Remove more occurrences of the unused-mutex-parameter pattern.

This pattern loses some of its usefulness when the mutex type is
statically polymorphic as opposed to runtime polymorphic, as
swapping out the mutex type requires changing a significant number
of function parameters, and templatizing the function parameter
requires the methods to be defined in the headers.

Furthermore, if LLVM is compiled with threads disabled then there
may even be no mutex to acquire anyway, so it should not be up to
individual APIs to know whether or not acquiring a mutex is required
to use those APIs to begin with.  It should be up to the user of the
API.

git-svn-id: https://llvm.org/svn/llvm-project/llvm/trunk@211125 91177308-0d34-0410-b5e6-96231b3b80d8
This commit is contained in:
Zachary Turner 2014-06-17 21:54:18 +00:00
parent 540fe7f20e
commit 97a66e6049

View File

@ -121,21 +121,16 @@ namespace {
#endif
}
FunctionToLazyStubMapTy& getFunctionToLazyStubMap(
const MutexGuard& locked) {
assert(locked.holds(TheJIT->lock));
FunctionToLazyStubMapTy& getFunctionToLazyStubMap() {
return FunctionToLazyStubMap;
}
GlobalToIndirectSymMapTy& getGlobalToIndirectSymMap(const MutexGuard& lck) {
assert(lck.holds(TheJIT->lock));
GlobalToIndirectSymMapTy& getGlobalToIndirectSymMap() {
return GlobalToIndirectSymMap;
}
std::pair<void *, Function *> LookupFunctionFromCallSite(
const MutexGuard &locked, void *CallSite) const {
assert(locked.holds(TheJIT->lock));
void *CallSite) const {
// The address given to us for the stub may not be exactly right, it
// might be a little bit after the stub. As such, use upper_bound to
// find it.
@ -147,9 +142,7 @@ namespace {
return *I;
}
void AddCallSite(const MutexGuard &locked, void *CallSite, Function *F) {
assert(locked.holds(TheJIT->lock));
void AddCallSite(void *CallSite, Function *F) {
bool Inserted = CallSiteToFunctionMap.insert(
std::make_pair(CallSite, F)).second;
(void)Inserted;
@ -504,7 +497,7 @@ void *JITResolver::getLazyFunctionStubIfAvailable(Function *F) {
MutexGuard locked(TheJIT->lock);
// If we already have a stub for this function, recycle it.
return state.getFunctionToLazyStubMap(locked).lookup(F);
return state.getFunctionToLazyStubMap().lookup(F);
}
/// getFunctionStub - This returns a pointer to a function stub, creating
@ -513,7 +506,7 @@ void *JITResolver::getLazyFunctionStub(Function *F) {
MutexGuard locked(TheJIT->lock);
// If we already have a lazy stub for this function, recycle it.
void *&Stub = state.getFunctionToLazyStubMap(locked)[F];
void *&Stub = state.getFunctionToLazyStubMap()[F];
if (Stub) return Stub;
// Call the lazy resolver function if we are JIT'ing lazily. Otherwise we
@ -555,7 +548,7 @@ void *JITResolver::getLazyFunctionStub(Function *F) {
// Finally, keep track of the stub-to-Function mapping so that the
// JITCompilerFn knows which function to compile!
state.AddCallSite(locked, Stub, F);
state.AddCallSite(Stub, F);
} else if (!Actual) {
// If we are JIT'ing non-lazily but need to call a function that does not
// exist yet, add it to the JIT's work list so that we can fill in the
@ -574,7 +567,7 @@ void *JITResolver::getGlobalValueIndirectSym(GlobalValue *GV, void *GVAddress) {
MutexGuard locked(TheJIT->lock);
// If we already have a stub for this global variable, recycle it.
void *&IndirectSym = state.getGlobalToIndirectSymMap(locked)[GV];
void *&IndirectSym = state.getGlobalToIndirectSymMap()[GV];
if (IndirectSym) return IndirectSym;
// Otherwise, codegen a new indirect symbol.
@ -634,7 +627,7 @@ void *JITResolver::JITCompilerFn(void *Stub) {
// The address given to us for the stub may not be exactly right, it might
// be a little bit after the stub. As such, use upper_bound to find it.
std::pair<void*, Function*> I =
JR->state.LookupFunctionFromCallSite(locked, Stub);
JR->state.LookupFunctionFromCallSite(Stub);
F = I.second;
ActualPtr = I.first;
}