Luis Felipe Strano Moraes!
git-svn-id: https://llvm.org/svn/llvm-project/llvm/trunk@129558
91177308-0d34-0410-b5e6-
96231b3b80d8
193 files changed:
option(LLVM_ENABLE_ASSERTIONS "Enable assertions" ON)
endif()
option(LLVM_ENABLE_ASSERTIONS "Enable assertions" ON)
endif()
-# All options refered to from HandleLLVMOptions have to be specified
+# All options referred to from HandleLLVMOptions have to be specified
# BEFORE this include, otherwise options will not be correctly set on
# first cmake run
include(config-ix)
# BEFORE this include, otherwise options will not be correctly set on
# first cmake run
include(config-ix)
$(Verb) cd $(PROJ_OBJ_ROOT) ; $(ZIP) -rq $(DistZip) $(DistName)
dist :: $(DistTarGZip) $(DistTarBZ2) $(DistZip)
$(Verb) cd $(PROJ_OBJ_ROOT) ; $(ZIP) -rq $(DistZip) $(DistName)
dist :: $(DistTarGZip) $(DistTarBZ2) $(DistZip)
- $(Echo) ===== DISTRIBUTION PACKAGING SUCESSFUL =====
+ $(Echo) ===== DISTRIBUTION PACKAGING SUCCESSFUL =====
DistCheckDir := $(PROJ_OBJ_ROOT)/_distcheckdir
DistCheckDir := $(PROJ_OBJ_ROOT)/_distcheckdir
test -n "$_LT_AC_TAGVAR(runpath_var, $1)" || \
test "X$_LT_AC_TAGVAR(hardcode_automatic, $1)" = "Xyes" ; then
test -n "$_LT_AC_TAGVAR(runpath_var, $1)" || \
test "X$_LT_AC_TAGVAR(hardcode_automatic, $1)" = "Xyes" ; then
- # We can hardcode non-existant directories.
+ # We can hardcode non-existent directories.
if test "$_LT_AC_TAGVAR(hardcode_direct, $1)" != no &&
# If the only mechanism to avoid hardcoding is shlibpath_var, we
# have to relink, otherwise we might link with an installed library
if test "$_LT_AC_TAGVAR(hardcode_direct, $1)" != no &&
# If the only mechanism to avoid hardcoding is shlibpath_var, we
# have to relink, otherwise we might link with an installed library
osf[[1234]]*)
# dlopen did load deplibs (at least at 4.x), but until the 5.x series,
# it did *not* use an RPATH in a shared library to find objects the
osf[[1234]]*)
# dlopen did load deplibs (at least at 4.x), but until the 5.x series,
# it did *not* use an RPATH in a shared library to find objects the
- # library depends on, so we explictly say `no'.
+ # library depends on, so we explicitly say `no'.
libltdl_cv_sys_dlopen_deplibs=no
;;
osf5.0|osf5.0a|osf5.1)
libltdl_cv_sys_dlopen_deplibs=no
;;
osf5.0|osf5.0a|osf5.1)
string(TOUPPER "${c}" capitalized)
list(FIND capitalized_libs LLVM${capitalized} lib_idx)
if( lib_idx LESS 0 )
string(TOUPPER "${c}" capitalized)
list(FIND capitalized_libs LLVM${capitalized} lib_idx)
if( lib_idx LESS 0 )
- # The component is unkown. Maybe is an ommitted target?
+ # The component is unknown. Maybe is an omitted target?
is_llvm_target_library(${c} iltl_result)
if( NOT iltl_result )
message(FATAL_ERROR "Library `${c}' not found in list of llvm libraries.")
is_llvm_target_library(${c} iltl_result)
if( NOT iltl_result )
message(FATAL_ERROR "Library `${c}' not found in list of llvm libraries.")
osf[1234]*)
# dlopen did load deplibs (at least at 4.x), but until the 5.x series,
# it did *not* use an RPATH in a shared library to find objects the
osf[1234]*)
# dlopen did load deplibs (at least at 4.x), but until the 5.x series,
# it did *not* use an RPATH in a shared library to find objects the
- # library depends on, so we explictly say `no'.
+ # library depends on, so we explicitly say `no'.
libltdl_cv_sys_dlopen_deplibs=no
;;
osf5.0|osf5.0a|osf5.1)
libltdl_cv_sys_dlopen_deplibs=no
;;
osf5.0|osf5.0a|osf5.1)
=item B<Average Instruction Size>
=item B<Average Instruction Size>
-The average number of bytes consumed by the instructions in the funtion. This
+The average number of bytes consumed by the instructions in the function. This
value is computed by dividing Instruction Size by Instructions.
=item B<Bytes Per Instruction>
value is computed by dividing Instruction Size by Instructions.
=item B<Bytes Per Instruction>
<tt class="docutils literal"><span class="pre">-std=c99</span></tt>. It is also allowed to use spaces instead of the equality
sign: <tt class="docutils literal"><span class="pre">-std</span> <span class="pre">c99</span></tt>. At most one occurrence is allowed.</li>
<li><tt class="docutils literal"><span class="pre">parameter_list_option</span></tt> - same as the above, but more than one option
<tt class="docutils literal"><span class="pre">-std=c99</span></tt>. It is also allowed to use spaces instead of the equality
sign: <tt class="docutils literal"><span class="pre">-std</span> <span class="pre">c99</span></tt>. At most one occurrence is allowed.</li>
<li><tt class="docutils literal"><span class="pre">parameter_list_option</span></tt> - same as the above, but more than one option
-occurence is allowed.</li>
+occurrence is allowed.</li>
<li><tt class="docutils literal"><span class="pre">prefix_option</span></tt> - same as the parameter_option, but the option name and
argument do not have to be separated. Example: <tt class="docutils literal"><span class="pre">-ofile</span></tt>. This can be also
specified as <tt class="docutils literal"><span class="pre">-o</span> <span class="pre">file</span></tt>; however, <tt class="docutils literal"><span class="pre">-o=file</span></tt> will be parsed incorrectly
(<tt class="docutils literal"><span class="pre">=file</span></tt> will be interpreted as option value). At most one occurrence is
allowed.</li>
<li><tt class="docutils literal"><span class="pre">prefix_option</span></tt> - same as the parameter_option, but the option name and
argument do not have to be separated. Example: <tt class="docutils literal"><span class="pre">-ofile</span></tt>. This can be also
specified as <tt class="docutils literal"><span class="pre">-o</span> <span class="pre">file</span></tt>; however, <tt class="docutils literal"><span class="pre">-o=file</span></tt> will be parsed incorrectly
(<tt class="docutils literal"><span class="pre">=file</span></tt> will be interpreted as option value). At most one occurrence is
allowed.</li>
-<li><tt class="docutils literal"><span class="pre">prefix_list_option</span></tt> - same as the above, but more than one occurence of
+<li><tt class="docutils literal"><span class="pre">prefix_list_option</span></tt> - same as the above, but more than one occurrence of
the option is allowed; example: <tt class="docutils literal"><span class="pre">-lm</span> <span class="pre">-lpthread</span></tt>.</li>
<li><tt class="docutils literal"><span class="pre">alias_option</span></tt> - a special option type for creating aliases. Unlike other
option types, aliases are not allowed to have any properties besides the
the option is allowed; example: <tt class="docutils literal"><span class="pre">-lm</span> <span class="pre">-lpthread</span></tt>.</li>
<li><tt class="docutils literal"><span class="pre">alias_option</span></tt> - a special option type for creating aliases. Unlike other
option types, aliases are not allowed to have any properties besides the
style exception handling. The single parameter is a pointer to a
buffer populated by <a href="#llvm_eh_sjlj_setjmp">
<tt>llvm.eh.sjlj.setjmp</tt></a>. The frame pointer and stack pointer
style exception handling. The single parameter is a pointer to a
buffer populated by <a href="#llvm_eh_sjlj_setjmp">
<tt>llvm.eh.sjlj.setjmp</tt></a>. The frame pointer and stack pointer
- are restored from the buffer, then control is transfered to the
+ are restored from the buffer, then control is transferred to the
destination address.</p>
</div>
destination address.</p>
</div>
Yup, I think that this makes a lot of sense. I am still intrigued,
however, by the prospect of a minimally allocated VM representation... I
Yup, I think that this makes a lot of sense. I am still intrigued,
however, by the prospect of a minimally allocated VM representation... I
-think that it could have definate advantages for certain applications
+think that it could have definite advantages for certain applications
(think very small machines, like PDAs). I don't, however, think that our
initial implementations should focus on this. :)
(think very small machines, like PDAs). I don't, however, think that our
initial implementations should focus on this. :)
-Here are some other auxilliary goals that I think we should consider:
+Here are some other auxiliary goals that I think we should consider:
1. Primary goal: Support a high performance dynamic compilation
system. This means that we have an "ideal" division of labor between
1. Primary goal: Support a high performance dynamic compilation
system. This means that we have an "ideal" division of labor between
packaged with the bytecodes themselves. As a conceptual implementation
idea, we could include an immediate dominator number for each basic block
in the LLVM bytecode program. Basic blocks could be numbered according
packaged with the bytecodes themselves. As a conceptual implementation
idea, we could include an immediate dominator number for each basic block
in the LLVM bytecode program. Basic blocks could be numbered according
- to the order of occurance in the bytecode representation.
+ to the order of occurrence in the bytecode representation.
2. Including loop header and body information. This would facilitate
detection of intervals and natural loops.
2. Including loop header and body information. This would facilitate
detection of intervals and natural loops.
Very true. If you're implementing an object oriented language, however,
remember that you have to do all the pointer to member function stuff
Very true. If you're implementing an object oriented language, however,
remember that you have to do all the pointer to member function stuff
-yourself.... so everytime you invoke a virtual method one is involved
+yourself.... so every time you invoke a virtual method one is involved
(instead of having C++ hide it for you behind "syntactic sugar").
> And the old array syntax:
(instead of having C++ hide it for you behind "syntactic sugar").
> And the old array syntax:
Very true. We should discuss this more, but my reasoning is more of a
consistency argument. There are VERY few instructions that can have all
Very true. We should discuss this more, but my reasoning is more of a
consistency argument. There are VERY few instructions that can have all
-of the types eliminated, and doing so when available unnecesarily makes
+of the types eliminated, and doing so when available unnecessarily makes
the language more difficult to handle. Especially when you see 'int
%this' and 'bool %that' all over the place, I think it would be
disorienting to see:
the language more difficult to handle. Especially when you see 'int
%this' and 'bool %that' all over the place, I think it would be
disorienting to see:
No. This was something I was debating for a while, and didn't really feel
strongly about either way. It is common to switch on other types in HLL's
No. This was something I was debating for a while, and didn't really feel
strongly about either way. It is common to switch on other types in HLL's
-(for example signed int's are particually common), but in this case, all
+(for example signed int's are particularly common), but in this case, all
that will be added is an additional 'cast' instruction. I removed that
from the spec.
that will be added is an additional 'cast' instruction. I removed that
from the spec.
> I agree that we need a static data space. Otherwise, emulating global
> data gets unnecessarily complex.
> I agree that we need a static data space. Otherwise, emulating global
> data gets unnecessarily complex.
-Definately. Also a later item though. :)
+Definitely. Also a later item though. :)
> We once talked about adding a symbolic thread-id field to each
> ..
> We once talked about adding a symbolic thread-id field to each
> ..
> optimization (step 16 in your list). Do you have a breakdown of that?
Not really. The irritating part of GCC is that it mixes it all up and
> optimization (step 16 in your list). Do you have a breakdown of that?
Not really. The irritating part of GCC is that it mixes it all up and
-doesn't have a clean seperation of concerns. A lot of the "back end
+doesn't have a clean separation of concerns. A lot of the "back end
optimization" happens right along with other data optimizations (ie, CSE
of machine specific things).
optimization" happens right along with other data optimizations (ie, CSE
of machine specific things).
linear search of the basic block the instruction is contained in... just
to insert an instruction before another instruction, or to delete an
instruction! This complicates algorithms that should be very simple (like
linear search of the basic block the instruction is contained in... just
to insert an instruction before another instruction, or to delete an
instruction! This complicates algorithms that should be very simple (like
-simple constant propogation), because they aren't actually sparse anymore,
+simple constant propagation), because they aren't actually sparse anymore,
they have to traverse basic blocks to remove constant propogated
instructions.
they have to traverse basic blocks to remove constant propogated
instructions.
<a href="#terminators">terminator instruction</a>
if the terminator instruction has multiple successors and the instruction
is always executed when control transfers to one of the successors, and
<a href="#terminators">terminator instruction</a>
if the terminator instruction has multiple successors and the instruction
is always executed when control transfers to one of the successors, and
- may not be executed when control is transfered to another.</li>
+ may not be executed when control is transferred to another.</li>
<li>Additionally, an instruction also <i>control-depends</i> on a terminator
instruction if the set of instructions it otherwise depends on would be
<li>Additionally, an instruction also <i>control-depends</i> on a terminator
instruction if the set of instructions it otherwise depends on would be
- different if the terminator had transfered control to a different
+ different if the terminator had transferred control to a different
successor.</li>
<li>Dependence is transitive.</li>
successor.</li>
<li>Dependence is transitive.</li>
typedef void (*OurExceptionThrowFunctType) (int32_t typeToThrow);
/// This is a test harness which runs test by executing generated
typedef void (*OurExceptionThrowFunctType) (int32_t typeToThrow);
/// This is a test harness which runs test by executing generated
-/// function with a type info type to throw. Harness wraps the excecution
+/// function with a type info type to throw. Harness wraps the execution
/// of generated function in a C++ try catch clause.
/// @param engine execution engine to use for executing generated function.
/// This demo program expects this to be a JIT instance for demo
/// of generated function in a C++ try catch clause.
/// @param engine execution engine to use for executing generated function.
/// This demo program expects this to be a JIT instance for demo
* the call back in the DisInfo parameter. The instruction containing operand
* is at the PC parameter. For some instruction sets, there can be more than
* one operand with symbolic information. To determine the symbolic operand
* the call back in the DisInfo parameter. The instruction containing operand
* is at the PC parameter. For some instruction sets, there can be more than
* one operand with symbolic information. To determine the symbolic operand
- * infomation for each operand, the bytes for the specific operand in the
+ * information for each operand, the bytes for the specific operand in the
* instruction are specified by the Offset parameter and its byte widith is the
* size parameter. For instructions sets with fixed widths and one symbolic
* operand per instruction, the Offset parameter will be zero and Size parameter
* instruction are specified by the Offset parameter and its byte widith is the
* size parameter. For instructions sets with fixed widths and one symbolic
* operand per instruction, the Offset parameter will be zero and Size parameter
* Create a disassembler for the TripleName. Symbolic disassembly is supported
* by passing a block of information in the DisInfo parameter and specifing the
* TagType and call back functions as described above. These can all be passed
* Create a disassembler for the TripleName. Symbolic disassembly is supported
* by passing a block of information in the DisInfo parameter and specifing the
* TagType and call back functions as described above. These can all be passed
- * as NULL. If successfull this returns a disassembler context if not it
+ * as NULL. If successful this returns a disassembler context if not it
* returns NULL.
*/
extern LLVMDisasmContextRef
* returns NULL.
*/
extern LLVMDisasmContextRef
/**
* Disassmble a single instruction using the disassembler context specified in
/**
* Disassmble a single instruction using the disassembler context specified in
- * the parameter DC. The bytes of the instuction are specified in the parameter
+ * the parameter DC. The bytes of the instruction are specified in the parameter
* Bytes, and contains at least BytesSize number of bytes. The instruction is
* at the address specified by the PC parameter. If a valid instruction can be
* disassembled its string is returned indirectly in OutString which whos size
* Bytes, and contains at least BytesSize number of bytes. The instruction is
* at the address specified by the PC parameter. If a valid instruction can be
* disassembled its string is returned indirectly in OutString which whos size
- * Returns the last error string or NULL if last operation was sucessful.
+ * Returns the last error string or NULL if last operation was successful.
*/
extern const char*
lto_get_error_message(void);
*/
extern const char*
lto_get_error_message(void);
/**
* Generates code for all added modules into one native object file.
/**
* Generates code for all added modules into one native object file.
- * On sucess returns a pointer to a generated mach-o/ELF buffer and
+ * On success returns a pointer to a generated mach-o/ELF buffer and
* length set to the buffer size. The buffer is owned by the
* lto_code_gen_t and will be freed when lto_codegen_dispose()
* is called, or lto_codegen_compile() is called again.
* length set to the buffer size. The buffer is owned by the
* lto_code_gen_t and will be freed when lto_codegen_dispose()
* is called, or lto_codegen_compile() is called again.
SmallVectorImpl<StringRef> &OutFragments,
StringRef Delimiters = " \t\n\v\f\r");
SmallVectorImpl<StringRef> &OutFragments,
StringRef Delimiters = " \t\n\v\f\r");
-/// HashString - Hash funtion for strings.
+/// HashString - Hash function for strings.
///
/// This is the Bernstein hash function.
//
///
/// This is the Bernstein hash function.
//
//===----------------------------------------------------------------------===//
//
/// iplist - The subset of list functionality that can safely be used on nodes
//===----------------------------------------------------------------------===//
//
/// iplist - The subset of list functionality that can safely be used on nodes
-/// of polymorphic types, i.e. a heterogenous list with a common base class that
+/// of polymorphic types, i.e. a heterogeneous list with a common base class that
/// holds the next/prev pointers. The only state of the list itself is a single
/// pointer to the head of the list.
///
/// holds the next/prev pointers. The only state of the list itself is a single
/// pointer to the head of the list.
///
/// InlineCost - Represent the cost of inlining a function. This
/// supports special values for functions which should "always" or
/// "never" be inlined. Otherwise, the cost represents a unitless
/// InlineCost - Represent the cost of inlining a function. This
/// supports special values for functions which should "always" or
/// "never" be inlined. Otherwise, the cost represents a unitless
- /// amount; smaller values increase the likelyhood of the function
+ /// amount; smaller values increase the likelihood of the function
/// being inlined.
class InlineCost {
enum Kind {
/// being inlined.
class InlineCost {
enum Kind {
/// two connections to the remaining graph. It can be used to analyze or
/// optimize parts of the control flow graph.
///
/// two connections to the remaining graph. It can be used to analyze or
/// optimize parts of the control flow graph.
///
-/// A <em> simple Region </em> is connected to the remaing graph by just two
+/// A <em> simple Region </em> is connected to the remaining graph by just two
/// edges. One edge entering the Region and another one leaving the Region.
///
/// An <em> extended Region </em> (or just Region) is a subgraph that can be
/// edges. One edge entering the Region and another one leaving the Region.
///
/// An <em> extended Region </em> (or just Region) is a subgraph that can be
/// @brief Move all direct child nodes of this Region to another Region.
///
/// @brief Move all direct child nodes of this Region to another Region.
///
- /// @param To The Region the child nodes will be transfered to.
+ /// @param To The Region the child nodes will be transferred to.
void transferChildrenTo(Region *To);
/// @brief Verify if the region is a correct region.
void transferChildrenTo(Region *To);
/// @brief Verify if the region is a correct region.
namespace llvm {
//===----------------------------------------------------------------------===//
namespace llvm {
//===----------------------------------------------------------------------===//
-/// @brief Hierachical RegionNode successor iterator.
+/// @brief Hierarchical RegionNode successor iterator.
///
/// This iterator iterates over all successors of a RegionNode.
///
///
/// This iterator iterates over all successors of a RegionNode.
///
/// @brief Get a pass to print the LLVM IR in the region.
///
/// @param O The ouput stream to print the Region.
/// @brief Get a pass to print the LLVM IR in the region.
///
/// @param O The ouput stream to print the Region.
- /// @param Banner The banner to seperate different printed passes.
+ /// @param Banner The banner to separate different printed passes.
///
/// @return The pass to print the LLVM IR in the region.
Pass *createPrinterPass(raw_ostream &O, const std::string &Banner) const;
///
/// @return The pass to print the LLVM IR in the region.
Pass *createPrinterPass(raw_ostream &O, const std::string &Banner) const;
/// to determine just enough information to create an ArchiveMember object
/// which is then inserted into the Archive object's ilist at the location
/// given by \p where.
/// to determine just enough information to create an ArchiveMember object
/// which is then inserted into the Archive object's ilist at the location
/// given by \p where.
- /// @returns true if an error occured, false otherwise
+ /// @returns true if an error occurred, false otherwise
/// @brief Add a file to the archive.
bool addFileBefore(
const sys::Path& filename, ///< The file to be added
/// @brief Add a file to the archive.
bool addFileBefore(
const sys::Path& filename, ///< The file to be added
// RESULT, BOOL = [SU]ADDO(LHS, RHS) - Overflow-aware nodes for addition.
// These nodes take two operands: the normal LHS and RHS to the add. They
// produce two results: the normal result of the add, and a boolean that
// RESULT, BOOL = [SU]ADDO(LHS, RHS) - Overflow-aware nodes for addition.
// These nodes take two operands: the normal LHS and RHS to the add. They
// produce two results: the normal result of the add, and a boolean that
- // indicates if an overflow occured (*not* a flag, because it may be stored
+ // indicates if an overflow occurred (*not* a flag, because it may be stored
// to memory, etc.). If the type of the boolean is not i1 then the high
// bits conform to getBooleanContents.
// These nodes are generated from the llvm.[su]add.with.overflow intrinsics.
// to memory, etc.). If the type of the boolean is not i1 then the high
// bits conform to getBooleanContents.
// These nodes are generated from the llvm.[su]add.with.overflow intrinsics.
class Function;
/// JITCodeEmitter - This class defines two sorts of methods: those for
class Function;
/// JITCodeEmitter - This class defines two sorts of methods: those for
-/// emitting the actual bytes of machine code, and those for emitting auxillary
+/// emitting the actual bytes of machine code, and those for emitting auxiliary
/// structures, such as jump tables, relocations, etc.
///
/// Emission of machine code is complicated by the fact that we don't (in
/// structures, such as jump tables, relocations, etc.
///
/// Emission of machine code is complicated by the fact that we don't (in
class MCSymbol;
/// MachineCodeEmitter - This class defines two sorts of methods: those for
class MCSymbol;
/// MachineCodeEmitter - This class defines two sorts of methods: those for
-/// emitting the actual bytes of machine code, and those for emitting auxillary
+/// emitting the actual bytes of machine code, and those for emitting auxiliary
/// structures, such as jump tables, relocations, etc.
///
/// Emission of machine code is complicated by the fact that we don't (in
/// structures, such as jump tables, relocations, etc.
///
/// Emission of machine code is complicated by the fact that we don't (in
/// allocated for this code buffer.
uint8_t *BufferBegin, *BufferEnd;
/// CurBufferPtr - Pointer to the next byte of memory to fill when emitting
/// allocated for this code buffer.
uint8_t *BufferBegin, *BufferEnd;
/// CurBufferPtr - Pointer to the next byte of memory to fill when emitting
- /// code. This is guranteed to be in the range [BufferBegin,BufferEnd]. If
+ /// code. This is guaranteed to be in the range [BufferBegin,BufferEnd]. If
/// this pointer is at BufferEnd, it will never move due to code emission, and
/// all code emission requests will be ignored (this is the buffer overflow
/// condition).
/// this pointer is at BufferEnd, it will never move due to code emission, and
/// all code emission requests will be ignored (this is the buffer overflow
/// condition).
/// will create a cycle.
bool WillCreateCycle(SUnit *SU, SUnit *TargetSU);
/// will create a cycle.
bool WillCreateCycle(SUnit *SU, SUnit *TargetSU);
- /// AddPred - Updates the topological ordering to accomodate an edge
+ /// AddPred - Updates the topological ordering to accommodate an edge
/// to be added from SUnit X to SUnit Y.
void AddPred(SUnit *Y, SUnit *X);
/// to be added from SUnit X to SUnit Y.
void AddPred(SUnit *Y, SUnit *X);
- /// RemovePred - Updates the topological ordering to accomodate an
+ /// RemovePred - Updates the topological ordering to accommodate an
/// an edge to be removed from the specified node N from the predecessors
/// of the current node M.
void RemovePred(SUnit *M, SUnit *N);
/// an edge to be removed from the specified node N from the predecessors
/// of the current node M.
void RemovePred(SUnit *M, SUnit *N);
/// These functions only replace all existing uses. It's possible that as
/// these replacements are being performed, CSE may cause the From node
/// to be given new uses. These new uses of From are left in place, and
/// These functions only replace all existing uses. It's possible that as
/// these replacements are being performed, CSE may cause the From node
/// to be given new uses. These new uses of From are left in place, and
- /// not automatically transfered to To.
+ /// not automatically transferred to To.
///
void ReplaceAllUsesWith(SDValue From, SDValue Op,
DAGUpdateListener *UpdateListener = 0);
///
void ReplaceAllUsesWith(SDValue From, SDValue Op,
DAGUpdateListener *UpdateListener = 0);
}
virtual SDValue RunSDNodeXForm(SDValue V, unsigned XFormNo) {
}
virtual SDValue RunSDNodeXForm(SDValue V, unsigned XFormNo) {
- assert(0 && "Tblgen shoudl generate this!");
+ assert(0 && "Tblgen should generate this!");
/// HandleSDNode - This class is used to form a handle around another node that
/// HandleSDNode - This class is used to form a handle around another node that
-/// is persistant and is updated across invocations of replaceAllUsesWith on its
+/// is persistent and is updated across invocations of replaceAllUsesWith on its
/// operand. This node should be directly created by end-users and not added to
/// the AllNodes list.
class HandleSDNode : public SDNode {
/// operand. This node should be directly created by end-users and not added to
/// the AllNodes list.
class HandleSDNode : public SDNode {
///
const MCSection *TLSBSSSection; // Defaults to ".tbss".
///
const MCSection *TLSBSSSection; // Defaults to ".tbss".
- /// TLSTLVSection - Section for thread local structure infomation.
+ /// TLSTLVSection - Section for thread local structure information.
/// Contains the source code name of the variable, visibility and a pointer
/// to the initial value (.tdata or .tbss).
const MCSection *TLSTLVSection; // Defaults to ".tlv".
/// Contains the source code name of the variable, visibility and a pointer
/// to the initial value (.tdata or .tbss).
const MCSection *TLSTLVSection; // Defaults to ".tlv".
/// \param GVsWithCode - Allocating globals with code breaks
/// freeMachineCodeForFunction and is probably unsafe and bad for performance.
/// However, we have clients who depend on this behavior, so we must support
/// \param GVsWithCode - Allocating globals with code breaks
/// freeMachineCodeForFunction and is probably unsafe and bad for performance.
/// However, we have clients who depend on this behavior, so we must support
- /// it. Eventually, when we're willing to break some backwards compatability,
+ /// it. Eventually, when we're willing to break some backwards compatibility,
/// this flag should be flipped to false, so that by default
/// freeMachineCodeForFunction works.
static ExecutionEngine *create(Module *M,
/// this flag should be flipped to false, so that by default
/// freeMachineCodeForFunction works.
static ExecutionEngine *create(Module *M,
//
// Global variables are constant pointers that refer to hunks of space that are
// allocated by either the VM, or by the linker in a static compiler. A global
//
// Global variables are constant pointers that refer to hunks of space that are
// allocated by either the VM, or by the linker in a static compiler. A global
-// variable may have an intial value, which is copied into the executables .data
+// variable may have an initial value, which is copied into the executables .data
// area. Global Constants are required to have initializers.
//
//===----------------------------------------------------------------------===//
// area. Global Constants are required to have initializers.
//
//===----------------------------------------------------------------------===//
/// @brief Represent an integer comparison operator.
class ICmpInst: public CmpInst {
protected:
/// @brief Represent an integer comparison operator.
class ICmpInst: public CmpInst {
protected:
- /// @brief Clone an indentical ICmpInst
+ /// @brief Clone an identical ICmpInst
virtual ICmpInst *clone_impl() const;
public:
/// @brief Constructor with insert-before-instruction semantics.
virtual ICmpInst *clone_impl() const;
public:
/// @brief Constructor with insert-before-instruction semantics.
/// @brief Represents a floating point comparison operator.
class FCmpInst: public CmpInst {
protected:
/// @brief Represents a floating point comparison operator.
class FCmpInst: public CmpInst {
protected:
- /// @brief Clone an indentical FCmpInst
+ /// @brief Clone an identical FCmpInst
virtual FCmpInst *clone_impl() const;
public:
/// @brief Constructor with insert-before-instruction semantics.
virtual FCmpInst *clone_impl() const;
public:
/// @brief Constructor with insert-before-instruction semantics.
/// List of sections in layout order.
llvm::SmallVector<MCSectionData*, 16> SectionOrder;
/// List of sections in layout order.
llvm::SmallVector<MCSectionData*, 16> SectionOrder;
- /// The last fragment which was layed out, or 0 if nothing has been layed
- /// out. Fragments are always layed out in order, so all fragments with a
+ /// The last fragment which was laid out, or 0 if nothing has been laid
+ /// out. Fragments are always laid out in order, so all fragments with a
/// lower ordinal will be up to date.
mutable DenseMap<const MCSectionData*, MCFragment *> LastValidFragment;
/// lower ordinal will be up to date.
mutable DenseMap<const MCSectionData*, MCFragment *> LastValidFragment;
void Invalidate(MCFragment *F);
/// \brief Perform layout for a single fragment, assuming that the previous
void Invalidate(MCFragment *F);
/// \brief Perform layout for a single fragment, assuming that the previous
- /// fragment has already been layed out correctly, and the parent section has
+ /// fragment has already been laid out correctly, and the parent section has
/// been initialized.
void LayoutFragment(MCFragment *Fragment);
/// been initialized.
void LayoutFragment(MCFragment *Fragment);
/// \param DF The fragment the fixup is inside.
/// \param Target [out] On return, the relocatable expression the fixup
/// evaluates to.
/// \param DF The fragment the fixup is inside.
/// \param Target [out] On return, the relocatable expression the fixup
/// evaluates to.
- /// \param Value [out] On return, the value of the fixup as currently layed
+ /// \param Value [out] On return, the value of the fixup as currently laid
/// out.
/// \return Whether the fixup value was fully resolved. This is true if the
/// \arg Value result is fixed, otherwise the value may change due to
/// out.
/// \return Whether the fixup value was fully resolved. This is true if the
/// \arg Value result is fixed, otherwise the value may change due to
MCFragment &F, const MCFixup &Fixup);
public:
MCFragment &F, const MCFixup &Fixup);
public:
- /// Compute the effective fragment size assuming it is layed out at the given
+ /// Compute the effective fragment size assuming it is laid out at the given
/// \arg SectionAddress and \arg FragmentOffset.
uint64_t ComputeFragmentSize(const MCAsmLayout &Layout, const MCFragment &F) const;
/// \arg SectionAddress and \arg FragmentOffset.
uint64_t ComputeFragmentSize(const MCAsmLayout &Layout, const MCFragment &F) const;
// Passes are designed this way so that it is possible to run passes in a cache
// and organizationally optimal order without having to specify it at the front
// end. This allows arbitrary passes to be strung together and have them
// Passes are designed this way so that it is possible to run passes in a cache
// and organizationally optimal order without having to specify it at the front
// end. This allows arbitrary passes to be strung together and have them
-// executed as effeciently as possible.
+// executed as efficiently as possible.
//
// Passes should extend one of the classes below, depending on the guarantees
// that it can make about what will be modified as it is run. For example, most
//
// Passes should extend one of the classes below, depending on the guarantees
// that it can make about what will be modified as it is run. For example, most
const void *DestNodeID, int DestNodePort,
const std::string &Attrs) {
if (SrcNodePort > 64) return; // Eminating from truncated part?
const void *DestNodeID, int DestNodePort,
const std::string &Attrs) {
if (SrcNodePort > 64) return; // Eminating from truncated part?
- if (DestNodePort > 64) DestNodePort = 64; // Targetting the truncated part?
+ if (DestNodePort > 64) DestNodePort = 64; // Targeting the truncated part?
O << "\tNode" << SrcNodeID;
if (SrcNodePort >= 0)
O << "\tNode" << SrcNodeID;
if (SrcNodePort >= 0)
class raw_ostream;
/// DisablePrettyStackTrace - Set this to true to disable this module. This
class raw_ostream;
/// DisablePrettyStackTrace - Set this to true to disable this module. This
- /// might be neccessary if the host application installs its own signal
+ /// might be necessary if the host application installs its own signal
/// handlers which conflict with the ones installed by this module.
/// Defaults to false.
extern bool DisablePrettyStackTrace;
/// handlers which conflict with the ones installed by this module.
/// Defaults to false.
extern bool DisablePrettyStackTrace;
);
/// This function terminates the program.
);
/// This function terminates the program.
- /// @returns true if an error occured.
+ /// @returns true if an error occurred.
/// @see Execute
/// @brief Terminates the program.
bool Kill
/// @see Execute
/// @brief Terminates the program.
bool Kill
/// matches - Match the regex against a given \arg String.
///
/// matches - Match the regex against a given \arg String.
///
- /// \param Matches - If given, on a succesful match this will be filled in
+ /// \param Matches - If given, on a successful match this will be filled in
/// with references to the matched group expressions (inside \arg String),
/// the first group is always the entire pattern.
///
/// with references to the matched group expressions (inside \arg String),
/// the first group is always the entire pattern.
///
//===----------------------------------------------------------------------===//
//
// This file defines some helpful functions for dealing with the possibility of
//===----------------------------------------------------------------------===//
//
// This file defines some helpful functions for dealing with the possibility of
-// unix signals occuring while your program is running.
+// unix signals occurring while your program is running.
//
//===----------------------------------------------------------------------===//
//
//===----------------------------------------------------------------------===//
public:
/// A constant TimeValue representing the smallest time
public:
/// A constant TimeValue representing the smallest time
- /// value permissable by the class. MinTime is some point
+ /// value permissible by the class. MinTime is some point
/// in the distant past, about 300 billion years BCE.
/// @brief The smallest possible time value.
static const TimeValue MinTime;
/// A constant TimeValue representing the largest time
/// in the distant past, about 300 billion years BCE.
/// @brief The smallest possible time value.
static const TimeValue MinTime;
/// A constant TimeValue representing the largest time
- /// value permissable by the class. MaxTime is some point
+ /// value permissible by the class. MaxTime is some point
/// in the distant future, about 300 billion years AD.
/// @brief The largest possible time value.
static const TimeValue MaxTime;
/// in the distant future, about 300 billion years AD.
/// @brief The largest possible time value.
static const TimeValue MaxTime;
}
/// shouldScheduleLoadsNear - This is a used by the pre-regalloc scheduler to
}
/// shouldScheduleLoadsNear - This is a used by the pre-regalloc scheduler to
- /// determine (in conjuction with areLoadsFromSameBasePtr) if two loads should
+ /// determine (in conjunction with areLoadsFromSameBasePtr) if two loads should
/// be scheduled togther. On some targets if two loads are loading from
/// addresses in the same cache line, it's better if they are scheduled
/// together. This function takes two integers that represent the load offsets
/// be scheduled togther. On some targets if two loads are loading from
/// addresses in the same cache line, it's better if they are scheduled
/// together. This function takes two integers that represent the load offsets
}
/// JumpIsExpensive - Tells the code generator not to expand sequence of
}
/// JumpIsExpensive - Tells the code generator not to expand sequence of
- /// operations into a seperate sequences that increases the amount of
+ /// operations into a separate sequences that increases the amount of
/// flow control.
void setJumpIsExpensive(bool isExpensive = true) {
JumpIsExpensive = isExpensive;
/// flow control.
void setJumpIsExpensive(bool isExpensive = true) {
JumpIsExpensive = isExpensive;
///
/// Note that this only does one level of inlining. For example, if the
/// instruction 'call B' is inlined, and 'B' calls 'C', then the call to 'C' now
///
/// Note that this only does one level of inlining. For example, if the
/// instruction 'call B' is inlined, and 'B' calls 'C', then the call to 'C' now
-/// exists in the instruction stream. Similiarly this will inline a recursive
+/// exists in the instruction stream. Similarly this will inline a recursive
/// function by one level.
///
bool InlineFunction(CallInst *C, InlineFunctionInfo &IFI);
/// function by one level.
///
bool InlineFunction(CallInst *C, InlineFunctionInfo &IFI);
/// is refined.
virtual void refineAbstractType(const DerivedType *OldTy, const Type *NewTy);
/// is refined.
virtual void refineAbstractType(const DerivedType *OldTy, const Type *NewTy);
- /// This function markes a type as being concrete (defined).
+ /// This function marks a type as being concrete (defined).
virtual void typeBecameConcrete(const DerivedType *AbsTy);
/// @}
virtual void typeBecameConcrete(const DerivedType *AbsTy);
/// @}
Scale *= IndexScale.getSExtValue();
Scale *= IndexScale.getSExtValue();
- // If we already had an occurrance of this index variable, merge this
+ // If we already had an occurrence of this index variable, merge this
// scale into it. For example, we want to handle:
// A[x][x] -> x*16 + x*4 -> x*20
// This also ensures that 'x' only appears in the index list once.
// scale into it. For example, we want to handle:
// A[x][x] -> x*16 + x*4 -> x*20
// This also ensures that 'x' only appears in the index list once.
if (GEP1BaseOffset == 0 && GEP1VariableIndices.empty())
return MustAlias;
if (GEP1BaseOffset == 0 && GEP1VariableIndices.empty())
return MustAlias;
- // If there is a difference betwen the pointers, but the difference is
+ // If there is a difference between the pointers, but the difference is
// less than the size of the associated memory object, then we know
// that the objects are partially overlapping.
if (GEP1BaseOffset != 0 && GEP1VariableIndices.empty()) {
// less than the size of the associated memory object, then we know
// that the objects are partially overlapping.
if (GEP1BaseOffset != 0 && GEP1VariableIndices.empty()) {
// For the purposes of this analysis, it is conservatively correct to treat
// a newly escaping value equivalently to a deleted one. We could perhaps
// be more precise by processing the new use and attempting to update our
// For the purposes of this analysis, it is conservatively correct to treat
// a newly escaping value equivalently to a deleted one. We could perhaps
// be more precise by processing the new use and attempting to update our
- // saved analysis results to accomodate it.
+ // saved analysis results to accommodate it.
deleteValue(U);
AliasAnalysis::addEscapingUse(U);
deleteValue(U);
AliasAnalysis::addEscapingUse(U);
return InlineCost::getAlways();
if (CalleeFI->Metrics.usesDynamicAlloca) {
return InlineCost::getAlways();
if (CalleeFI->Metrics.usesDynamicAlloca) {
- // Get infomation about the caller.
+ // Get information about the caller.
FunctionInfo &CallerFI = CachedFunctionInfo[Caller];
// If we haven't calculated this information yet, do so now.
FunctionInfo &CallerFI = CachedFunctionInfo[Caller];
// If we haven't calculated this information yet, do so now.
- // Look at the orginal size of the callee. Each instruction counts as 5.
+ // Look at the original size of the callee. Each instruction counts as 5.
Cost += CalleeFI->Metrics.NumInsts * InlineConstants::InstrCost;
// Offset that with the amount of code that can be constant-folded
Cost += CalleeFI->Metrics.NumInsts * InlineConstants::InstrCost;
// Offset that with the amount of code that can be constant-folded
BallLarusEdge* exitEdge = addEdge(node, getExit(), 0);
exitEdge->setType(BallLarusEdge::SPLITEDGE_PHONY);
BallLarusEdge* exitEdge = addEdge(node, getExit(), 0);
exitEdge->setType(BallLarusEdge::SPLITEDGE_PHONY);
- // Counters to handle the possibilty of a multi-graph
+ // Counters to handle the possibility of a multi-graph
BasicBlock* oldTarget = 0;
unsigned duplicateNumber = 0;
BasicBlock* oldTarget = 0;
unsigned duplicateNumber = 0;
ProfilePathEdgeVector* pev = currentPath->getPathEdges();
DEBUG(dbgs () << "path #" << currentPath->getNumber() << ": "
<< currentPath->getCount() << "\n");
ProfilePathEdgeVector* pev = currentPath->getPathEdges();
DEBUG(dbgs () << "path #" << currentPath->getNumber() << ": "
<< currentPath->getCount() << "\n");
- // setup the entry edge (normally path profiling doens't care about this)
+ // setup the entry edge (normally path profiling doesn't care about this)
if (currentPath->getFirstBlockInPath() == &F->getEntryBlock())
edgeArray[arrayMap[0][currentPath->getFirstBlockInPath()][0]]
+= currentPath->getCount();
if (currentPath->getFirstBlockInPath() == &F->getEntryBlock())
edgeArray[arrayMap[0][currentPath->getFirstBlockInPath()][0]]
+= currentPath->getCount();
// loop, thus the edge is a backedge, continue and do not check if the
// value is valid.
if (BBisHeader && BBLoop->contains(*bbi)) {
// loop, thus the edge is a backedge, continue and do not check if the
// value is valid.
if (BBisHeader && BBLoop->contains(*bbi)) {
- printEdgeError(edge, "but is backedge, continueing");
+ printEdgeError(edge, "but is backedge, continuing");
continue;
}
// If the edges value is missing (and this is no loop header, and this is
continue;
}
// If the edges value is missing (and this is no loop header, and this is
-/// Replaces all occurences of RmBB in the ProfilingInfo with DestBB.
+/// Replaces all occurrences of RmBB in the ProfilingInfo with DestBB.
/// This checks all edges of the function the blocks reside in and replaces the
/// This checks all edges of the function the blocks reside in and replaces the
-/// occurences of RmBB with DestBB.
+/// occurrences of RmBB with DestBB.
template<>
void ProfileInfoT<Function,BasicBlock>::
replaceAllUses(const BasicBlock *RmBB, const BasicBlock *DestBB) {
template<>
void ProfileInfoT<Function,BasicBlock>::
replaceAllUses(const BasicBlock *RmBB, const BasicBlock *DestBB) {
- // Check the recieving end of the path if it can handle the flow.
+ // Check the receiving end of the path if it can handle the flow.
double ow = getExecutionCount(Dest);
Processed.clear();
for (succ_const_iterator NBB = succ_begin(BB), End = succ_end(BB);
double ow = getExecutionCount(Dest);
Processed.clear();
for (succ_const_iterator NBB = succ_begin(BB), End = succ_end(BB);
// outer mul and the inner addrec are guaranteed to have no overflow.
//
// No self-wrap cannot be guaranteed after changing the step size, but
// outer mul and the inner addrec are guaranteed to have no overflow.
//
// No self-wrap cannot be guaranteed after changing the step size, but
- // will be infered if either NUW or NSW is true.
+ // will be inferred if either NUW or NSW is true.
Flags = AddRec->getNoWrapFlags(clearFlags(Flags, SCEV::FlagNW));
const SCEV *NewRec = getAddRecExpr(NewOps, AddRecLoop, Flags);
Flags = AddRec->getNoWrapFlags(clearFlags(Flags, SCEV::FlagNW));
const SCEV *NewRec = getAddRecExpr(NewOps, AddRecLoop, Flags);
//
// The second field identifies the type's parent node in the tree, or
// is null or omitted for a root node. A type is considered to alias
//
// The second field identifies the type's parent node in the tree, or
// is null or omitted for a root node. A type is considered to alias
-// all of its decendents and all of its ancestors in the tree. Also,
+// all of its descendants and all of its ancestors in the tree. Also,
// a type is considered to alias all types in other trees, so that
// bitcode produced from multiple front-ends is handled conservatively.
//
// a type is considered to alias all types in other trees, so that
// bitcode produced from multiple front-ends is handled conservatively.
//
- // If we succesfully found a value for each of our subaggregates
+ // If we successfully found a value for each of our subaggregates
} else {
// See if InstructionSimplify knows any relevant tricks.
if (Instruction *I = dyn_cast<Instruction>(V))
} else {
// See if InstructionSimplify knows any relevant tricks.
if (Instruction *I = dyn_cast<Instruction>(V))
- // TODO: Aquire a DominatorTree and use it.
+ // TODO: Acquire a DominatorTree and use it.
if (Value *Simplified = SimplifyInstruction(I, TD, 0)) {
V = Simplified;
continue;
if (Value *Simplified = SimplifyInstruction(I, TD, 0)) {
V = Simplified;
continue;
// Initializers for globals are handled explicitly elsewhere.
} else if (isa<ConstantArray>(C) && cast<ConstantArray>(C)->isString()) {
// Do not enumerate the initializers for an array of simple characters.
// Initializers for globals are handled explicitly elsewhere.
} else if (isa<ConstantArray>(C) && cast<ConstantArray>(C)->isString()) {
// Do not enumerate the initializers for an array of simple characters.
- // The initializers just polute the value table, and we emit the strings
+ // The initializers just pollute the value table, and we emit the strings
// specially.
} else if (C->getNumOperands()) {
// If a constant has operands, enumerate them. This makes sure that if a
// specially.
} else if (C->getNumOperands()) {
// If a constant has operands, enumerate them. This makes sure that if a
RegRefs = State->GetRegRefs();
// Handle dead defs by simulating a last-use of the register just
RegRefs = State->GetRegRefs();
// Handle dead defs by simulating a last-use of the register just
- // after the def. A dead def can occur because the def is truely
+ // after the def. A dead def can occur because the def is truly
// dead, or because only a subregister is live at the def. If we
// don't do this the dead def will be incorrectly merged into the
// previous def.
// dead, or because only a subregister is live at the def. If we
// don't do this the dead def will be incorrectly merged into the
// previous def.
cl::desc("Disable debug info printing"));
static cl::opt<bool> UnknownLocations("use-unknown-locations", cl::Hidden,
cl::desc("Disable debug info printing"));
static cl::opt<bool> UnknownLocations("use-unknown-locations", cl::Hidden,
- cl::desc("Make an absense of debug location information explicit."),
+ cl::desc("Make an absence of debug location information explicit."),
cl::init(false));
#ifndef NDEBUG
cl::init(false));
#ifndef NDEBUG
if (HI + 1 == HE)
// If Begin is the last instruction in History then its value is valid
if (HI + 1 == HE)
// If Begin is the last instruction in History then its value is valid
- // until the end of the funtion.
+ // until the end of the function.
SLabel = FunctionEndSym;
else {
const MachineInstr *End = HI[1];
SLabel = FunctionEndSym;
else {
const MachineInstr *End = HI[1];
// Determine a position to move orphaned loop blocks to. If TopMBB is not
// entered via fallthrough and BotMBB is exited via fallthrough, prepend them
// Determine a position to move orphaned loop blocks to. If TopMBB is not
// entered via fallthrough and BotMBB is exited via fallthrough, prepend them
- // to the top of the loop to avoid loosing that fallthrough. Otherwise append
+ // to the top of the loop to avoid losing that fallthrough. Otherwise append
// them to the bottom, even if it previously had a fallthrough, on the theory
// that it's worth an extra branch to keep the loop contiguous.
MachineFunction::iterator InsertPt =
// them to the bottom, even if it previously had a fallthrough, on the theory
// that it's worth an extra branch to keep the loop contiguous.
MachineFunction::iterator InsertPt =
unsigned Offset; // sh_offset - Offset from the file start
unsigned Size; // sh_size - The section size.
unsigned Link; // sh_link - Section header table index link.
unsigned Offset; // sh_offset - Offset from the file start
unsigned Size; // sh_size - The section size.
unsigned Link; // sh_link - Section header table index link.
- unsigned Info; // sh_info - Auxillary information.
+ unsigned Info; // sh_info - Auxiliary information.
unsigned Align; // sh_addralign - Alignment of section.
unsigned EntSize; // sh_entsize - Size of entries in the section e
unsigned Align; // sh_addralign - Alignment of section.
unsigned EntSize; // sh_entsize - Size of entries in the section e
// Create the object code emitter object for this target.
ElfCE = new ELFCodeEmitter(*this);
// Create the object code emitter object for this target.
ElfCE = new ELFCodeEmitter(*this);
- // Inital number of sections
+ // Initial number of sections
//
//===----------------------------------------------------------------------===//
//
//
//===----------------------------------------------------------------------===//
//
-// Expand Psuedo-instructions produced by ISel. These are usually to allow
+// Expand Pseudo-instructions produced by ISel. These are usually to allow
// the expansion to contain control flow, such as a conditional move
// implemented with a conditional branch and a phi, or an atomic operation
// implemented with a loop.
// the expansion to contain control flow, such as a conditional move
// implemented with a conditional branch and a phi, or an atomic operation
// implemented with a loop.
/// mapVirtReg - Map virtual register to an equivalence class.
void mapVirtReg(unsigned VirtReg, UserValue *EC);
/// mapVirtReg - Map virtual register to an equivalence class.
void mapVirtReg(unsigned VirtReg, UserValue *EC);
- /// renameRegister - Replace all references to OldReg wiht NewReg:SubIdx.
+ /// renameRegister - Replace all references to OldReg with NewReg:SubIdx.
void renameRegister(unsigned OldReg, unsigned NewReg, unsigned SubIdx);
/// emitDebugVariables - Recreate DBG_VALUE instruction from data structures.
void renameRegister(unsigned OldReg, unsigned NewReg, unsigned SubIdx);
/// emitDebugVariables - Recreate DBG_VALUE instruction from data structures.
// ...
// def = ...
// = use
// ...
// def = ...
// = use
- // It's better to start a new interval to avoid artifically
+ // It's better to start a new interval to avoid artificially
// extend the new interval.
if (MI->readsWritesVirtualRegister(li.reg) ==
std::make_pair(false,true)) {
// extend the new interval.
if (MI->readsWritesVirtualRegister(li.reg) ==
std::make_pair(false,true)) {
--BeforeI;
// Restore all registers immediately before the return and any
--BeforeI;
// Restore all registers immediately before the return and any
- // terminators that preceed it.
+ // terminators that precede it.
if (!TFI->restoreCalleeSavedRegisters(*MBB, I, CSI, TRI)) {
for (unsigned i = 0, e = CSI.size(); i != e; ++i) {
unsigned Reg = CSI[i].getReg();
if (!TFI->restoreCalleeSavedRegisters(*MBB, I, CSI, TRI)) {
for (unsigned i = 0, e = CSI.size(); i != e; ++i) {
unsigned Reg = CSI[i].getReg();
--BeforeI;
// Restore all registers immediately before the return and any
--BeforeI;
// Restore all registers immediately before the return and any
- // terminators that preceed it.
+ // terminators that precede it.
for (unsigned i = 0, e = blockCSI.size(); i != e; ++i) {
unsigned Reg = blockCSI[i].getReg();
const TargetRegisterClass *RC = TRI->getMinimalPhysRegClass(Reg);
for (unsigned i = 0, e = blockCSI.size(); i != e; ++i) {
unsigned Reg = blockCSI[i].getReg();
const TargetRegisterClass *RC = TRI->getMinimalPhysRegClass(Reg);
sxth r3, r3
mla r4, r3, lr, r4
sxth r3, r3
mla r4, r3, lr, r4
-It also increase the likelyhood the store may become dead.
+It also increase the likelihood the store may become dead.
//===---------------------------------------------------------------------===//
//===---------------------------------------------------------------------===//
//===---------------------------------------------------------------------===//
//===---------------------------------------------------------------------===//
-Stack coloring improvments:
+Stack coloring improvements:
1. Do proper LiveStackAnalysis on all stack objects including those which are
not spill slots.
1. Do proper LiveStackAnalysis on all stack objects including those which are
not spill slots.
// register class we are trying to allocate. Then add the weight to all
// sub-registers of the super-register even if they are not aliases.
// e.g. allocating for GR32, bh is not used, updating bl spill weight.
// register class we are trying to allocate. Then add the weight to all
// sub-registers of the super-register even if they are not aliases.
// e.g. allocating for GR32, bh is not used, updating bl spill weight.
- // bl should get the same spill weight otherwise it will be choosen
+ // bl should get the same spill weight otherwise it will be chosen
// as a spill candidate since spilling bh doesn't make ebx available.
for (unsigned i = 0, e = Supers.size(); i != e; ++i) {
for (const unsigned *sr = tri_->getSubRegisters(Supers[i]); *sr; ++sr)
// as a spill candidate since spilling bh doesn't make ebx available.
for (unsigned i = 0, e = Supers.size(); i != e; ++i) {
for (const unsigned *sr = tri_->getSubRegisters(Supers[i]); *sr; ++sr)
static cl::opt<std::string>
machineFuncsToRender("rmf-funcs",
static cl::opt<std::string>
machineFuncsToRender("rmf-funcs",
- cl::desc("Coma seperated list of functions to render"
+ cl::desc("Comma separated list of functions to render"
", or \"*\"."),
cl::init(""), cl::Hidden);
", or \"*\"."),
cl::init(""), cl::Hidden);
-/// AddPred - Updates the topological ordering to accomodate an edge
+/// AddPred - Updates the topological ordering to accommodate an edge
/// to be added from SUnit X to SUnit Y.
void ScheduleDAGTopologicalSort::AddPred(SUnit *Y, SUnit *X) {
int UpperBound, LowerBound;
/// to be added from SUnit X to SUnit Y.
void ScheduleDAGTopologicalSort::AddPred(SUnit *Y, SUnit *X) {
int UpperBound, LowerBound;
-/// RemovePred - Updates the topological ordering to accomodate an
+/// RemovePred - Updates the topological ordering to accommodate an
/// an edge to be removed from the specified node N from the predecessors
/// of the current node M.
void ScheduleDAGTopologicalSort::RemovePred(SUnit *M, SUnit *N) {
/// an edge to be removed from the specified node N from the predecessors
/// of the current node M.
void ScheduleDAGTopologicalSort::RemovePred(SUnit *M, SUnit *N) {
// will be overlapped by work done outside the current
// scheduling region.
Latency -= std::min(Latency, Count);
// will be overlapped by work done outside the current
// scheduling region.
Latency -= std::min(Latency, Count);
- // Add the artifical edge.
+ // Add the artificial edge.
ExitSU.addPred(SDep(SU, SDep::Order, Latency,
/*Reg=*/0, /*isNormalMemory=*/false,
/*isMustAlias=*/false,
ExitSU.addPred(SDep(SU, SDep::Order, Latency,
/*Reg=*/0, /*isNormalMemory=*/false,
/*isMustAlias=*/false,
// Only handle legal types. Two interesting things to note here. First,
// by bailing out early, we may leave behind some dead instructions,
// since SelectionDAG's HandlePHINodesInSuccessorBlocks will insert its
// Only handle legal types. Two interesting things to note here. First,
// by bailing out early, we may leave behind some dead instructions,
// since SelectionDAG's HandlePHINodesInSuccessorBlocks will insert its
- // own moves. Second, this check is necessary becuase FastISel doesn't
+ // own moves. Second, this check is necessary because FastISel doesn't
// use CreateRegs to create registers, so it always creates
// exactly one register for each non-void instruction.
EVT VT = TLI.getValueType(PN->getType(), /*AllowUnknown=*/true);
// use CreateRegs to create registers, so it always creates
// exactly one register for each non-void instruction.
EVT VT = TLI.getValueType(PN->getType(), /*AllowUnknown=*/true);
}
case ISD::FP_ROUND_INREG: {
// The only way we can lower this is to turn it into a TRUNCSTORE,
}
case ISD::FP_ROUND_INREG: {
// The only way we can lower this is to turn it into a TRUNCSTORE,
- // EXTLOAD pair, targetting a temporary location (a stack slot).
+ // EXTLOAD pair, targeting a temporary location (a stack slot).
// NOTE: there is a choice here between constantly creating new stack
// slots and always reusing the same one. We currently always create
// NOTE: there is a choice here between constantly creating new stack
// slots and always reusing the same one. We currently always create
-/// ProcessSDDbgValues - Process SDDbgValues assoicated with this node.
+/// ProcessSDDbgValues - Process SDDbgValues associated with this node.
static void ProcessSDDbgValues(SDNode *N, SelectionDAG *DAG,
InstrEmitter &Emitter,
SmallVector<std::pair<unsigned, MachineInstr*>, 32> &Orders,
static void ProcessSDDbgValues(SDNode *N, SelectionDAG *DAG,
InstrEmitter &Emitter,
SmallVector<std::pair<unsigned, MachineInstr*>, 32> &Orders,
// For a function returning void, there is no return value. We can't create
// such a node, so we just return a null return value in that case. In
// For a function returning void, there is no return value. We can't create
// such a node, so we just return a null return value in that case. In
- // that case, nothing will actualy look at the value.
+ // that case, nothing will actually look at the value.
if (ReturnValues.empty())
return std::make_pair(SDValue(), Chain);
if (ReturnValues.empty())
return std::make_pair(SDValue(), Chain);
SDB->setValue(I, Res);
// If this argument is live outside of the entry block, insert a copy from
SDB->setValue(I, Res);
// If this argument is live outside of the entry block, insert a copy from
- // whereever we got it to the vreg that other BB's will reference it as.
+ // wherever we got it to the vreg that other BB's will reference it as.
SDB->CopyToExportRegsIfNeeded(I);
}
}
SDB->CopyToExportRegsIfNeeded(I);
}
}
case ISD::SETTRUE2: return DAG.getConstant(1, VT);
}
case ISD::SETTRUE2: return DAG.getConstant(1, VT);
}
- if (isa<ConstantSDNode>(N0.getNode())) {
- // Ensure that the constant occurs on the RHS, and fold constant
- // comparisons.
+ // Ensure that the constant occurs on the RHS, and fold constant
+ // comparisons.
+ if (isa<ConstantSDNode>(N0.getNode()))
return DAG.getSetCC(dl, VT, N1, N0, ISD::getSetCCSwappedOperands(Cond));
return DAG.getSetCC(dl, VT, N1, N0, ISD::getSetCCSwappedOperands(Cond));
if (ConstantSDNode *N1C = dyn_cast<ConstantSDNode>(N1.getNode())) {
const APInt &C1 = N1C->getAPIntValue();
if (ConstantSDNode *N1C = dyn_cast<ConstantSDNode>(N1.getNode())) {
const APInt &C1 = N1C->getAPIntValue();
// Initialize data flow sets.
clearAnticAvailSets();
// Initialize data flow sets.
clearAnticAvailSets();
- // Calulate Antic{In,Out} and Avail{In,Out} iteratively on the MCFG.
+ // Calculate Antic{In,Out} and Avail{In,Out} iteratively on the MCFG.
bool changed = true;
unsigned iterations = 0;
while (changed) {
bool changed = true;
unsigned iterations = 0;
while (changed) {
}
// We now walk the PHIs in successor blocks and check for interferences. This
}
// We now walk the PHIs in successor blocks and check for interferences. This
- // is necesary because the use of a PHI's operands are logically contained in
+ // is necessary because the use of a PHI's operands are logically contained in
// the predecessor block. The def of a PHI's destination register is processed
// along with the other defs in a basic block.
// the predecessor block. The def of a PHI's destination register is processed
// along with the other defs in a basic block.
STATISTIC(NumDRM , "Number of re-materializable defs elided");
STATISTIC(NumStores , "Number of stores added");
STATISTIC(NumPSpills , "Number of physical register spills");
STATISTIC(NumDRM , "Number of re-materializable defs elided");
STATISTIC(NumStores , "Number of stores added");
STATISTIC(NumPSpills , "Number of physical register spills");
-STATISTIC(NumOmitted , "Number of reloads omited");
+STATISTIC(NumOmitted , "Number of reloads omitted");
STATISTIC(NumAvoided , "Number of reloads deemed unnecessary");
STATISTIC(NumCopified, "Number of available reloads turned into copies");
STATISTIC(NumReMats , "Number of re-materialization");
STATISTIC(NumAvoided , "Number of reloads deemed unnecessary");
STATISTIC(NumCopified, "Number of available reloads turned into copies");
STATISTIC(NumReMats , "Number of re-materialization");
-/// ReMaterialize - Re-materialize definition for Reg targetting DestReg.
+/// ReMaterialize - Re-materialize definition for Reg targeting DestReg.
///
static void ReMaterialize(MachineBasicBlock &MBB,
MachineBasicBlock::iterator &MII,
///
static void ReMaterialize(MachineBasicBlock &MBB,
MachineBasicBlock::iterator &MII,
}
/// getPointerToFunction - This method is used to get the address of the
}
/// getPointerToFunction - This method is used to get the address of the
-/// specified function, compiling it if neccesary.
+/// specified function, compiling it if necessary.
///
void *JIT::getPointerToFunction(Function *F) {
///
void *JIT::getPointerToFunction(Function *F) {
// disassembly is supported by passing a block of information in the DisInfo
// parameter and specifing the TagType and call back functions as described in
// the header llvm-c/Disassembler.h . The pointer to the block and the
// disassembly is supported by passing a block of information in the DisInfo
// parameter and specifing the TagType and call back functions as described in
// the header llvm-c/Disassembler.h . The pointer to the block and the
-// functions can all be passed as NULL. If successfull this returns a
+// functions can all be passed as NULL. If successful this returns a
// disassembler context if not it returns NULL.
//
LLVMDisasmContextRef LLVMCreateDisasm(const char *TripleName, void *DisInfo,
// disassembler context if not it returns NULL.
//
LLVMDisasmContextRef LLVMCreateDisasm(const char *TripleName, void *DisInfo,
// (LHS_A - RHS_B),
// (RHS_A - LHS_B),
// (RHS_A - RHS_B).
// (LHS_A - RHS_B),
// (RHS_A - LHS_B),
// (RHS_A - RHS_B).
- // Since we are attempting to be as aggresive as possible about folding, we
+ // Since we are attempting to be as aggressive as possible about folding, we
// attempt to evaluate each possible alternative.
AttemptToFoldSymbolOffsetDifference(Asm, Layout, Addrs, InSet, LHS_A, LHS_B,
Result_Cst);
// attempt to evaluate each possible alternative.
AttemptToFoldSymbolOffsetDifference(Asm, Layout, Addrs, InSet, LHS_A, LHS_B,
Result_Cst);
// Compensate for the relocation offset, Darwin x86_64 relocations only
// have the addend and appear to have attempted to define it to be the
// actual expression addend without the PCrel bias. However, instructions
// Compensate for the relocation offset, Darwin x86_64 relocations only
// have the addend and appear to have attempted to define it to be the
// actual expression addend without the PCrel bias. However, instructions
- // with data following the relocation are not accomodated for (see comment
+ // with data following the relocation are not accommodated for (see comment
// below regarding SIGNED{1,2,4}), so it isn't exactly that either.
Value += 1LL << Log2Size;
}
// below regarding SIGNED{1,2,4}), so it isn't exactly that either.
Value += 1LL << Log2Size;
}
}
// x86_64 almost always uses external relocations, except when there is no
}
// x86_64 almost always uses external relocations, except when there is no
- // symbol to use as a base address (a local symbol with no preceeding
+ // symbol to use as a base address (a local symbol with no preceding
// non-local symbol).
if (Base) {
Index = Base->getIndex();
// non-local symbol).
if (Base) {
Index = Base->getIndex();
}
bool APFloat::getExactInverse(APFloat *inv) const {
}
bool APFloat::getExactInverse(APFloat *inv) const {
- // We can only guarantee the existance of an exact inverse for IEEE floats.
+ // We can only guarantee the existence of an exact inverse for IEEE floats.
if (semantics != &IEEEhalf && semantics != &IEEEsingle &&
semantics != &IEEEdouble && semantics != &IEEEquad)
return false;
if (semantics != &IEEEhalf && semantics != &IEEEsingle &&
semantics != &IEEEdouble && semantics != &IEEEquad)
return false;
/// Requires that the divisor not be 0. Taken from "Hacker's Delight", Henry
/// S. Warren, Jr., chapter 10.
/// LeadingZeros can be used to simplify the calculation if the upper bits
/// Requires that the divisor not be 0. Taken from "Hacker's Delight", Henry
/// S. Warren, Jr., chapter 10.
/// LeadingZeros can be used to simplify the calculation if the upper bits
-/// of the devided value are known zero.
+/// of the divided value are known zero.
APInt::mu APInt::magicu(unsigned LeadingZeros) const {
const APInt& d = *this;
unsigned p;
APInt::mu APInt::magicu(unsigned LeadingZeros) const {
const APInt& d = *this;
unsigned p;
- // Now its safe to mmap the files into memory becasue both files
+ // Now its safe to mmap the files into memory because both files
// have a non-zero size.
error_code ec;
OwningPtr<MemoryBuffer> F1;
// have a non-zero size.
error_code ec;
OwningPtr<MemoryBuffer> F1;
//===----------------------------------------------------------------------===//
//
// This file defines some helpful functions for dealing with the possibility of
//===----------------------------------------------------------------------===//
//
// This file defines some helpful functions for dealing with the possibility of
-// Unix signals occuring while your program is running.
+// Unix signals occurring while your program is running.
//
//===----------------------------------------------------------------------===//
//
//===----------------------------------------------------------------------===//
//===----------------------------------------------------------------------===//
//
// This file defines some helpful functions for dealing with the possibility of
//===----------------------------------------------------------------------===//
//
// This file defines some helpful functions for dealing with the possibility of
-// Unix signals occuring while your program is running.
+// Unix signals occurring while your program is running.
//
//===----------------------------------------------------------------------===//
//
//===----------------------------------------------------------------------===//
/// find - Search for the first string \arg Str in the string.
///
/// find - Search for the first string \arg Str in the string.
///
-/// \return - The index of the first occurence of \arg Str, or npos if not
+/// \return - The index of the first occurrence of \arg Str, or npos if not
/// found.
size_t StringRef::find(StringRef Str, size_t From) const {
size_t N = Str.size();
/// found.
size_t StringRef::find(StringRef Str, size_t From) const {
size_t N = Str.size();
/// rfind - Search for the last string \arg Str in the string.
///
/// rfind - Search for the last string \arg Str in the string.
///
-/// \return - The index of the last occurence of \arg Str, or npos if not
+/// \return - The index of the last occurrence of \arg Str, or npos if not
/// found.
size_t StringRef::rfind(StringRef Str) const {
size_t N = Str.size();
/// found.
size_t StringRef::rfind(StringRef Str) const {
size_t N = Str.size();
// Create a child process.
int child = fork();
switch (child) {
// Create a child process.
int child = fork();
switch (child) {
- // An error occured: Return to the caller.
+ // An error occurred: Return to the caller.
case -1:
MakeErrMsg(ErrMsg, "Couldn't fork");
return false;
case -1:
MakeErrMsg(ErrMsg, "Couldn't fork");
return false;
//===----------------------------------------------------------------------===//
//
// This file defines some helpful functions for dealing with the possibility of
//===----------------------------------------------------------------------===//
//
// This file defines some helpful functions for dealing with the possibility of
-// Unix signals occuring while your program is running.
+// Unix signals occurring while your program is running.
//
//===----------------------------------------------------------------------===//
//
//===----------------------------------------------------------------------===//
return;
}
// Tail jump branches are really just branch instructions with additional
return;
}
// Tail jump branches are really just branch instructions with additional
- // code-gen attributes. Convert them to the cannonical form here.
+ // code-gen attributes. Convert them to the canonical form here.
case ARM::TAILJMPd:
case ARM::TAILJMPdND: {
MCInst TmpInst, TmpInst2;
case ARM::TAILJMPd:
case ARM::TAILJMPdND: {
MCInst TmpInst, TmpInst2;
}
/// shouldScheduleLoadsNear - This is a used by the pre-regalloc scheduler to
}
/// shouldScheduleLoadsNear - This is a used by the pre-regalloc scheduler to
-/// determine (in conjuction with areLoadsFromSameBasePtr) if two loads should
+/// determine (in conjunction with areLoadsFromSameBasePtr) if two loads should
/// be scheduled togther. On some targets if two loads are loading from
/// addresses in the same cache line, it's better if they are scheduled
/// together. This function takes two integers that represent the load offsets
/// be scheduled togther. On some targets if two loads are loading from
/// addresses in the same cache line, it's better if they are scheduled
/// together. This function takes two integers that represent the load offsets
int64_t &Offset1, int64_t &Offset2)const;
/// shouldScheduleLoadsNear - This is a used by the pre-regalloc scheduler to
int64_t &Offset1, int64_t &Offset2)const;
/// shouldScheduleLoadsNear - This is a used by the pre-regalloc scheduler to
- /// determine (in conjuction with areLoadsFromSameBasePtr) if two loads should
+ /// determine (in conjunction with areLoadsFromSameBasePtr) if two loads should
/// be scheduled togther. On some targets if two loads are loading from
/// addresses in the same cache line, it's better if they are scheduled
/// together. This function takes two integers that represent the load offsets
/// be scheduled togther. On some targets if two loads are loading from
/// addresses in the same cache line, it's better if they are scheduled
/// together. This function takes two integers that represent the load offsets
getReservedRegs(const MachineFunction &MF) const {
const TargetFrameLowering *TFI = MF.getTarget().getFrameLowering();
getReservedRegs(const MachineFunction &MF) const {
const TargetFrameLowering *TFI = MF.getTarget().getFrameLowering();
- // FIXME: avoid re-calculating this everytime.
+ // FIXME: avoid re-calculating this every time.
BitVector Reserved(getNumRegs());
Reserved.set(ARM::SP);
Reserved.set(ARM::PC);
BitVector Reserved(getNumRegs());
Reserved.set(ARM::SP);
Reserved.set(ARM::PC);
// pressure of the register class's representative and all of it's super
// classes' representatives transitively. We have not implemented this because
// of the difficulty prior to coalescing of modeling operand register classes
// pressure of the register class's representative and all of it's super
// classes' representatives transitively. We have not implemented this because
// of the difficulty prior to coalescing of modeling operand register classes
-// due to the common occurence of cross class copies and subregister insertions
+// due to the common occurrence of cross class copies and subregister insertions
// and extractions.
std::pair<const TargetRegisterClass*, uint8_t>
ARMTargetLowering::findRepresentativeClass(EVT VT) const{
// and extractions.
std::pair<const TargetRegisterClass*, uint8_t>
ARMTargetLowering::findRepresentativeClass(EVT VT) const{
// than necessary, because it means that each store effectively depends
// on every argument instead of just those arguments it would clobber.
// than necessary, because it means that each store effectively depends
// on every argument instead of just those arguments it would clobber.
- // Do not flag preceeding copytoreg stuff together with the following stuff.
+ // Do not flag preceding copytoreg stuff together with the following stuff.
InFlag = SDValue();
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
Chain = DAG.getCopyToReg(Chain, dl, RegsToPass[i].first,
InFlag = SDValue();
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
Chain = DAG.getCopyToReg(Chain, dl, RegsToPass[i].first,
// here, and we're using the stack frame for the containing function to
// save/restore registers, we can't keep anything live in regs across
// the eh_sjlj_setjmp(), else it will almost certainly have been tromped upon
// here, and we're using the stack frame for the containing function to
// save/restore registers, we can't keep anything live in regs across
// the eh_sjlj_setjmp(), else it will almost certainly have been tromped upon
-// when we get here from a longjmp(). We force everthing out of registers
+// when we get here from a longjmp(). We force everything out of registers
// except for our own input by listing the relevant registers in Defs. By
// doing so, we also cause the prologue/epilogue code to actively preserve
// all of the callee-saved resgisters, which is exactly what we want.
// except for our own input by listing the relevant registers in Defs. By
// doing so, we also cause the prologue/epilogue code to actively preserve
// all of the callee-saved resgisters, which is exactly what we want.
// from some other function to get here, and we're using the stack frame for the
// containing function to save/restore registers, we can't keep anything live in
// regs across the eh_sjlj_setjmp(), else it will almost certainly have been
// from some other function to get here, and we're using the stack frame for the
// containing function to save/restore registers, we can't keep anything live in
// regs across the eh_sjlj_setjmp(), else it will almost certainly have been
-// tromped upon when we get here from a longjmp(). We force everthing out of
+// tromped upon when we get here from a longjmp(). We force everything out of
// registers except for our own input by listing the relevant registers in
// Defs. By doing so, we also cause the prologue/epilogue code to actively
// preserve all of the callee-saved resgisters, which is exactly what we want.
// registers except for our own input by listing the relevant registers in
// Defs. By doing so, we also cause the prologue/epilogue code to actively
// preserve all of the callee-saved resgisters, which is exactly what we want.
// here, and we're using the stack frame for the containing function to
// save/restore registers, we can't keep anything live in regs across
// the eh_sjlj_setjmp(), else it will almost certainly have been tromped upon
// here, and we're using the stack frame for the containing function to
// save/restore registers, we can't keep anything live in regs across
// the eh_sjlj_setjmp(), else it will almost certainly have been tromped upon
-// when we get here from a longjmp(). We force everthing out of registers
+// when we get here from a longjmp(). We force everything out of registers
// except for our own input by listing the relevant registers in Defs. By
// doing so, we also cause the prologue/epilogue code to actively preserve
// all of the callee-saved resgisters, which is exactly what we want.
// except for our own input by listing the relevant registers in Defs. By
// doing so, we also cause the prologue/epilogue code to actively preserve
// all of the callee-saved resgisters, which is exactly what we want.
MergeLDR_STR(MBB, 0, CurrBase, CurrOpc, CurrSize,
CurrPred, CurrPredReg, Scratch, MemOps, Merges);
MergeLDR_STR(MBB, 0, CurrBase, CurrOpc, CurrSize,
CurrPred, CurrPredReg, Scratch, MemOps, Merges);
- // Try folding preceeding/trailing base inc/dec into the generated
+ // Try folding preceding/trailing base inc/dec into the generated
// LDM/STM ops.
for (unsigned i = 0, e = Merges.size(); i < e; ++i)
if (MergeBaseUpdateLSMultiple(MBB, Merges[i], Advance, MBBI))
++NumMerges;
NumMerges += Merges.size();
// LDM/STM ops.
for (unsigned i = 0, e = Merges.size(); i < e; ++i)
if (MergeBaseUpdateLSMultiple(MBB, Merges[i], Advance, MBBI))
++NumMerges;
NumMerges += Merges.size();
- // Try folding preceeding/trailing base inc/dec into those load/store
+ // Try folding preceding/trailing base inc/dec into those load/store
// that were not merged to form LDM/STM ops.
for (unsigned i = 0; i != NumMemOps; ++i)
if (!MemOps[i].Merged)
// that were not merged to form LDM/STM ops.
for (unsigned i = 0; i != NumMemOps; ++i)
if (!MemOps[i].Merged)
// RS may be pointing to an instruction that's deleted.
RS->skipTo(prior(MBBI));
} else if (NumMemOps == 1) {
// RS may be pointing to an instruction that's deleted.
RS->skipTo(prior(MBBI));
} else if (NumMemOps == 1) {
- // Try folding preceeding/trailing base inc/dec into the single
+ // Try folding preceding/trailing base inc/dec into the single
// load/store.
if (MergeBaseUpdateLoadStore(MBB, MemOps[0].MBBI, TII, Advance, MBBI)) {
++NumMerges;
// load/store.
if (MergeBaseUpdateLoadStore(MBB, MemOps[0].MBBI, TII, Advance, MBBI)) {
++NumMerges;
}
/// MergeReturnIntoLDM - If this is a exit BB, try merging the return ops
}
/// MergeReturnIntoLDM - If this is a exit BB, try merging the return ops
-/// ("bx lr" and "mov pc, lr") into the preceeding stack restore so it
+/// ("bx lr" and "mov pc, lr") into the preceding stack restore so it
/// directly restore the value of LR into pc.
/// ldmfd sp!, {..., lr}
/// bx lr
/// directly restore the value of LR into pc.
/// ldmfd sp!, {..., lr}
/// bx lr
// This requires 4-byte alignment.
if ((Align & 3) != 0)
return SDValue();
// This requires 4-byte alignment.
if ((Align & 3) != 0)
return SDValue();
- // This requires the copy size to be a constant, preferrably
+ // This requires the copy size to be a constant, preferably
// within a subtarget-specific limit.
ConstantSDNode *ConstantSize = dyn_cast<ConstantSDNode>(Size);
if (!ConstantSize)
// within a subtarget-specific limit.
ConstantSDNode *ConstantSize = dyn_cast<ConstantSDNode>(Size);
if (!ConstantSize)
//===----------------------------------------------------------------------===//
def FeatureCIX : SubtargetFeature<"cix", "HasCT", "true",
//===----------------------------------------------------------------------===//
def FeatureCIX : SubtargetFeature<"cix", "HasCT", "true",
- "Enable CIX extentions">;
+ "Enable CIX extensions">;
//===----------------------------------------------------------------------===//
// Register File Description
//===----------------------------------------------------------------------===//
// Register File Description
// Build a sequence of copy-to-reg nodes chained together with token chain and
// flag operands which copy the outgoing args into registers. The InFlag in
// Build a sequence of copy-to-reg nodes chained together with token chain and
// flag operands which copy the outgoing args into registers. The InFlag in
- // necessary since all emited instructions must be stuck together.
+ // necessary since all emitted instructions must be stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
Chain = DAG.getCopyToReg(Chain, dl, RegsToPass[i].first,
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
Chain = DAG.getCopyToReg(Chain, dl, RegsToPass[i].first,
//WMB Mfc 18.4400 Write memory barrier
//MF_FPCR F-P 17.025 Move from FPCR
//MT_FPCR F-P 17.024 Move to FPCR
//WMB Mfc 18.4400 Write memory barrier
//MF_FPCR F-P 17.025 Move from FPCR
//MT_FPCR F-P 17.024 Move to FPCR
-//There are in the Multimedia extentions, so let's not use them yet
+//There are in the Multimedia extensions, so let's not use them yet
//def MAXSB8 : OForm<0x1C, 0x3E, "MAXSB8 $RA,$RB,$RC">; //Vector signed byte maximum
//def MAXSW4 : OForm< 0x1C, 0x3F, "MAXSW4 $RA,$RB,$RC">; //Vector signed word maximum
//def MAXUB8 : OForm<0x1C, 0x3C, "MAXUB8 $RA,$RB,$RC">; //Vector unsigned byte maximum
//def MAXSB8 : OForm<0x1C, 0x3E, "MAXSB8 $RA,$RB,$RC">; //Vector signed byte maximum
//def MAXSW4 : OForm< 0x1C, 0x3F, "MAXSW4 $RA,$RB,$RC">; //Vector signed word maximum
//def MAXUB8 : OForm<0x1C, 0x3C, "MAXUB8 $RA,$RB,$RC">; //Vector unsigned byte maximum
(MIN|MAX)(U|S)(B8|W4) min and max, signed and unsigned, byte and word
PKWB, UNPKBW pack/unpack word to byte
PKLB UNPKBL pack/unpack long to byte
(MIN|MAX)(U|S)(B8|W4) min and max, signed and unsigned, byte and word
PKWB, UNPKBW pack/unpack word to byte
PKLB UNPKBL pack/unpack long to byte
-PERR pixel error (sum accross bytes of bytewise abs(i8v8 a - i8v8 b))
+PERR pixel error (sum across bytes of bytewise abs(i8v8 a - i8v8 b))
-cmpbytes bytewise cmpeq of i8v8 a and i8v8 b (not part of MVI extentions)
+cmpbytes bytewise cmpeq of i8v8 a and i8v8 b (not part of MVI extensions)
this has some good examples for other operations that can be synthesised well
from these rather meager vector ops (such as saturating add).
this has some good examples for other operations that can be synthesised well
from these rather meager vector ops (such as saturating add).
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
- // The InFlag in necessary since all emited instructions must be
+ // The InFlag in necessary since all emitted instructions must be
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
// 5. The code sequences for r64 and v2i64 are probably overly conservative,
// compared to the code that gcc produces.
//
// 5. The code sequences for r64 and v2i64 are probably overly conservative,
// compared to the code that gcc produces.
//
-// M00$E B!tes Kan be Pretty N@sTi!!!!! (appologies to Monty!)
+// M00$E B!tes Kan be Pretty N@sTi!!!!! (apologies to Monty!)
//-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~
// selb instruction definition for i64. Note that the selection mask is
//-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~-~
// selb instruction definition for i64. Note that the selection mask is
- // Shift the low similarily
+ // Shift the low similarly
// TODO: add SPUISD::SHL_BYTES
low = DAG.getNode(SPUISD::SHL_BYTES, dl, MVT::i128, low, offset );
// TODO: add SPUISD::SHL_BYTES
low = DAG.getNode(SPUISD::SHL_BYTES, dl, MVT::i128, low, offset );
F->insert(It, loop);
F->insert(It, finish);
F->insert(It, loop);
F->insert(It, finish);
- // Update machine-CFG edges by transfering adding all successors and
+ // Update machine-CFG edges by transferring adding all successors and
// remaining instructions from the current block to the new block which
// will contain the Phi node for the select.
finish->splice(finish->begin(), MBB,
// remaining instructions from the current block to the new block which
// will contain the Phi node for the select.
finish->splice(finish->begin(), MBB,
F->insert(It, start);
F->insert(It, exit);
F->insert(It, start);
F->insert(It, exit);
- // Update machine-CFG edges by transfering adding all successors and
+ // Update machine-CFG edges by transferring adding all successors and
// remaining instructions from the current block to the new block which
// will contain the Phi node for the select.
exit->splice(exit->begin(), MBB, llvm::next(MachineBasicBlock::iterator(MI)),
// remaining instructions from the current block to the new block which
// will contain the Phi node for the select.
exit->splice(exit->begin(), MBB, llvm::next(MachineBasicBlock::iterator(MI)),
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
- // The InFlag in necessary since all emited instructions must be
+ // The InFlag in necessary since all emitted instructions must be
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
//===----------------------------------------------------------------------===//
//===----------------------------------------------------------------------===//
//===----------------------------------------------------------------------===//
//===----------------------------------------------------------------------===//
-// MBlaze instruction itineraries for the threee stage pipeline.
+// MBlaze instruction itineraries for the three stage pipeline.
//===----------------------------------------------------------------------===//
def MBlazePipe3Itineraries : ProcessorItineraries<
[IF,ID,EX], [], [
//===----------------------------------------------------------------------===//
def MBlazePipe3Itineraries : ProcessorItineraries<
[IF,ID,EX], [], [
// Build a sequence of copy-to-reg nodes chained together with token chain and
// flag operands which copy the outgoing args into registers. The InFlag in
// Build a sequence of copy-to-reg nodes chained together with token chain and
// flag operands which copy the outgoing args into registers. The InFlag in
- // necessary since all emited instructions must be stuck together.
+ // necessary since all emitted instructions must be stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
Chain = DAG.getCopyToReg(Chain, dl, RegsToPass[i].first,
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
Chain = DAG.getCopyToReg(Chain, dl, RegsToPass[i].first,
def : Proc<"4ke", [FeatureMips32r2]>;
def : Proc<"4ke", [FeatureMips32r2]>;
-// Allegrex is a 32bit subset of r4000, both for interger and fp registers,
+// Allegrex is a 32bit subset of r4000, both for integer and fp registers,
// but much more similar to Mips2 than Mips3. It also contains some of
// Mips32/Mips32r2 instructions and a custom vector fpu processor.
def : Proc<"allegrex", [FeatureMips2, FeatureSingleFloat, FeatureEABI,
// but much more similar to Mips2 than Mips3. It also contains some of
// Mips32/Mips32r2 instructions and a custom vector fpu processor.
def : Proc<"allegrex", [FeatureMips2, FeatureSingleFloat, FeatureEABI,
if (ATUsed)
BuildMI(MBB, MBBI, dl, TII.get(Mips::ATMACRO));
if (ATUsed)
BuildMI(MBB, MBBI, dl, TII.get(Mips::ATMACRO));
- // Save the return address only if the function isnt a leaf one.
+ // Save the return address only if the function isn't a leaf one.
// sw $ra, stack_loc($sp)
if (MFI->adjustsStack()) {
ATUsed = expandRegLargeImmPair(Mips::SP, RAOffset, NewReg, NewImm, MBB,
// sw $ra, stack_loc($sp)
if (MFI->adjustsStack()) {
ATUsed = expandRegLargeImmPair(Mips::SP, RAOffset, NewReg, NewImm, MBB,
BuildMI(MBB, MBBI, dl, TII.get(Mips::ATMACRO));
}
BuildMI(MBB, MBBI, dl, TII.get(Mips::ATMACRO));
}
- // Restore the return address only if the function isnt a leaf one.
+ // Restore the return address only if the function isn't a leaf one.
// lw $ra, stack_loc($sp)
if (MFI->adjustsStack()) {
ATUsed = expandRegLargeImmPair(Mips::SP, RAOffset, NewReg, NewImm, MBB,
// lw $ra, stack_loc($sp)
if (MFI->adjustsStack()) {
ATUsed = expandRegLargeImmPair(Mips::SP, RAOffset, NewReg, NewImm, MBB,
SDValue CondRes = CreateFPCmp(DAG, Op.getOperand(1));
SDValue CondRes = CreateFPCmp(DAG, Op.getOperand(1));
- // Return if flag is not set by a floating point comparision.
+ // Return if flag is not set by a floating point comparison.
if (CondRes.getOpcode() != MipsISD::FPCmp)
return Op;
if (CondRes.getOpcode() != MipsISD::FPCmp)
return Op;
{
SDValue Cond = CreateFPCmp(DAG, Op.getOperand(0));
{
SDValue Cond = CreateFPCmp(DAG, Op.getOperand(0));
- // Return if flag is not set by a floating point comparision.
+ // Return if flag is not set by a floating point comparison.
if (Cond.getOpcode() != MipsISD::FPCmp)
return Op;
if (Cond.getOpcode() != MipsISD::FPCmp)
return Op;
// gp_rel relocation
// FIXME: we should reference the constant pool using small data sections,
// gp_rel relocation
// FIXME: we should reference the constant pool using small data sections,
- // but the asm printer currently doens't support this feature without
+ // but the asm printer currently doesn't support this feature without
// hacking it. This feature should come soon so we can uncomment the
// stuff below.
//if (IsInSmallSection(C->getType())) {
// hacking it. This feature should come soon so we can uncomment the
// stuff below.
//if (IsInSmallSection(C->getType())) {
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
- // The InFlag in necessary since all emited instructions must be
+ // The InFlag in necessary since all emitted instructions must be
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
// Create a stack location to hold GP when PIC is used. This stack
// location is used on function prologue to save GP and also after all
// Create a stack location to hold GP when PIC is used. This stack
// location is used on function prologue to save GP and also after all
- // emited CALL's to restore GP.
+ // emitted CALL's to restore GP.
if (IsPIC) {
// Function can have an arbitrary number of calls, so
// hold the LastArgStackLoc with the biggest offset.
if (IsPIC) {
// Function can have an arbitrary number of calls, so
// hold the LastArgStackLoc with the biggest offset.
"sdc1 $ft, $addr", [(store AFGR64:$ft, addr:$addr)]>;
}
"sdc1 $ft, $addr", [(store AFGR64:$ft, addr:$addr)]>;
}
-// LWC1 and SWC1 can always be emited with odd registers.
+// LWC1 and SWC1 can always be emitted with odd registers.
def LWC1 : FFI<0b110001, (outs FGR32:$ft), (ins mem:$addr), "lwc1 $ft, $addr",
[(set FGR32:$ft, (load addr:$addr))]>;
def SWC1 : FFI<0b111001, (outs), (ins FGR32:$ft, mem:$addr), "swc1 $ft, $addr",
def LWC1 : FFI<0b110001, (outs FGR32:$ft), (ins mem:$addr), "lwc1 $ft, $addr",
[(set FGR32:$ft, (load addr:$addr))]>;
def SWC1 : FFI<0b111001, (outs), (ins FGR32:$ft, mem:$addr), "swc1 $ft, $addr",
}
/// CalculateTailCallSPDiff - Get the amount the stack pointer has to be
}
/// CalculateTailCallSPDiff - Get the amount the stack pointer has to be
-/// adjusted to accomodate the arguments for the tailcall.
+/// adjusted to accommodate the arguments for the tailcall.
static int CalculateTailCallSPDiff(SelectionDAG& DAG, bool isTailCall,
unsigned ParamSize) {
static int CalculateTailCallSPDiff(SelectionDAG& DAG, bool isTailCall,
unsigned ParamSize) {
// Emit a sequence of copyto/copyfrom virtual registers for arguments that
// might overwrite each other in case of tail call optimization.
SmallVector<SDValue, 8> MemOpChains2;
// Emit a sequence of copyto/copyfrom virtual registers for arguments that
// might overwrite each other in case of tail call optimization.
SmallVector<SDValue, 8> MemOpChains2;
- // Do not flag preceeding copytoreg stuff together with the following stuff.
+ // Do not flag preceding copytoreg stuff together with the following stuff.
InFlag = SDValue();
StoreTailCallArgumentsToStackSlot(DAG, Chain, TailCallArguments,
MemOpChains2, dl);
InFlag = SDValue();
StoreTailCallArgumentsToStackSlot(DAG, Chain, TailCallArguments,
MemOpChains2, dl);
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
- // The InFlag in necessary since all emited instructions must be
+ // The InFlag in necessary since all emitted instructions must be
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
// Build a sequence of copy-to-reg nodes chained together with token chain and
// flag operands which copy the outgoing args into registers. The InFlag in
// Build a sequence of copy-to-reg nodes chained together with token chain and
// flag operands which copy the outgoing args into registers. The InFlag in
- // necessary since all emited instructions must be stuck together.
+ // necessary since all emitted instructions must be stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
Chain = DAG.getCopyToReg(Chain, dl, RegsToPass[i].first,
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
Chain = DAG.getCopyToReg(Chain, dl, RegsToPass[i].first,
consumed___ indicates that the byte was already consumed and does not
need to be consumed again */
consumed___ indicates that the byte was already consumed and does not
need to be consumed again */
- /* The VEX.vvvv field, which contains a thrid register operand for some AVX
+ /* The VEX.vvvv field, which contains a third register operand for some AVX
instructions */
Reg vvvv;
instructions */
Reg vvvv;
-Seems like the jb branch has high likelyhood of being taken. It would have
+Seems like the jb branch has high likelihood of being taken. It would have
saved a few instructions.
//===---------------------------------------------------------------------===//
saved a few instructions.
//===---------------------------------------------------------------------===//
processors. GCC does two optimizations:
1. ix86_pad_returns inserts a noop before ret instructions if immediately
processors. GCC does two optimizations:
1. ix86_pad_returns inserts a noop before ret instructions if immediately
- preceeded by a conditional branch or is the target of a jump.
+ preceded by a conditional branch or is the target of a jump.
2. ix86_avoid_jump_misspredicts inserts noops in cases where a 16-byte block of
code contains more than 3 branches.
2. ix86_avoid_jump_misspredicts inserts noops in cases where a 16-byte block of
code contains more than 3 branches.
//
//===----------------------------------------------------------------------===//
//
//
//===----------------------------------------------------------------------===//
//
-// This is a target description file for the Intel i386 architecture, refered to
+// This is a target description file for the Intel i386 architecture, referred to
// here as the "X86" architecture.
//
//===----------------------------------------------------------------------===//
// here as the "X86" architecture.
//
//===----------------------------------------------------------------------===//
// set up by FpSET_ST0, and our StackTop is off by one because of it.
unsigned Op0 = getFPReg(MI->getOperand(0));
// Restore the actual StackTop from before Fp_SET_ST0.
// set up by FpSET_ST0, and our StackTop is off by one because of it.
unsigned Op0 = getFPReg(MI->getOperand(0));
// Restore the actual StackTop from before Fp_SET_ST0.
- // Note we can't handle Fp_SET_ST1 without a preceeding Fp_SET_ST0, and we
+ // Note we can't handle Fp_SET_ST1 without a preceding Fp_SET_ST0, and we
// are not enforcing the constraint.
++StackTop;
unsigned RegOnTop = getStackEntry(0); // This reg must remain in st(0).
// are not enforcing the constraint.
++StackTop;
unsigned RegOnTop = getStackEntry(0); // This reg must remain in st(0).
// FIXME: This is dirty hack. The code itself is pretty mess right now.
// It should be rewritten from scratch and generalized sometimes.
// FIXME: This is dirty hack. The code itself is pretty mess right now.
// It should be rewritten from scratch and generalized sometimes.
- // Determine maximum offset (minumum due to stack growth).
+ // Determine maximum offset (minimum due to stack growth).
int64_t MaxOffset = 0;
for (std::vector<CalleeSavedInfo>::const_iterator
I = CSI.begin(), E = CSI.end(); I != E; ++I)
int64_t MaxOffset = 0;
for (std::vector<CalleeSavedInfo>::const_iterator
I = CSI.begin(), E = CSI.end(); I != E; ++I)
assert(Offset >= 0 && "Offset should never be negative");
if (Offset) {
assert(Offset >= 0 && "Offset should never be negative");
if (Offset) {
- // Check for possible merge with preceeding ADD instruction.
+ // Check for possible merge with preceding ADD instruction.
Offset += mergeSPUpdates(MBB, MBBI, StackPtr, true);
emitSPUpdate(MBB, MBBI, StackPtr, Offset, Is64Bit, TII, *RegInfo);
}
Offset += mergeSPUpdates(MBB, MBBI, StackPtr, true);
emitSPUpdate(MBB, MBBI, StackPtr, Offset, Is64Bit, TII, *RegInfo);
}
int delta = -1*X86FI->getTCReturnAddrDelta();
MBBI = MBB.getLastNonDebugInstr();
int delta = -1*X86FI->getTCReturnAddrDelta();
MBBI = MBB.getLastNonDebugInstr();
- // Check for possible merge with preceeding ADD instruction.
+ // Check for possible merge with preceding ADD instruction.
delta += mergeSPUpdates(MBB, MBBI, StackPtr, true);
emitSPUpdate(MBB, MBBI, StackPtr, delta, Is64Bit, TII, *RegInfo);
}
delta += mergeSPUpdates(MBB, MBBI, StackPtr, true);
emitSPUpdate(MBB, MBBI, StackPtr, delta, Is64Bit, TII, *RegInfo);
}
return SDValue(OutRetAddr.getNode(), 1);
}
return SDValue(OutRetAddr.getNode(), 1);
}
-/// EmitTailCallStoreRetAddr - Emit a store of the return adress if tail call
+/// EmitTailCallStoreRetAddr - Emit a store of the return address if tail call
/// optimization is performed and it is required (FPDiff!=0).
static SDValue
EmitTailCallStoreRetAddr(SelectionDAG & DAG, MachineFunction &MF,
/// optimization is performed and it is required (FPDiff!=0).
static SDValue
EmitTailCallStoreRetAddr(SelectionDAG & DAG, MachineFunction &MF,
Chain = DAG.getCALLSEQ_START(Chain, DAG.getIntPtrConstant(NumBytes, true));
SDValue RetAddrFrIdx;
Chain = DAG.getCALLSEQ_START(Chain, DAG.getIntPtrConstant(NumBytes, true));
SDValue RetAddrFrIdx;
- // Load return adress for tail calls.
+ // Load return address for tail calls.
if (isTailCall && FPDiff)
Chain = EmitTailCallLoadRetAddr(DAG, RetAddrFrIdx, Chain, isTailCall,
Is64Bit, FPDiff, dl);
if (isTailCall && FPDiff)
Chain = EmitTailCallLoadRetAddr(DAG, RetAddrFrIdx, Chain, isTailCall,
Is64Bit, FPDiff, dl);
SmallVector<SDValue, 8> MemOpChains2;
SDValue FIN;
int FI = 0;
SmallVector<SDValue, 8> MemOpChains2;
SDValue FIN;
int FI = 0;
- // Do not flag preceeding copytoreg stuff together with the following stuff.
+ // Do not flag preceding copytoreg stuff together with the following stuff.
InFlag = SDValue();
if (GuaranteedTailCallOpt) {
for (unsigned i = 0, e = ArgLocs.size(); i != e; ++i) {
InFlag = SDValue();
if (GuaranteedTailCallOpt) {
for (unsigned i = 0, e = ArgLocs.size(); i != e; ++i) {
/// getNumOfConsecutiveZeros - Return the number of elements of a vector
/// shuffle operation which come from a consecutively from a zero. The
/// getNumOfConsecutiveZeros - Return the number of elements of a vector
/// shuffle operation which come from a consecutively from a zero. The
-/// search can start in two diferent directions, from left or right.
+/// search can start in two different directions, from left or right.
static
unsigned getNumOfConsecutiveZeros(SDNode *N, int NumElems,
bool ZerosFromLeft, SelectionDAG &DAG) {
static
unsigned getNumOfConsecutiveZeros(SDNode *N, int NumElems,
bool ZerosFromLeft, SelectionDAG &DAG) {
AsmPieces.clear();
SplitString(AsmStr, AsmPieces, " \t"); // Split with whitespace.
AsmPieces.clear();
SplitString(AsmStr, AsmPieces, " \t"); // Split with whitespace.
- // FIXME: this should verify that we are targetting a 486 or better. If not,
+ // FIXME: this should verify that we are targeting a 486 or better. If not,
// we will turn this bswap into something that will be lowered to logical ops
// instead of emitting the bswap asm. For now, we don't support 486 or lower
// so don't worry about this.
// we will turn this bswap into something that will be lowered to logical ops
// instead of emitting the bswap asm. For now, we don't support 486 or lower
// so don't worry about this.
-// Suprisingly enough, these are not two address instructions!
+// Surprisingly enough, these are not two address instructions!
let Defs = [EFLAGS] in {
// Register-Integer Signed Integer Multiply
def IMUL16rri : Ii16<0x69, MRMSrcReg, // GR16 = GR16*I16
let Defs = [EFLAGS] in {
// Register-Integer Signed Integer Multiply
def IMUL16rri : Ii16<0x69, MRMSrcReg, // GR16 = GR16*I16
assert(!RegOp2MemOpTable2Addr.count(RegOp) && "Duplicated entries?");
RegOp2MemOpTable2Addr[RegOp] = std::make_pair(MemOp, 0U);
assert(!RegOp2MemOpTable2Addr.count(RegOp) && "Duplicated entries?");
RegOp2MemOpTable2Addr[RegOp] = std::make_pair(MemOp, 0U);
- // If this is not a reversable operation (because there is a many->one)
+ // If this is not a reversible operation (because there is a many->one)
// mapping, don't insert the reverse of the operation into MemOp2RegOpTable.
if (OpTbl2Addr[i][1] & TB_NOT_REVERSABLE)
continue;
// mapping, don't insert the reverse of the operation into MemOp2RegOpTable.
if (OpTbl2Addr[i][1] & TB_NOT_REVERSABLE)
continue;
assert(!RegOp2MemOpTable0.count(RegOp) && "Duplicated entries?");
RegOp2MemOpTable0[RegOp] = std::make_pair(MemOp, Align);
assert(!RegOp2MemOpTable0.count(RegOp) && "Duplicated entries?");
RegOp2MemOpTable0[RegOp] = std::make_pair(MemOp, Align);
- // If this is not a reversable operation (because there is a many->one)
+ // If this is not a reversible operation (because there is a many->one)
// mapping, don't insert the reverse of the operation into MemOp2RegOpTable.
if (OpTbl0[i][1] & TB_NOT_REVERSABLE)
continue;
// mapping, don't insert the reverse of the operation into MemOp2RegOpTable.
if (OpTbl0[i][1] & TB_NOT_REVERSABLE)
continue;
assert(!RegOp2MemOpTable1.count(RegOp) && "Duplicate entries");
RegOp2MemOpTable1[RegOp] = std::make_pair(MemOp, Align);
assert(!RegOp2MemOpTable1.count(RegOp) && "Duplicate entries");
RegOp2MemOpTable1[RegOp] = std::make_pair(MemOp, Align);
- // If this is not a reversable operation (because there is a many->one)
+ // If this is not a reversible operation (because there is a many->one)
// mapping, don't insert the reverse of the operation into MemOp2RegOpTable.
if (OpTbl1[i][1] & TB_NOT_REVERSABLE)
continue;
// mapping, don't insert the reverse of the operation into MemOp2RegOpTable.
if (OpTbl1[i][1] & TB_NOT_REVERSABLE)
continue;
assert(!RegOp2MemOpTable2.count(RegOp) && "Duplicate entry!");
RegOp2MemOpTable2[RegOp] = std::make_pair(MemOp, Align);
assert(!RegOp2MemOpTable2.count(RegOp) && "Duplicate entry!");
RegOp2MemOpTable2[RegOp] = std::make_pair(MemOp, Align);
- // If this is not a reversable operation (because there is a many->one)
+ // If this is not a reversible operation (because there is a many->one)
// mapping, don't insert the reverse of the operation into MemOp2RegOpTable.
if (OpTbl2[i][1] & TB_NOT_REVERSABLE)
continue;
// mapping, don't insert the reverse of the operation into MemOp2RegOpTable.
if (OpTbl2[i][1] & TB_NOT_REVERSABLE)
continue;
int64_t &Offset1, int64_t &Offset2) const;
/// shouldScheduleLoadsNear - This is a used by the pre-regalloc scheduler to
int64_t &Offset1, int64_t &Offset2) const;
/// shouldScheduleLoadsNear - This is a used by the pre-regalloc scheduler to
- /// determine (in conjuction with areLoadsFromSameBasePtr) if two loads should
+ /// determine (in conjunction with areLoadsFromSameBasePtr) if two loads should
/// be scheduled togther. On some targets if two loads are loading from
/// addresses in the same cache line, it's better if they are scheduled
/// together. This function takes two integers that represent the load offsets
/// be scheduled togther. On some targets if two loads are loading from
/// addresses in the same cache line, it's better if they are scheduled
/// together. This function takes two integers that represent the load offsets
}
// To only check operands before the memory address ones, start
}
// To only check operands before the memory address ones, start
- // the search from the begining
+ // the search from the beginning
if (IsDestMem)
CurOp = 0;
if (IsDestMem)
CurOp = 0;
// FIXME: It's more complicated than this...
if (0 && requiresRealignment && MFI->hasVarSizedObjects())
report_fatal_error(
// FIXME: It's more complicated than this...
if (0 && requiresRealignment && MFI->hasVarSizedObjects())
report_fatal_error(
- "Stack realignment in presense of dynamic allocas is not supported");
+ "Stack realignment in presence of dynamic allocas is not supported");
// If we've requested that we force align the stack do so now.
if (ForceStackAlign)
// If we've requested that we force align the stack do so now.
if (ForceStackAlign)
bool isVolatile, bool AlwaysInline,
MachinePointerInfo DstPtrInfo,
MachinePointerInfo SrcPtrInfo) const {
bool isVolatile, bool AlwaysInline,
MachinePointerInfo DstPtrInfo,
MachinePointerInfo SrcPtrInfo) const {
- // This requires the copy size to be a constant, preferrably
+ // This requires the copy size to be a constant, preferably
// within a subtarget-specific limit.
ConstantSDNode *ConstantSize = dyn_cast<ConstantSDNode>(Size);
if (!ConstantSize)
// within a subtarget-specific limit.
ConstantSDNode *ConstantSize = dyn_cast<ConstantSDNode>(Size);
if (!ConstantSize)
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
// Build a sequence of copy-to-reg nodes chained together with token
// chain and flag operands which copy the outgoing args into registers.
- // The InFlag in necessary since all emited instructions must be
+ // The InFlag in necessary since all emitted instructions must be
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
// stuck together.
SDValue InFlag;
for (unsigned i = 0, e = RegsToPass.size(); i != e; ++i) {
// function empty.
NF->getBasicBlockList().splice(NF->begin(), F->getBasicBlockList());
// function empty.
NF->getBasicBlockList().splice(NF->begin(), F->getBasicBlockList());
- // Loop over the argument list, transfering uses of the old arguments over to
- // the new arguments, also transfering over the names as well.
+ // Loop over the argument list, transferring uses of the old arguments over to
+ // the new arguments, also transferring over the names as well.
//
for (Function::arg_iterator I = F->arg_begin(), E = F->arg_end(),
I2 = NF->arg_begin(); I != E; ++I) {
//
for (Function::arg_iterator I = F->arg_begin(), E = F->arg_end(),
I2 = NF->arg_begin(); I != E; ++I) {
/// Struct that represents (part of) either a return value or a function
/// argument. Used so that arguments and return values can be used
/// Struct that represents (part of) either a return value or a function
/// argument. Used so that arguments and return values can be used
struct RetOrArg {
RetOrArg(const Function *F, unsigned Idx, bool IsArg) : F(F), Idx(Idx),
IsArg(IsArg) {}
struct RetOrArg {
RetOrArg(const Function *F, unsigned Idx, bool IsArg) : F(F), Idx(Idx),
IsArg(IsArg) {}
// function empty.
NF->getBasicBlockList().splice(NF->begin(), Fn.getBasicBlockList());
// function empty.
NF->getBasicBlockList().splice(NF->begin(), Fn.getBasicBlockList());
- // Loop over the argument list, transfering uses of the old arguments over to
- // the new arguments, also transfering over the names as well. While we're at
+ // Loop over the argument list, transferring uses of the old arguments over to
+ // the new arguments, also transferring over the names as well. While we're at
// it, remove the dead arguments from the DeadArguments list.
//
for (Function::arg_iterator I = Fn.arg_begin(), E = Fn.arg_end(),
// it, remove the dead arguments from the DeadArguments list.
//
for (Function::arg_iterator I = Fn.arg_begin(), E = Fn.arg_end(),
// The value is returned from a function. It's only live when the
// function's return value is live. We use RetValNum here, for the case
// that U is really a use of an insertvalue instruction that uses the
// The value is returned from a function. It's only live when the
// function's return value is live. We use RetValNum here, for the case
// that U is really a use of an insertvalue instruction that uses the
RetOrArg Use = CreateRet(RI->getParent()->getParent(), RetValNum);
// We might be live, depending on the liveness of Use.
return MarkIfNotLive(Use, MaybeLiveUses);
RetOrArg Use = CreateRet(RI->getParent()->getParent(), RetValNum);
// We might be live, depending on the liveness of Use.
return MarkIfNotLive(Use, MaybeLiveUses);
// function empty.
NF->getBasicBlockList().splice(NF->begin(), F->getBasicBlockList());
// function empty.
NF->getBasicBlockList().splice(NF->begin(), F->getBasicBlockList());
- // Loop over the argument list, transfering uses of the old arguments over to
- // the new arguments, also transfering over the names as well.
+ // Loop over the argument list, transferring uses of the old arguments over to
+ // the new arguments, also transferring over the names as well.
i = 0;
for (Function::arg_iterator I = F->arg_begin(), E = F->arg_end(),
I2 = NF->arg_begin(); I != E; ++I, ++i)
i = 0;
for (Function::arg_iterator I = F->arg_begin(), E = F->arg_end(),
I2 = NF->arg_begin(); I != E; ++I, ++i)
/// InsertRangeTest - Emit a computation of: (V >= Lo && V < Hi) if Inside is
/// InsertRangeTest - Emit a computation of: (V >= Lo && V < Hi) if Inside is
-/// true, otherwise (V < Lo || V >= Hi). In pratice, we emit the more efficient
+/// true, otherwise (V < Lo || V >= Hi). In practice, we emit the more efficient
/// (V-Lo) <u Hi-Lo. This method expects that Lo <= Hi. isSigned indicates
/// whether to treat the V, Lo and HI as signed or not. IB is the location to
/// insert new instructions.
/// (V-Lo) <u Hi-Lo. This method expects that Lo <= Hi. isSigned indicates
/// whether to treat the V, Lo and HI as signed or not. IB is the location to
/// insert new instructions.
return ReplaceInstUsesWith(ICI, ConstantInt::getTrue(X->getContext()));
// From this point on, we know that (X+C <= X) --> (X+C < X) because C != 0,
return ReplaceInstUsesWith(ICI, ConstantInt::getTrue(X->getContext()));
// From this point on, we know that (X+C <= X) --> (X+C < X) because C != 0,
- // so the values can never be equal. Similiarly for all other "or equals"
+ // so the values can never be equal. Similarly for all other "or equals"
// operators.
// (X+1) <u X --> X >u (MAXUINT-1) --> X == 255
// operators.
// (X+1) <u X --> X >u (MAXUINT-1) --> X == 255
/// obvious the value of the load is not changed from the point of the load to
/// the end of the block it is in.
///
/// obvious the value of the load is not changed from the point of the load to
/// the end of the block it is in.
///
-/// Finally, it is safe, but not profitable, to sink a load targetting a
+/// Finally, it is safe, but not profitable, to sink a load targeting a
/// non-address-taken alloca. Doing so will cause us to not promote the alloca
/// to a register.
static bool isSafeAndProfitableToSinkLoad(LoadInst *L) {
/// non-address-taken alloca. Doing so will cause us to not promote the alloca
/// to a register.
static bool isSafeAndProfitableToSinkLoad(LoadInst *L) {
};
// ---------------------------------------------------------------------------
};
// ---------------------------------------------------------------------------
-// PathProfiler is a module pass which intruments path profiling instructions
+// PathProfiler is a module pass which instruments path profiling instructions
// ---------------------------------------------------------------------------
class PathProfiler : public ModulePass {
private:
// ---------------------------------------------------------------------------
class PathProfiler : public ModulePass {
private:
// away the store and we bail out. However, if we depend on on something
// that overwrites the memory location we *can* potentially optimize it.
//
// away the store and we bail out. However, if we depend on on something
// that overwrites the memory location we *can* potentially optimize it.
//
- // Find out what memory location the dependant instruction stores.
+ // Find out what memory location the dependent instruction stores.
Instruction *DepWrite = InstDep.getInst();
AliasAnalysis::Location DepLoc = getLocForWrite(DepWrite, *AA);
// If we didn't get a useful location, or if it isn't a size, bail out.
Instruction *DepWrite = InstDep.getInst();
AliasAnalysis::Location DepLoc = getLocForWrite(DepWrite, *AA);
// If we didn't get a useful location, or if it isn't a size, bail out.
-/// Loose - Set this cost to a loosing value.
+/// Loose - Set this cost to a losing value.
void Cost::Loose() {
NumRegs = ~0u;
AddRecCost = ~0u;
void Cost::Loose() {
NumRegs = ~0u;
AddRecCost = ~0u;
-/// reconcileNewOffset - Determine if the given use can accomodate a fixup
+/// reconcileNewOffset - Determine if the given use can accommodate a fixup
/// at the given offset and other details. If so, update the use and
/// return true.
bool
/// at the given offset and other details. If so, update the use and
/// return true.
bool
if (M->getSource() == MDep->getSource())
return false;
if (M->getSource() == MDep->getSource())
return false;
- // Second, the length of the memcpy's must be the same, or the preceeding one
+ // Second, the length of the memcpy's must be the same, or the preceding one
// must be larger than the following one.
ConstantInt *MDepLen = dyn_cast<ConstantInt>(MDep->getLength());
ConstantInt *MLen = dyn_cast<ConstantInt>(M->getLength());
// must be larger than the following one.
ConstantInt *MDepLen = dyn_cast<ConstantInt>(MDep->getLength());
ConstantInt *MLen = dyn_cast<ConstantInt>(M->getLength());
//
// This file demotes all registers to memory references. It is intented to be
// the inverse of PromoteMemoryToRegister. By converting to loads, the only
//
// This file demotes all registers to memory references. It is intented to be
// the inverse of PromoteMemoryToRegister. By converting to loads, the only
-// values live accross basic blocks are allocas and loads before phi nodes.
+// values live across basic blocks are allocas and loads before phi nodes.
// It is intended that this should make CFG hacking much easier.
// To make later hacking easier, the entry block is split into two, such that
// all introduced allocas and nothing else are in the entry block.
// It is intended that this should make CFG hacking much easier.
// To make later hacking easier, the entry block is split into two, such that
// all introduced allocas and nothing else are in the entry block.
ReturnsToZap[i]->setOperand(0, UndefValue::get(F->getReturnType()));
}
ReturnsToZap[i]->setOperand(0, UndefValue::get(F->getReturnType()));
}
- // If we infered constant or undef values for globals variables, we can delete
+ // If we inferred constant or undef values for globals variables, we can delete
// the global and any stores that remain to it.
const DenseMap<GlobalVariable*, LatticeVal> &TG = Solver.getTrackedGlobals();
for (DenseMap<GlobalVariable*, LatticeVal>::const_iterator I = TG.begin(),
// the global and any stores that remain to it.
const DenseMap<GlobalVariable*, LatticeVal> &TG = Solver.getTrackedGlobals();
for (DenseMap<GlobalVariable*, LatticeVal>::const_iterator I = TG.begin(),
// evaluated each time through the tail recursion. Safely keeping allocas
// in the entry block requires analysis to proves that the tail-called
// function does not read or write the stack object.
// evaluated each time through the tail recursion. Safely keeping allocas
// in the entry block requires analysis to proves that the tail-called
// function does not read or write the stack object.
-// 2. Tail recursion is only performed if the call immediately preceeds the
+// 2. Tail recursion is only performed if the call immediately precedes the
// return instruction. It's possible that there could be a jump between
// the call and the return.
// 3. There can be intervening operations between the call and the return that
// return instruction. It's possible that there could be a jump between
// the call and the return.
// 3. There can be intervening operations between the call and the return that
if (CanMoveAboveCall(BBI, CI)) continue;
// If we can't move the instruction above the call, it might be because it
if (CanMoveAboveCall(BBI, CI)) continue;
// If we can't move the instruction above the call, it might be because it
- // is an associative and commutative operation that could be tranformed
+ // is an associative and commutative operation that could be transformed
// using accumulator recursion elimination. Check to see if this is the
// case, and if so, remember the initial accumulator value for later.
if ((AccumulatorRecursionEliminationInitVal =
// using accumulator recursion elimination. Check to see if this is the
// case, and if so, remember the initial accumulator value for later.
if ((AccumulatorRecursionEliminationInitVal =
INITIALIZE_PASS(BreakCriticalEdges, "break-crit-edges",
"Break critical edges in CFG", false, false)
INITIALIZE_PASS(BreakCriticalEdges, "break-crit-edges",
"Break critical edges in CFG", false, false)
-// Publically exposed interface to pass...
+// Publicly exposed interface to pass...
char &llvm::BreakCriticalEdgesID = BreakCriticalEdges::ID;
FunctionPass *llvm::createBreakCriticalEdgesPass() {
return new BreakCriticalEdges();
char &llvm::BreakCriticalEdgesID = BreakCriticalEdges::ID;
FunctionPass *llvm::createBreakCriticalEdgesPass() {
return new BreakCriticalEdges();
TI->replaceUsesOfWith(OldPred, NewBB);
}
TI->replaceUsesOfWith(OldPred, NewBB);
}
- // Okay, everthing within the region is now branching to the right block, we
+ // Okay, everything within the region is now branching to the right block, we
// just have to update the PHI nodes now, inserting PHI nodes into NewBB.
for (AfterPHIs = OldPred->begin(); isa<PHINode>(AfterPHIs); ++AfterPHIs) {
PHINode *PN = cast<PHINode>(AfterPHIs);
// just have to update the PHI nodes now, inserting PHI nodes into NewBB.
for (AfterPHIs = OldPred->begin(); isa<PHINode>(AfterPHIs); ++AfterPHIs) {
PHINode *PN = cast<PHINode>(AfterPHIs);
//
// Note that this only does one level of inlining. For example, if the
// instruction 'call B' is inlined, and 'B' calls 'C', then the call to 'C' now
//
// Note that this only does one level of inlining. For example, if the
// instruction 'call B' is inlined, and 'B' calls 'C', then the call to 'C' now
-// exists in the instruction stream. Similiarly this will inline a recursive
+// exists in the instruction stream. Similarly this will inline a recursive
// function by one level.
//
bool llvm::InlineFunction(CallSite CS, InlineFunctionInfo &IFI) {
// function by one level.
//
bool llvm::InlineFunction(CallSite CS, InlineFunctionInfo &IFI) {
INITIALIZE_PASS_END(LoopSimplify, "loop-simplify",
"Canonicalize natural loops", true, false)
INITIALIZE_PASS_END(LoopSimplify, "loop-simplify",
"Canonicalize natural loops", true, false)
-// Publically exposed interface to pass...
+// Publicly exposed interface to pass...
char &llvm::LoopSimplifyID = LoopSimplify::ID;
Pass *llvm::createLoopSimplifyPass() { return new LoopSimplify(); }
char &llvm::LoopSimplifyID = LoopSimplify::ID;
Pass *llvm::createLoopSimplifyPass() { return new LoopSimplify(); }
INITIALIZE_PASS(LowerSwitch, "lowerswitch",
"Lower SwitchInst's to branches", false, false)
INITIALIZE_PASS(LowerSwitch, "lowerswitch",
"Lower SwitchInst's to branches", false, false)
-// Publically exposed interface to pass...
+// Publicly exposed interface to pass...
char &llvm::LowerSwitchID = LowerSwitch::ID;
// createLowerSwitchPass - Interface to this file...
FunctionPass *llvm::createLowerSwitchPass() {
char &llvm::LowerSwitchID = LowerSwitch::ID;
// createLowerSwitchPass - Interface to this file...
FunctionPass *llvm::createLowerSwitchPass() {
// with a single zero index, it must be nonzero.
assert(CE1->getNumOperands() == 2 &&
!CE1->getOperand(1)->isNullValue() &&
// with a single zero index, it must be nonzero.
assert(CE1->getNumOperands() == 2 &&
!CE1->getOperand(1)->isNullValue() &&
- "Suprising getelementptr!");
+ "Surprising getelementptr!");
return isSigned ? ICmpInst::ICMP_SGT : ICmpInst::ICMP_UGT;
} else {
// If they are different globals, we don't know what the value is,
return isSigned ? ICmpInst::ICMP_SGT : ICmpInst::ICMP_UGT;
} else {
// If they are different globals, we don't know what the value is,
// Concrete/Abstract TypeDescriptions - We lazily calculate type descriptions
// for types as they are needed. Because resolution of types must invalidate
// Concrete/Abstract TypeDescriptions - We lazily calculate type descriptions
// for types as they are needed. Because resolution of types must invalidate
- // all of the abstract type descriptions, we keep them in a seperate map to
+ // all of the abstract type descriptions, we keep them in a separate map to
// make this easy.
TypePrinting ConcreteTypeDescriptions;
TypePrinting AbstractTypeDescriptions;
// make this easy.
TypePrinting ConcreteTypeDescriptions;
TypePrinting AbstractTypeDescriptions;
// Keep track of higher level analysis used by this manager.
HigherLevelAnalysis.push_back(PRequired);
} else
// Keep track of higher level analysis used by this manager.
HigherLevelAnalysis.push_back(PRequired);
} else
- llvm_unreachable("Unable to accomodate Required Pass");
+ llvm_unreachable("Unable to accommodate Required Pass");
}
// Set P as P's last user until someone starts using P.
}
// Set P as P's last user until someone starts using P.
// FIXME: We use ManagedStatic to erase the pass registrar on shutdown.
// Unfortunately, passes are registered with static ctors, and having
// FIXME: We use ManagedStatic to erase the pass registrar on shutdown.
// Unfortunately, passes are registered with static ctors, and having
-// llvm_shutdown clear this map prevents successful ressurection after
+// llvm_shutdown clear this map prevents successful resurrection after
// llvm_shutdown is run. Ideally we should find a solution so that we don't
// leak the map, AND can still resurrect after shutdown.
static ManagedStatic<PassRegistry> PassRegistryObj;
// llvm_shutdown is run. Ideally we should find a solution so that we don't
// leak the map, AND can still resurrect after shutdown.
static ManagedStatic<PassRegistry> PassRegistryObj;
// Remove the old entry form TypesByHash. If the hash values differ
// now, remove it from the old place. Otherwise, continue scanning
// Remove the old entry form TypesByHash. If the hash values differ
// now, remove it from the old place. Otherwise, continue scanning
- // withing this hashcode to reduce work.
+ // within this hashcode to reduce work.
if (NewTypeHash != OldTypeHash) {
RemoveFromTypesByHash(OldTypeHash, Ty);
} else {
if (NewTypeHash != OldTypeHash) {
RemoveFromTypesByHash(OldTypeHash, Ty);
} else {
dnl This provides the --with-llvmsrc and --with-llvmobj options
LLVM_CONFIG_PROJECT($LLVM_ABS_SRC_ROOT,$LLVM_ABS_OBJ_ROOT)
dnl This provides the --with-llvmsrc and --with-llvmobj options
LLVM_CONFIG_PROJECT($LLVM_ABS_SRC_ROOT,$LLVM_ABS_OBJ_ROOT)
-dnl Tell autoconf that the auxilliary files are actually located in
+dnl Tell autoconf that the auxiliary files are actually located in
dnl the LLVM autoconf directory, not here.
AC_CONFIG_AUX_DIR($LLVM_SRC/autoconf)
dnl the LLVM autoconf directory, not here.
AC_CONFIG_AUX_DIR($LLVM_SRC/autoconf)
/* Note that, although the array has a counter for each edge, not all
* counters are updated, the ones that are not used are initialised with -1.
* When loading this information the counters with value -1 have to be
/* Note that, although the array has a counter for each edge, not all
* counters are updated, the ones that are not used are initialised with -1.
* When loading this information the counters with value -1 have to be
- * recalculated, it is guranteed that this is possible.
+ * recalculated, it is guaranteed that this is possible.
*/
write_profiling_data(OptEdgeInfo, ArrayStart, NumElements);
}
*/
write_profiling_data(OptEdgeInfo, ArrayStart, NumElements);
}
}
inline uint32_t hash (uint32_t key) {
}
inline uint32_t hash (uint32_t key) {
- /* this may benifit from a proper hash function */
+ /* this may benefit from a proper hash function */
return key%ARBITRARY_HASH_BIN_COUNT;
}
return key%ARBITRARY_HASH_BIN_COUNT;
}
; RUN: llc -O0 -asm-verbose < %s > %t
; RUN: grep "External Name" %t | grep -v X
; RUN: grep "External Name" %t | grep Y | count 1
; RUN: llc -O0 -asm-verbose < %s > %t
; RUN: grep "External Name" %t | grep -v X
; RUN: grep "External Name" %t | grep Y | count 1
-; Test to check type with no defintion is listed in pubtypes section.
+; Test to check type with no definition is listed in pubtypes section.
%struct.X = type opaque
%struct.Y = type { i32 }
%struct.X = type opaque
%struct.Y = type { i32 }
// RUN: %llvmgcc %s -S -o -
#ifdef __APPLE__
// RUN: %llvmgcc %s -S -o -
#ifdef __APPLE__
-/* test that X is layed out correctly when this pragma is used. */
+/* test that X is laid out correctly when this pragma is used. */
#pragma options align=mac68k
#endif
#pragma options align=mac68k
#endif
// MIN(1631381461u * v2 - 4047041419, 1631381461u * v1 - 4047041419)
//
// 1631381461u * 1273463329u = 2077504466193943669, but 32-bit overflow clips
// MIN(1631381461u * v2 - 4047041419, 1631381461u * v1 - 4047041419)
//
// 1631381461u * 1273463329u = 2077504466193943669, but 32-bit overflow clips
-// this to 4047041419. This breaks the comparision implicit in the MIN().
+// this to 4047041419. This breaks the comparison implicit in the MIN().
// Two multiply operations suggests the bad optimization is happening;
// one multiplication, after the MIN(), is correct.
// CHECK: mul
// Two multiply operations suggests the bad optimization is happening;
// one multiplication, after the MIN(), is correct.
// CHECK: mul
// FIXME: Unfortunately, we do not get these relocations in exactly the same
// order as Darwin 'as'. It turns out that 'as' *usually* ends up emitting
// them in reverse address order, but sometimes it allocates some
// FIXME: Unfortunately, we do not get these relocations in exactly the same
// order as Darwin 'as'. It turns out that 'as' *usually* ends up emitting
// them in reverse address order, but sometimes it allocates some
-// additional relocations late so these end up preceed the other entries. I
+// additional relocations late so these end up precede the other entries. I
// haven't figured out the exact criteria for this yet.
// CHECK: (('word-0', 0x56),
// haven't figured out the exact criteria for this yet.
// CHECK: (('word-0', 0x56),
[(set R32:$dst, (shl R32:$src, CL))]>;
// The RTL list is a list, allowing complex instructions to be defined easily.
[(set R32:$dst, (shl R32:$src, CL))]>;
// The RTL list is a list, allowing complex instructions to be defined easily.
-// Temporary 'internal' registers can be used to break instructions appart.
+// Temporary 'internal' registers can be used to break instructions apart.
let isTwoAddress = 1 in
def XOR32mi : Inst<(ops addr:$addr, imm32:$imm),
"xor $dst, $src2", 0x81, MRM6m,
let isTwoAddress = 1 in
def XOR32mi : Inst<(ops addr:$addr, imm32:$imm),
"xor $dst, $src2", 0x81, MRM6m,
-; This bug has to do with the fact that constant propogation was implemented in
+; This bug has to do with the fact that constant propagation was implemented in
; terms of _logical_ not (! in C) instead of _bitwise_ not (~ in C). This was
; due to a spec change.
; terms of _logical_ not (! in C) instead of _bitwise_ not (~ in C). This was
; due to a spec change.
; RUN: opt < %s -constprop -die -S | FileCheck %s
; RUN: opt < %s -constprop -die -S | FileCheck %s
-; This is a basic sanity check for constant propogation. The add instruction
+; This is a basic sanity check for constant propagation. The add instruction
; should be eliminated.
define i32 @test1(i1 %B) {
br i1 %B, label %BB1, label %BB2
; should be eliminated.
define i32 @test1(i1 %B) {
br i1 %B, label %BB1, label %BB2
-; Ensure constant propogation of logical instructions is working correctly.
+; Ensure constant propagation of logical instructions is working correctly.
; RUN: opt < %s -constprop -die -S | FileCheck %s
; CHECK-NOT: {{and|or|xor}}
; RUN: opt < %s -constprop -die -S | FileCheck %s
; CHECK-NOT: {{and|or|xor}}
-; This is a basic sanity check for constant propogation. The add instruction
+; This is a basic sanity check for constant propagation. The add instruction
; should be eliminated.
; RUN: opt < %s -constprop -die -S | not grep phi
; should be eliminated.
; RUN: opt < %s -constprop -die -S | not grep phi
-; These are all equivelent to A^B
+; These are all equivalent to A^B
define i32 @test1(i32 %a, i32 %b) {
entry:
define i32 @test1(i32 %a, i32 %b) {
entry:
-; This is a basic sanity check for constant propogation. The add instruction
+; This is a basic sanity check for constant propagation. The add instruction
; should be eliminated.
; RUN: opt < %s -sccp -S | not grep add
; should be eliminated.
; RUN: opt < %s -sccp -S | not grep add
-; This is a basic sanity check for constant propogation. The add instruction
+; This is a basic sanity check for constant propagation. The add instruction
; and phi instruction should be eliminated.
; RUN: opt < %s -sccp -S | not grep phi
; and phi instruction should be eliminated.
; RUN: opt < %s -sccp -S | not grep phi
-; This is a basic sanity check for constant propogation. It tests the basic
+; This is a basic sanity check for constant propagation. It tests the basic
-; This is a basic sanity check for constant propogation. It tests the basic
+; This is a basic sanity check for constant propagation. It tests the basic
%res2 = insertvalue { i32, i32 } %res1, i32 2, 1 ; <{ i32, i32 }> [#uses=1]
; And store it
store { i32, i32 } %res2, { i32, i32 }* %target
%res2 = insertvalue { i32, i32 } %res1, i32 2, 1 ; <{ i32, i32 }> [#uses=1]
; And store it
store { i32, i32 } %res2, { i32, i32 }* %target
- ; Actually use %target, so it doesn't get removed alltogether
+ ; Actually use %target, so it doesn't get removed altogether
%ptr = getelementptr { i32, i32 }* %target, i32 0, i32 0
%val = load i32* %ptr
ret i32 %val
%ptr = getelementptr { i32, i32 }* %target, i32 0, i32 0
%val = load i32* %ptr
ret i32 %val
%res2 = insertvalue [ 2 x i32 ] %res1, i32 2, 1 ; <{ i32, i32 }> [#uses=1]
; And store it
store [ 2 x i32 ] %res2, [ 2 x i32 ]* %target
%res2 = insertvalue [ 2 x i32 ] %res1, i32 2, 1 ; <{ i32, i32 }> [#uses=1]
; And store it
store [ 2 x i32 ] %res2, [ 2 x i32 ]* %target
- ; Actually use %target, so it doesn't get removed alltogether
+ ; Actually use %target, so it doesn't get removed altogether
%ptr = getelementptr [ 2 x i32 ]* %target, i32 0, i32 0
%val = load i32* %ptr
ret i32 %val
%ptr = getelementptr [ 2 x i32 ]* %target, i32 0, i32 0
%val = load i32* %ptr
ret i32 %val
} else if (isa<PHINode>(L)) {
// FIXME: implement.
} else if (isa<PHINode>(L)) {
// FIXME: implement.
- // This is really wierd; type uniquing is broken?
+ // This is really weird; type uniquing is broken?
if (L->getType() != R->getType()) {
if (!L->getType()->isPointerTy() || !R->getType()->isPointerTy()) {
if (Complain) Engine.log("different phi types");
if (L->getType() != R->getType()) {
if (!L->getType()->isPointerTy() || !R->getType()->isPointerTy()) {
if (Complain) Engine.log("different phi types");
sign: ``-std c99``. At most one occurrence is allowed.
- ``parameter_list_option`` - same as the above, but more than one option
sign: ``-std c99``. At most one occurrence is allowed.
- ``parameter_list_option`` - same as the above, but more than one option
- ``prefix_option`` - same as the parameter_option, but the option name and
argument do not have to be separated. Example: ``-ofile``. This can be also
- ``prefix_option`` - same as the parameter_option, but the option name and
argument do not have to be separated. Example: ``-ofile``. This can be also
(``=file`` will be interpreted as option value). At most one occurrence is
allowed.
(``=file`` will be interpreted as option value). At most one occurrence is
allowed.
- - ``prefix_list_option`` - same as the above, but more than one occurence of
+ - ``prefix_list_option`` - same as the above, but more than one occurrence of
the option is allowed; example: ``-lm -lpthread``.
- ``alias_option`` - a special option type for creating aliases. Unlike other
the option is allowed; example: ``-lm -lpthread``.
- ``alias_option`` - a special option type for creating aliases. Unlike other
// ('-S' && '-emit-llvm') && !('opt') -> output .ll
(and (switch_on "emit-llvm", "S"), (not (switch_on "opt"))),
[(forward "S"), (output_suffix "ll")],
// ('-S' && '-emit-llvm') && !('opt') -> output .ll
(and (switch_on "emit-llvm", "S"), (not (switch_on "opt"))),
[(forward "S"), (output_suffix "ll")],
- // Ususally just output .bc
+ // Usually just output .bc
(not (switch_on "fsyntax-only")),
[(append_cmd "-c"), (append_cmd "-emit-llvm")],
(not (switch_on "fsyntax-only")),
[(append_cmd "-c"), (append_cmd "-emit-llvm")],
//
// Generates code for all added modules into one native object file.
//
// Generates code for all added modules into one native object file.
-// On sucess returns a pointer to a generated mach-o/ELF buffer and
+// On success returns a pointer to a generated mach-o/ELF buffer and
// length set to the buffer size. The buffer is owned by the
// lto_code_gen_t and will be freed when lto_codegen_dispose()
// is called, or lto_codegen_compile() is called again.
// length set to the buffer size. The buffer is owned by the
// lto_code_gen_t and will be freed when lto_codegen_dispose()
// is called, or lto_codegen_compile() is called again.
#read the file one line at a time
buffer = input.readline()
while buffer != '':
#read the file one line at a time
buffer = input.readline()
while buffer != '':
- #filter out the unecessary checks on all the edge lines
+ #filter out the unnecessary checks on all the edge lines
if not arrowexp.search(buffer):
#check to see if this is a node we are looking for
for regexp in regexp_list:
if not arrowexp.search(buffer):
#check to see if this is a node we are looking for
for regexp in regexp_list:
static error_code GetFileNameFromHandle(HANDLE FileHandle,
std::string& Name) {
char Filename[MAX_PATH+1];
static error_code GetFileNameFromHandle(HANDLE FileHandle,
std::string& Name) {
char Filename[MAX_PATH+1];
Name.clear();
// Get the file size.
LARGE_INTEGER FileSize;
Name.clear();
// Get the file size.
LARGE_INTEGER FileSize;
- Sucess = ::GetFileSizeEx(FileHandle, &FileSize);
+ Success = ::GetFileSizeEx(FileHandle, &FileSize);
return windows_error(::GetLastError());
// Create a file mapping object.
return windows_error(::GetLastError());
// Create a file mapping object.
if (!MappedFile)
return windows_error(::GetLastError());
if (!MappedFile)
return windows_error(::GetLastError());
- Sucess = ::GetMappedFileNameA(::GetCurrentProcess(),
+ Success = ::GetMappedFileNameA(::GetCurrentProcess(),
MappedFile,
Filename,
array_lengthof(Filename) - 1);
MappedFile,
Filename,
array_lengthof(Filename) - 1);
return windows_error(::GetLastError());
else {
Name = Filename;
return windows_error(::GetLastError());
else {
Name = Filename;
'endtime' => $endtime,
'target_triple' => $targetTriple,
'endtime' => $endtime,
'target_triple' => $targetTriple,
- # Unused, but left around for backwards compatability.
+ # Unused, but left around for backwards compatibility.
'warnings' => "",
'cvsusercommitlist' => "",
'cvsuserupdatelist' => "",
'warnings' => "",
'cvsusercommitlist' => "",
'cvsuserupdatelist' => "",
for (bitIndex = 0; bitIndex < NumBits; bitIndex++)
BitValueArray[StartBit + bitIndex] = BIT_UNSET;
for (bitIndex = 0; bitIndex < NumBits; bitIndex++)
BitValueArray[StartBit + bitIndex] = BIT_UNSET;
- // Delegates to an inferior filter chooser for futher processing on this
+ // Delegates to an inferior filter chooser for further processing on this
// group of instructions whose segment values are variable.
FilterChooserMap.insert(std::pair<unsigned, ARMFilterChooser*>(
(unsigned)-1,
// group of instructions whose segment values are variable.
FilterChooserMap.insert(std::pair<unsigned, ARMFilterChooser*>(
(unsigned)-1,
BitValueArray[StartBit + bitIndex] = BIT_FALSE;
}
BitValueArray[StartBit + bitIndex] = BIT_FALSE;
}
- // Delegates to an inferior filter chooser for futher processing on this
+ // Delegates to an inferior filter chooser for further processing on this
// category of instructions.
FilterChooserMap.insert(std::pair<unsigned, ARMFilterChooser*>(
mapIterator->first,
// category of instructions.
FilterChooserMap.insert(std::pair<unsigned, ARMFilterChooser*>(
mapIterator->first,
// 2. The operand matcher will try every possible entry with the same
// mnemonic and will check if the target feature for this mnemonic also
// matches. After that, if the operand to be matched has its index
// 2. The operand matcher will try every possible entry with the same
// mnemonic and will check if the target feature for this mnemonic also
// matches. After that, if the operand to be matched has its index
-// present in the mask, a successfull match occurs. Otherwise, fallback
+// present in the mask, a successful match occurs. Otherwise, fallback
// to the regular operand parsing.
//
// 3. For a match success, each operand class that has a 'ParserMethod'
// to the regular operand parsing.
//
// 3. For a match success, each operand class that has a 'ParserMethod'
return ValueName < RHS.ValueName;
default:
return ValueName < RHS.ValueName;
default:
- // This class preceeds the RHS if it is a proper subset of the RHS.
+ // This class precedes the RHS if it is a proper subset of the RHS.
if (isSubsetOf(RHS))
return true;
if (RHS.isSubsetOf(*this))
if (isSubsetOf(RHS))
return true;
if (RHS.isSubsetOf(*this))
II->BuildAliasResultOperands();
}
II->BuildAliasResultOperands();
}
- // Reorder classes so that classes preceed super classes.
+ // Reorder classes so that classes precede super classes.
std::sort(Classes.begin(), Classes.end(), less_ptr<ClassInfo>());
}
std::sort(Classes.begin(), Classes.end(), less_ptr<ClassInfo>());
}
// operand from the earlier one.We can only tie single MCOperand values.
//assert(OpInfo.MINumOperands == 1 && "Not a singular MCOperand");
unsigned TiedOp = OpInfo.TiedOperandNum;
// operand from the earlier one.We can only tie single MCOperand values.
//assert(OpInfo.MINumOperands == 1 && "Not a singular MCOperand");
unsigned TiedOp = OpInfo.TiedOperandNum;
- assert(i > TiedOp && "Tied operand preceeds its target!");
+ assert(i > TiedOp && "Tied operand precedes its target!");
CaseOS << " Inst.addOperand(Inst.getOperand(" << TiedOp << "));\n";
Signature += "__Tie" + utostr(TiedOp);
break;
CaseOS << " Inst.addOperand(Inst.getOperand(" << TiedOp << "));\n";
Signature += "__Tie" + utostr(TiedOp);
break;
for (bitIndex = 0; bitIndex < NumBits; bitIndex++)
BitValueArray[StartBit + bitIndex] = BIT_UNSET;
for (bitIndex = 0; bitIndex < NumBits; bitIndex++)
BitValueArray[StartBit + bitIndex] = BIT_UNSET;
- // Delegates to an inferior filter chooser for futher processing on this
+ // Delegates to an inferior filter chooser for further processing on this
// group of instructions whose segment values are variable.
FilterChooserMap.insert(std::pair<unsigned, FilterChooser*>(
(unsigned)-1,
// group of instructions whose segment values are variable.
FilterChooserMap.insert(std::pair<unsigned, FilterChooser*>(
(unsigned)-1,
BitValueArray[StartBit + bitIndex] = BIT_FALSE;
}
BitValueArray[StartBit + bitIndex] = BIT_FALSE;
}
- // Delegates to an inferior filter chooser for futher processing on this
+ // Delegates to an inferior filter chooser for further processing on this
// category of instructions.
FilterChooserMap.insert(std::pair<unsigned, FilterChooser*>(
mapIterator->first,
// category of instructions.
FilterChooserMap.insert(std::pair<unsigned, FilterChooser*>(
mapIterator->first,
const Record *A = *(Record**) Av;
const Record *B = *(Record**) Bv;
const Record *A = *(Record**) Av;
const Record *B = *(Record**) Bv;
- // Sentinel options preceed all others and are only ordered by precedence.
+ // Sentinel options precede all others and are only ordered by precedence.
bool ASent = A->getValueAsDef("Kind")->getValueAsBit("Sentinel");
bool BSent = B->getValueAsDef("Kind")->getValueAsBit("Sentinel");
if (ASent != BSent)
bool ASent = A->getValueAsDef("Kind")->getValueAsBit("Sentinel");
bool BSent = B->getValueAsDef("Kind")->getValueAsBit("Sentinel");
if (ASent != BSent)
/// regardless of ModR/M byte, two entries - one for bytes 0x00-0xbf and one
/// for bytes 0xc0-0xff -, or 256 entries, one for each possible byte.
/// nnnn is the number of a table for looking up these values. The tables
/// regardless of ModR/M byte, two entries - one for bytes 0x00-0xbf and one
/// for bytes 0xc0-0xff -, or 256 entries, one for each possible byte.
/// nnnn is the number of a table for looking up these values. The tables
- /// are writen separately so that tables consisting entirely of zeros will
+ /// are written separately so that tables consisting entirely of zeros will
/// not be duplicated. (These all have the name modRMEmptyTable.) A table
/// is printed as:
///
/// not be duplicated. (These all have the name modRMEmptyTable.) A table
/// is printed as:
///
#
# You can specify TARGETS=ppc (or i386) on the buildit command line to limit the
# build to just one target. The default is for ppc and i386. The compiler
#
# You can specify TARGETS=ppc (or i386) on the buildit command line to limit the
# build to just one target. The default is for ppc and i386. The compiler
-# targetted at this host gets built anyway, but not installed unless it's listed
+# targeted at this host gets built anyway, but not installed unless it's listed
# in TARGETS.
# Include the set of standard Apple makefile definitions.
# in TARGETS.
# Include the set of standard Apple makefile definitions.
Documentation
=============
Documentation
=============
-The offical *lit* documentation is in the man page, available online at the LLVM
+The official *lit* documentation is in the man page, available online at the LLVM
Command Guide: http://llvm.org/cmds/lit.html.
Command Guide: http://llvm.org/cmds/lit.html.
-// Returns a pointer to the last occurence of a valid path separator in
+// Returns a pointer to the last occurrence of a valid path separator in
// the FilePath. On Windows, for example, both '/' and '\' are valid path
// separators. Returns NULL if no path separator was found.
const char* FilePath::FindLastPathSeparator() const {
// the FilePath. On Windows, for example, both '/' and '\' are valid path
// separators. Returns NULL if no path separator was found.
const char* FilePath::FindLastPathSeparator() const {
// Utility functions for encoding Unicode text (wide strings) in
// UTF-8.
// Utility functions for encoding Unicode text (wide strings) in
// UTF-8.
-// A Unicode code-point can have upto 21 bits, and is encoded in UTF-8
+// A Unicode code-point can have up to 21 bits, and is encoded in UTF-8
// like this:
//
// Code-point length Encoding
// like this:
//
// Code-point length Encoding
- // Returns a pointer to the last occurence of a valid path separator in
+ // Returns a pointer to the last occurrence of a valid path separator in
// the FilePath. On Windows, for example, both '/' and '\' are valid path
// separators. Returns NULL if no path separator was found.
const char* FindLastPathSeparator() const;
// the FilePath. On Windows, for example, both '/' and '\' are valid path
// separators. Returns NULL if no path separator was found.
const char* FindLastPathSeparator() const;
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