_vmctx" => Func::new(callback_fn_with_vmctx),
// Closure without a captured environment but with an explicit `vmctx`.
"callback_closure_with_vmctx" => Func::new(|vmctx: &mut vm::Ctx, n: i32| -> Result<i32, ()> {
let memory = vmctx.memory(0);
let shift_: i32 = memory.view()[0].get();
Ok(shift_ + n + 1)
}),
// Closure with a captured environment (a single variable) and with an explicit `vmctx`.
"callback_closure_with_vmctx_and_env" => Func::new(move |vmctx: &mut vm::Ctx, n: i32| -> Result<i32, ()> {
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
let n: i32 = (&inputs[0]).try_into().unwrap();
vec![Value::I32(shift_ + n)]
}
),
"callback_closure_dynamic_2" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32, Type::I64], vec![Type::I64])),
move |vmctx: &mut vm::Ctx, inputs: &[Value]| -> Vec<Value> {
assert_eq!(inputs.len(), 2);
Ok(shift_ + n + 1)
}),
// Trap a regular function.
"callback_fn_trap" => Func::new(callback_fn_trap),
// Trap a closure without a captured environment.
"callback_closure_trap" => Func::new(|n: i32| -> Result<i32, String> {
Err(format!("bar {}", n + 1))
}),
// Trap a regular function with an explicit `vmctx`.
"callback_fn_trap_with_vmctx" => Func::new(callback_fn_trap_with_vmctx),
// Trap a closure without a captured environment but with an explicit `vmctx`.
"callback_closure_trap_with_vmctx" => Func::new(|vmctx: &mut vm::Ctx, n: i32| -> Result<i32, String> {
let memory = vmctx.memory(0);
let shift_: i32 = memory.view()[0].get();
Err(format!("qux {}", shift_ + n + 1))
}),
// Trap a closure with a captured environment (a single variable) and with an explicit `vmctx`.
"callback_closure_trap_with_vmctx_and_env" => Func::new(move |vmctx: &mut vm::Ctx, n: i32| -> Result<i32, String> {
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
let i: i32 = (&inputs[0]).try_into().unwrap();
let j: i64 = (&inputs[1]).try_into().unwrap();
vec![Value::I64(shift_ as i64 + i as i64 + j)]
}
),
"callback_closure_dynamic_3" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32, Type::I64, Type::F32], vec![Type::F32])),
move |vmctx: &mut vm::Ctx, inputs: &[Value]| -> Vec<Value> {
assert_eq!(inputs.len(), 3);
Err(format!("! {}", shift_ + n + 1))
}),
},
};
let instance = module.instantiate(&import_object).unwrap();
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
let i: i32 = (&inputs[0]).try_into().unwrap();
let j: i64 = (&inputs[1]).try_into().unwrap();
let k: f32 = (&inputs[2]).try_into().unwrap();
vec![Value::F32(shift_ as f32 + i as f32 + j as f32 + k)]
}
),
"callback_closure_dynamic_4" => DynamicFunc::new(
Arc::new(FuncSig::new(vec![Type::I32, Type::I64, Type::F32, Type::F64], vec![Type::F64])),
move |vmctx: &mut vm::Ctx, inputs: &[Value]| -> Vec<Value> {
assert_eq!(inputs.len(), 4);
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
let i: i32 = (&inputs[0]).try_into().unwrap();
let j: i64 = (&inputs[1]).try_into().unwrap();
let k: f32 = (&inputs[2]).try_into().unwrap();
let l: f64 = (&inputs[3]).try_into().unwrap();
vec![Value::F64(shift_ as f64 + i as f64 + j as f64 + k as f64 + l)]
}
),
// Closure with a captured environment (a single variable + an instance of `Memory`).
"callback_closure_with_env" => Func::new(move |n: i32| -> Result<i32, ()> {
let shift_ = shift + memory.view::<i32>()[0].get();
Ok(shift_ + n + 1)
}),
// Regular function with an explicit `vmctx`.
"callback_fn_with_vmctx" => Func::new(callback_fn_with_vmctx),
// Closure without a captured environment but with an explicit `vmctx`.
"callback_closure_with_vmctx" => Func::new(|vmctx: &mut vm::Ctx, n: i32| -> Result<i32, ()> {
let memory = vmctx.memory(0);
let shift_: i32 = memory.view()[0].get();
Ok(shift_ + n + 1)
}),
// Closure with a captured environment (a single variable) and with an explicit `vmctx`.
"callback_closure_with_vmctx_and_env" => Func::new(move |vmctx: &mut vm::Ctx, n: i32| -> Result<i32, ()> {
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
Ok(shift_ + n + 1)
}),
// Trap a regular function.
"callback_fn_trap" => Func::new(callback_fn_trap),
// Trap a closure without a captured environment.
"callback_closure_trap" => Func::new(|n: i32| -> Result<i32, String> {
Err(format!("bar {}", n + 1))
}),
// Trap a regular function with an explicit `vmctx`.
"callback_fn_trap_with_vmctx" => Func::new(callback_fn_trap_with_vmctx),
// Trap a closure without a captured environment but with an explicit `vmctx`.
"callback_closure_trap_with_vmctx" => Func::new(|vmctx: &mut vm::Ctx, n: i32| -> Result<i32, String> {
let memory = vmctx.memory(0);
let shift_: i32 = memory.view()[0].get();
Err(format!("qux {}", shift_ + n + 1))
}),
// Trap a closure with a captured environment (a single variable) and with an explicit `vmctx`.
"callback_closure_trap_with_vmctx_and_env" => Func::new(move |vmctx: &mut vm::Ctx, n: i32| -> Result<i32, String> {
let memory = vmctx.memory(0);
let shift_ = shift + memory.view::<i32>()[0].get();
Err(format!("! {}", shift_ + n + 1))
}),
},
};
let instance = module.instantiate(&import_object).unwrap();
test(&instance);
}
fn callback_fn(n: i32) -> Result<i32, ()> {
Ok(n + 1)
}
fn callback_fn_dynamic(_: &mut vm::Ctx, inputs: &[Value]) -> Vec<Value> {
match inputs[0] {
Value::I32(x) => vec![Value::I32(x + 1)],
_ => unreachable!(),
test(&instance);
}
}
fn callback_fn_dynamic_panic(_: &mut vm::Ctx, _: &[Value]) -> Vec<Value> {
panic!("test");
}
fn callback_fn(n: i32) -> Result<i32, ()> {
Ok(n + 1)
}
fn callback_fn_with_vmctx(vmctx: &mut vm::Ctx, n: i32) -> Result<i32, ()> {
let memory = vmctx.memory(0);
let shift_: i32 = memory.view()[0].get();
fn callback_fn_dynamic(_: &mut vm::Ctx, inputs: &[Value]) -> Vec<Value> {
match inputs[0] {
Value::I32(x) => vec![Value::I32(x + 1)],
_ => unreachable!(),
}
}
Ok(shift_ + n + 1)
}
fn callback_fn_dynamic_panic(_: &mut vm::Ctx, _: &[Value]) -> Vec<Value> {
panic!("test");
}
fn callback_fn_trap(n: i32) -> Result<i32, String> {
Err(format!("foo {}", n + 1))
}
fn callback_fn_with_vmctx(vmctx: &mut vm::Ctx, n: i32) -> Result<i32, ()> {
let memory = vmctx.memory(0);
let shift_: i32 = memory.view()[0].get();
fn callback_fn_trap_with_vmctx(vmctx: &mut vm::Ctx, n: i32) -> Result<i32, String> {
let memory = vmctx.memory(0);
let shift_: i32 = memory.view()[0].get();
Ok(shift_ + n + 1)
}
Err(format!("baz {}", shift_ + n + 1))
}
fn callback_fn_trap(n: i32) -> Result<i32, String> {
Err(format!("foo {}", n + 1))
}
macro_rules! test {
fn callback_fn_trap_with_vmctx(vmctx: &mut vm::Ctx, n: i32) -> Result<i32, String> {
let memory = vmctx.memory(0);
let shift_: i32 = memory.view()[0].get();
Err(format!("baz {}", shift_ + n + 1))
}
macro_rules! test {
($test_name:ident, $function:ident( $( $inputs:ty ),* ) -> $output:ty, ( $( $arguments:expr ),* ) == $expected_value:expr) => {
#[cfg(all(unix, target_arch = "x86_64"))]
#[test]
@ -402,73 +405,74 @@ macro_rules! test {
};
}
test!(test_fn, function_fn(i32) -> i32, (1) == Ok(2));
test!(test_closure, function_closure(i32) -> i32, (1) == Ok(2));
test!(test_fn_dynamic, function_fn_dynamic(i32) -> i32, (1) == Ok(2));
test!(test_fn_dynamic_panic, function_fn_dynamic_panic(i32) -> i32, (1) == Err(RuntimeError(Box::new("test"))));
test!(
test!(test_fn, function_fn(i32) -> i32, (1) == Ok(2));
test!(test_closure, function_closure(i32) -> i32, (1) == Ok(2));
test!(test_fn_dynamic, function_fn_dynamic(i32) -> i32, (1) == Ok(2));
test!(test_fn_dynamic_panic, function_fn_dynamic_panic(i32) -> i32, (1) == Err(RuntimeError(Box::new("test"))));
test!(
test_closure_dynamic_0,
function_closure_dynamic_0(()) -> (),
() == Ok(())
);
test!(
test!(
test_closure_dynamic_1,
function_closure_dynamic_1(i32) -> i32,
(1) == Ok(1 + shift + SHIFT)
);
test!(
test!(
test_closure_dynamic_2,
function_closure_dynamic_2(i32, i64) -> i64,
(1, 2) == Ok(1 + 2 + shift as i64 + SHIFT as i64)
);
test!(
test!(
test_closure_dynamic_3,
function_closure_dynamic_3(i32, i64, f32) -> f32,
(1, 2, 3.) == Ok(1. + 2. + 3. + shift as f32 + SHIFT as f32)
);
test!(
test!(
test_closure_dynamic_4,
function_closure_dynamic_4(i32, i64, f32, f64) -> f64,
(1, 2, 3., 4.) == Ok(1. + 2. + 3. + 4. + shift as f64 + SHIFT as f64)
);
test!(
test!(
test_closure_with_env,
function_closure_with_env(i32) -> i32,
(1) == Ok(2 + shift + SHIFT)
);
test!(test_fn_with_vmctx, function_fn_with_vmctx(i32) -> i32, (1) == Ok(2 + SHIFT));
test!(
test!(test_fn_with_vmctx, function_fn_with_vmctx(i32) -> i32, (1) == Ok(2 + SHIFT));
test!(
test_closure_with_vmctx,
function_closure_with_vmctx(i32) -> i32,
(1) == Ok(2 + SHIFT)
);
test!(
test!(
test_closure_with_vmctx_and_env,
function_closure_with_vmctx_and_env(i32) -> i32,
(1) == Ok(2 + shift + SHIFT)
);
test!(
test!(
test_fn_trap,
function_fn_trap(i32) -> i32,
(1) == Err(RuntimeError(Box::new(format!("foo {}", 2))))
);
test!(
test!(
test_closure_trap,
function_closure_trap(i32) -> i32,
(1) == Err(RuntimeError(Box::new(format!("bar {}", 2))))
);
test!(
test!(
test_fn_trap_with_vmctx,
function_fn_trap_with_vmctx(i32) -> i32,
(1) == Err(RuntimeError(Box::new(format!("baz {}", 2 + SHIFT))))
);
test!(
test!(
test_closure_trap_with_vmctx,
function_closure_trap_with_vmctx(i32) -> i32,
(1) == Err(RuntimeError(Box::new(format!("qux {}", 2 + SHIFT))))
);
test!(
test!(
test_closure_trap_with_vmctx_and_env,
function_closure_trap_with_vmctx_and_env(i32) -> i32,
(1) == Err(RuntimeError(Box::new(format!("! {}", 2 + shift + SHIFT))))
);
}