static_assert(kIntrinsicIsStatic[kIntrinsicAbsFloat], "AbsFloat must be static");
static_assert(kIntrinsicIsStatic[kIntrinsicAbsDouble], "AbsDouble must be static");
static_assert(kIntrinsicIsStatic[kIntrinsicMinMaxInt], "MinMaxInt must be static");
-static_assert(kIntrinsicIsStatic[kIntrinsicMinMaxLong], "MinMaxLong_must_be_static");
-static_assert(kIntrinsicIsStatic[kIntrinsicMinMaxFloat], "MinMaxFloat_must_be_static");
-static_assert(kIntrinsicIsStatic[kIntrinsicMinMaxDouble], "MinMaxDouble_must_be_static");
+static_assert(kIntrinsicIsStatic[kIntrinsicMinMaxLong], "MinMaxLong must be static");
+static_assert(kIntrinsicIsStatic[kIntrinsicMinMaxFloat], "MinMaxFloat must be static");
+static_assert(kIntrinsicIsStatic[kIntrinsicMinMaxDouble], "MinMaxDouble must be static");
static_assert(kIntrinsicIsStatic[kIntrinsicCos], "Cos must be static");
static_assert(kIntrinsicIsStatic[kIntrinsicSin], "Sin must be static");
static_assert(kIntrinsicIsStatic[kIntrinsicAcos], "Acos must be static");
static_assert(kIntrinsicIsStatic[kIntrinsicPeek], "Peek must be static");
static_assert(kIntrinsicIsStatic[kIntrinsicPoke], "Poke must be static");
static_assert(!kIntrinsicIsStatic[kIntrinsicCas], "Cas must not be static");
-static_assert(!kIntrinsicIsStatic[kIntrinsicUnsafeGet], "UnsafeGet_must_not_be_static");
+static_assert(!kIntrinsicIsStatic[kIntrinsicUnsafeGet], "UnsafeGet must not be static");
static_assert(!kIntrinsicIsStatic[kIntrinsicUnsafePut], "UnsafePut must not be static");
static_assert(kIntrinsicIsStatic[kIntrinsicSystemArrayCopyCharArray],
"SystemArrayCopyCharArray must be static");
// TODO: Arm S0–S31 register mapping is obsolescent.
// We should use VFP-v3/Neon D0-D31 mapping instead.
// However, D0 is aliased to pair of S0 and S1, so using that
- // mapping we can not easily say S0 is spilled and S1 is not.
+ // mapping we cannot easily say S0 is spilled and S1 is not.
// There are ways around this in DWARF but they are complex.
// It would be much simpler to always spill whole D registers.
// Arm64 mapping is correct since we already do this there.
case kNone:
break;
}
- LOG(FATAL) << "Can not write CIE frame for ISA " << isa;
+ LOG(FATAL) << "Cannot write CIE frame for ISA " << isa;
UNREACHABLE();
}
void ParallelMoveResolverNoSwap::UpdateMoveSource(Location from, Location to) {
// This function is used to reduce the dependencies in the graph after
// (from -> to) has been performed. Since we ensure there is no move with the same
- // destination, (to -> X) can not be blocked while (from -> X) might still be
+ // destination, (to -> X) cannot be blocked while (from -> X) might still be
// blocked. Consider for example the moves (0 -> 1) (1 -> 2) (1 -> 3). After
// (1 -> 2) has been performed, the moves left are (0 -> 1) and (1 -> 3). There is
// a dependency between the two. If we update the source location from 1 to 2, we
}
if (founddir.empty()) {
- ADD_FAILURE() << "Can not find Android tools directory.";
+ ADD_FAILURE() << "Cannot find Android tools directory.";
}
return founddir;
}
int32_t GetLineNumFromPC(ArtMethod* method, uint32_t rel_pc) const
SHARED_REQUIRES(Locks::mutator_lock_);
- // Returns false if there is no debugging information or if it can not be decoded.
+ // Returns false if there is no debugging information or if it cannot be decoded.
bool DecodeDebugLocalInfo(const CodeItem* code_item, bool is_static, uint32_t method_idx,
DexDebugNewLocalCb local_cb, void* context) const;
- // Returns false if there is no debugging information or if it can not be decoded.
+ // Returns false if there is no debugging information or if it cannot be decoded.
bool DecodeDebugPositionInfo(const CodeItem* code_item, DexDebugNewPositionCb position_cb,
void* context) const;
return nullptr;
}
gc::Heap* heap = Runtime::Current()->GetHeap();
- // Pass in false since the object can not be finalizable.
+ // Pass in false since the object cannot be finalizable.
return klass->Alloc<kInstrumented, false>(self, heap->GetCurrentAllocator());
}
- // Pass in false since the object can not be finalizable.
+ // Pass in false since the object cannot be finalizable.
return klass->Alloc<kInstrumented, false>(self, allocator_type);
}
Thread* self,
gc::AllocatorType allocator_type) {
DCHECK(klass != nullptr);
- // Pass in false since the object can not be finalizable.
+ // Pass in false since the object cannot be finalizable.
return klass->Alloc<kInstrumented, false>(self, allocator_type);
}
t.NewTiming("ProcessCards");
// Process dirty cards and add dirty cards to mod-union tables.
heap_->ProcessCards(GetTimings(), false, false, true);
- // Clear the whole card table since we can not Get any additional dirty cards during the
+ // Clear the whole card table since we cannot get any additional dirty cards during the
// paused GC. This saves memory but only works for pause the world collectors.
t.NewTiming("ClearCardTable");
heap_->GetCardTable()->ClearCardTable();
BindBitmaps();
// Process dirty cards and add dirty cards to mod-union tables.
heap_->ProcessCards(GetTimings(), kUseRememberedSet && generational_, false, true);
- // Clear the whole card table since we can not Get any additional dirty cards during the
+ // Clear the whole card table since we cannot get any additional dirty cards during the
// paused GC. This saves memory but only works for pause the world collectors.
t.NewTiming("ClearCardTable");
heap_->GetCardTable()->ClearCardTable();
kCollectorTypeSS,
// A generational variant of kCollectorTypeSS.
kCollectorTypeGSS,
- // Mark compact colector.
+ // Mark compact collector.
kCollectorTypeMC,
// Heap trimming collector, doesn't do any actual collecting.
kCollectorTypeHeapTrim,
// it to the mutator as long as the GC is not preserving references.
if (LIKELY(collector_ != nullptr)) {
// If it's null it means not marked, but it could become marked if the referent is reachable
- // by finalizer referents. So we can not return in this case and must block. Otherwise, we
+ // by finalizer referents. So we cannot return in this case and must block. Otherwise, we
// can return it to the mutator as long as the GC is not preserving references, in which
// case only black nodes can be safely returned. If the GC is preserving references, the
// mutator could take a white field from a grey or white node and move it somewhere else
num_bytes_allocated_ += allocation_size;
total_bytes_allocated_ += allocation_size;
mirror::Object* obj = reinterpret_cast<mirror::Object*>(GetAddressForAllocationInfo(new_info));
- // We always put our object at the start of the free block, there can not be another free block
+ // We always put our object at the start of the free block, there cannot be another free block
// before it.
if (kIsDebugBuild) {
mprotect(obj, allocation_size, PROT_READ | PROT_WRITE);
ArtMethod* caller,
uint32_t dex_pc,
ArtMethod* callee) const {
- // We can not have thread suspension since that would cause the this_object parameter to
+ // We cannot have thread suspension since that would cause the this_object parameter to
// potentially become a dangling pointer. An alternative could be to put it in a handle instead.
ScopedAssertNoThreadSuspension ants(thread, __FUNCTION__);
for (InstrumentationListener* listener : invoke_virtual_or_interface_listeners_) {
SHARED_REQUIRES(Locks::mutator_lock_) REQUIRES(!Roles::uninterruptible_);
// Only used by image writer. Special version that may not cause thread suspension since the GC
- // can not be running while we are doing image writing. Maybe be called while while holding a
+ // cannot be running while we are doing image writing. Maybe be called while while holding a
// lock since there will not be thread suspension.
mirror::String* InternStrongImageString(mirror::String* s)
SHARED_REQUIRES(Locks::mutator_lock_);
if (dl_iterate_phdr(dl_iterate_context::callback, &context) == 0) {
PrintFileToLog("/proc/self/maps", LogSeverity::WARNING);
- LOG(ERROR) << "File " << elf_filename << " loaded with dlopen but can not find its mmaps.";
+ LOG(ERROR) << "File " << elf_filename << " loaded with dlopen but cannot find its mmaps.";
}
#endif
}
struct stat exec_st;
std::string exec_path = tools_dir + tool;
if (stat(exec_path.c_str(), &exec_st) != 0) {
- ADD_FAILURE() << "Can not find " << tool << " in " << tools_dir;
+ ADD_FAILURE() << "Cannot find " << tool << " in " << tools_dir;
}
}
}
TEST_F(PrebuiltToolsTest, CheckHostTools) {
std::string tools_dir = GetAndroidHostToolsDir();
if (tools_dir.empty()) {
- ADD_FAILURE() << "Can not find Android tools directory for host";
+ ADD_FAILURE() << "Cannot find Android tools directory for host";
} else {
CheckToolsExist(tools_dir);
}
for (InstructionSet isa : isas) {
std::string tools_dir = GetAndroidTargetToolsDir(isa);
if (tools_dir.empty()) {
- ADD_FAILURE() << "Can not find Android tools directory for " << isa;
+ ADD_FAILURE() << "Cannot find Android tools directory for " << isa;
} else {
CheckToolsExist(tools_dir);
}
if (codePoint <= 0xffff) {
if (codePoint >= 0xd800 && codePoint <= 0xdfff) {
// According to the Unicode standard, no character will ever
- // be assigned to these code points, and they can not be encoded
+ // be assigned to these code points, and they cannot be encoded
// into either utf-16 or utf-8.
continue;
}
}
}
- printf("Can not find %s in backtrace:\n", seq[cur_search_index].c_str());
+ printf("Cannot find %s in backtrace:\n", seq[cur_search_index].c_str());
for (Backtrace::const_iterator it = bt->begin(); it != bt->end(); ++it) {
if (BacktraceMap::IsValid(it->map)) {
printf(" %s\n", it->func_name.c_str());
std::unique_ptr<Backtrace> bt(Backtrace::Create(BACKTRACE_CURRENT_PROCESS, GetTid()));
if (!bt->Unwind(0, nullptr)) {
- printf("Can not unwind in process.\n");
+ printf("Cannot unwind in process.\n");
return JNI_FALSE;
} else if (bt->NumFrames() == 0) {
printf("No frames for unwind in process.\n");
std::unique_ptr<Backtrace> bt(Backtrace::Create(pid, BACKTRACE_CURRENT_THREAD));
bool result = true;
if (!bt->Unwind(0, nullptr)) {
- printf("Can not unwind other process.\n");
+ printf("Cannot unwind other process.\n");
result = false;
} else if (bt->NumFrames() == 0) {
printf("No frames for unwind of other process.\n");
private static void testUnloadClass(Constructor constructor) throws Exception {
WeakReference<Class> klass = setUpUnloadClass(constructor);
- // No strong refernces to class loader, should get unloaded.
+ // No strong references to class loader, should get unloaded.
Runtime.getRuntime().gc();
WeakReference<Class> klass2 = setUpUnloadClass(constructor);
Runtime.getRuntime().gc();
private static void testUnloadLoader(Constructor constructor)
throws Exception {
WeakReference<ClassLoader> loader = setUpUnloadLoader(constructor, true);
- // No strong refernces to class loader, should get unloaded.
+ // No strong references to class loader, should get unloaded.
Runtime.getRuntime().gc();
// If the weak reference is cleared, then it was unloaded.
System.out.println(loader.get());
private static void testLoadAndUnloadLibrary(Constructor constructor) throws Exception {
WeakReference<ClassLoader> loader = setUpLoadLibrary(constructor);
- // No strong refernces to class loader, should get unloaded.
+ // No strong references to class loader, should get unloaded.
Runtime.getRuntime().gc();
// If the weak reference is cleared, then it was unloaded.
System.out.println(loader.get());
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