hanchenye-llvm-project/lldb/scripts/interface/SBThread.i

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//===-- SWIG Interface for SBThread -----------------------------*- C++ -*-===//
//
// The LLVM Compiler Infrastructure
//
// This file is distributed under the University of Illinois Open Source
// License. See LICENSE.TXT for details.
//
//===----------------------------------------------------------------------===//
namespace lldb {
%feature("docstring",
"Represents a thread of execution. SBProcess contains SBThread(s).
SBThreads can be referred to by their ID, which maps to the system specific thread
identifier, or by IndexID. The ID may or may not be unique depending on whether the
system reuses its thread identifiers. The IndexID is a monotonically increasing identifier
that will always uniquely reference a particular thread, and when that thread goes
away it will not be reused.
SBThread supports frame iteration. For example (from test/python_api/
lldbutil/iter/TestLLDBIterator.py),
from lldbutil import print_stacktrace
stopped_due_to_breakpoint = False
for thread in process:
if self.TraceOn():
print_stacktrace(thread)
ID = thread.GetThreadID()
if thread.GetStopReason() == lldb.eStopReasonBreakpoint:
stopped_due_to_breakpoint = True
for frame in thread:
self.assertTrue(frame.GetThread().GetThreadID() == ID)
if self.TraceOn():
print frame
self.assertTrue(stopped_due_to_breakpoint)
See also SBProcess and SBFrame."
) SBThread;
class SBThread
{
public:
//------------------------------------------------------------------
// Broadcaster bits.
//------------------------------------------------------------------
enum
{
eBroadcastBitStackChanged = (1 << 0),
eBroadcastBitThreadSuspended = (1 << 1),
eBroadcastBitThreadResumed = (1 << 2),
eBroadcastBitSelectedFrameChanged = (1 << 3),
eBroadcastBitThreadSelected = (1 << 4)
};
SBThread ();
SBThread (const lldb::SBThread &thread);
~SBThread();
static const char *
GetBroadcasterClassName ();
static bool
EventIsThreadEvent (const SBEvent &event);
static SBFrame
GetStackFrameFromEvent (const SBEvent &event);
static SBThread
GetThreadFromEvent (const SBEvent &event);
bool
IsValid() const;
void
Clear ();
lldb::StopReason
GetStopReason();
%feature("docstring", "
/// Get the number of words associated with the stop reason.
/// See also GetStopReasonDataAtIndex().
") GetStopReasonDataCount;
size_t
GetStopReasonDataCount();
%feature("docstring", "
//--------------------------------------------------------------------------
/// Get information associated with a stop reason.
///
/// Breakpoint stop reasons will have data that consists of pairs of
/// breakpoint IDs followed by the breakpoint location IDs (they always come
/// in pairs).
///
/// Stop Reason Count Data Type
/// ======================== ===== =========================================
/// eStopReasonNone 0
/// eStopReasonTrace 0
/// eStopReasonBreakpoint N duple: {breakpoint id, location id}
/// eStopReasonWatchpoint 1 watchpoint id
/// eStopReasonSignal 1 unix signal number
/// eStopReasonException N exception data
/// eStopReasonExec 0
/// eStopReasonPlanComplete 0
//--------------------------------------------------------------------------
") GetStopReasonDataAtIndex;
uint64_t
GetStopReasonDataAtIndex(uint32_t idx);
LLDB AddressSanitizer instrumentation runtime plugin, breakpint on error and report data extraction Reviewed at http://reviews.llvm.org/D5592 This patch gives LLDB some ability to interact with AddressSanitizer runtime library, on top of what we already have (historical memory stack traces provided by ASan). Namely, that's the ability to stop on an error caught by ASan, and access the report information that are associated with it. The report information is also exposed into SB API. More precisely this patch... adds a new plugin type, InstrumentationRuntime, which should serve as a generic superclass for other instrumentation runtime libraries, these plugins get notified when modules are loaded, so they get a chance to "activate" when a specific dynamic library is loaded an instance of this plugin type, AddressSanitizerRuntime, which activates itself when it sees the ASan dynamic library or founds ASan statically linked in the executable adds a collection of these plugins into the Process class AddressSanitizerRuntime sets an internal breakpoint on __asan::AsanDie(), and when this breakpoint gets hit, it retrieves the report information from ASan this breakpoint is then exposed as a new StopReason, eStopReasonInstrumentation, with a new StopInfo subclass, InstrumentationRuntimeStopInfo the StopInfo superclass is extended with a m_extended_info field (it's a StructuredData::ObjectSP), that can hold arbitrary JSON-like data, which is the way the new plugin provides the report data the "thread info" command now accepts a "-s" flag that prints out the JSON data of a stop reason (same way the "-j" flag works now) SBThread has a new API, GetStopReasonExtendedInfoAsJSON, which dumps the JSON string into a SBStream adds a test case for all of this I plan to also get rid of the original ASan plugin (memory history stack traces) and use an instance of AddressSanitizerRuntime for that purpose. Kuba llvm-svn: 219546
2014-10-11 07:43:03 +08:00
%feature("autodoc", "
Collects a thread's stop reason extended information dictionary and prints it
into the SBStream in a JSON format. The format of this JSON dictionary depends
on the stop reason and is currently used only for instrumentation plugins.
") GetStopReasonExtendedInfoAsJSON;
bool
GetStopReasonExtendedInfoAsJSON (lldb::SBStream &stream);
%feature("autodoc", "
Pass only an (int)length and expect to get a Python string describing the
stop reason.
") GetStopDescription;
size_t
GetStopDescription (char *dst, size_t dst_len);
SBValue
GetStopReturnValue ();
%feature("autodoc", "
Returns a unique thread identifier (type lldb::tid_t, typically a 64-bit type)
for the current SBThread that will remain constant throughout the thread's
lifetime in this process and will not be reused by another thread during this
process lifetime. On Mac OS X systems, this is a system-wide unique thread
identifier; this identifier is also used by other tools like sample which helps
to associate data from those tools with lldb. See related GetIndexID.
")
GetThreadID;
lldb::tid_t
GetThreadID () const;
%feature("autodoc", "
Return the index number for this SBThread. The index number is the same thing
that a user gives as an argument to 'thread select' in the command line lldb.
These numbers start at 1 (for the first thread lldb sees in a debug session)
and increments up throughout the process lifetime. An index number will not be
reused for a different thread later in a process - thread 1 will always be
associated with the same thread. See related GetThreadID.
This method returns a uint32_t index number, takes no arguments.
")
GetIndexID;
uint32_t
GetIndexID () const;
const char *
GetName () const;
%feature("autodoc", "
Return the queue name associated with this thread, if any, as a str.
For example, with a libdispatch (aka Grand Central Dispatch) queue.
") GetQueueName;
const char *
GetQueueName() const;
%feature("autodoc", "
Return the dispatch_queue_id for this thread, if any, as a lldb::queue_id_t.
For example, with a libdispatch (aka Grand Central Dispatch) queue.
") GetQueueID;
lldb::queue_id_t
GetQueueID() const;
Initial merge of some of the iOS 8 / Mac OS X Yosemite specific lldb support. I'll be doing more testing & cleanup but I wanted to get the initial checkin done. This adds a new SBExpressionOptions::SetLanguage API for selecting a language of an expression. I added adds a new SBThread::GetInfoItemByPathString for retriving information about a thread from that thread's StructuredData. I added a new StructuredData class for representing key-value/array/dictionary information (e.g. JSON formatted data). Helper functions to read JSON and create a StructuredData object, and to print a StructuredData object in JSON format are included. A few Cocoa / Cocoa Touch data formatters were updated by Enrico to track changes in iOS 8 / Yosemite. Before we query a thread's extended information, the system runtime may provide hints to the remote debug stub that it will use to retrieve values out of runtime structures. I added a new SystemRuntime method AddThreadExtendedInfoPacketHints which allows the SystemRuntime to add key-value type data to the initial request that we send to the remote stub. The thread-format formatter string can now retrieve values out of a thread's extended info structured data. The default thread-format string picks up two of these - thread.info.activity.name and thread.info.trace_messages. I added a new "jThreadExtendedInfo" packet in debugserver; I will add documentation to the lldb-gdb-remote.txt doc soon. It accepts JSON formatted arguments (most importantly, "thread":threadnum) and it returns a variety of information regarding the thread to lldb in JSON format. This JSON return is scanned into a StructuredData object that is associated with the thread; UI layers can query the thread's StructuredData to see if key-values are present, and if so, show them to the user. These key-values are likely to be specific to different targets with some commonality among many targets. For instance, many targets will be able to advertise the pthread_t value for a thread. I added an initial rough cut of "thread info" command which will print the information about a thread from the jThreadExtendedInfo result. I need to do more work to make this format reasonably. Han Ming added calls into the pmenergy and pmsample libraries if debugserver is run on Mac OS X Yosemite to get information about the inferior's power use. I added support to debugserver for gathering the Genealogy information about threads, if it exists, and returning it in the jThreadExtendedInfo JSON result. llvm-svn: 210874
2014-06-13 10:37:02 +08:00
%feature("autodoc", "
Takes a path string and a SBStream reference as parameters, returns a bool.
Collects the thread's 'info' dictionary from the remote system, uses the path
argument to descend into the dictionary to an item of interest, and prints
it into the SBStream in a natural format. Return bool is to indicate if
anything was printed into the stream (true) or not (false).
") GetInfoItemByPathAsString;
bool
GetInfoItemByPathAsString (const char *path, lldb::SBStream &strm);
%feature("autodoc", "
Return the SBQueue for this thread. If this thread is not currently associated
with a libdispatch queue, the SBQueue object's IsValid() method will return false.
If this SBThread is actually a HistoryThread, we may be able to provide QueueID
and QueueName, but not provide an SBQueue. Those individual attributes may have
been saved for the HistoryThread without enough information to reconstitute the
entire SBQueue at that time.
This method takes no arguments, returns an SBQueue.
") GetQueue;
lldb::SBQueue
GetQueue () const;
void
StepOver (lldb::RunMode stop_other_threads = lldb::eOnlyDuringStepping);
void
StepInto (lldb::RunMode stop_other_threads = lldb::eOnlyDuringStepping);
void
StepInto (const char *target_name, lldb::RunMode stop_other_threads = lldb::eOnlyDuringStepping);
%feature("autodoc", "
Step the current thread from the current source line to the line given by end_line, stopping if
the thread steps into the function given by target_name. If target_name is None, then stepping will stop
in any of the places we would normally stop.
") StepInto;
void
StepInto (const char *target_name,
uint32_t end_line,
SBError &error,
lldb::RunMode stop_other_threads = lldb::eOnlyDuringStepping);
void
StepOut ();
void
StepOutOfFrame (lldb::SBFrame &frame);
void
StepInstruction(bool step_over);
SBError
StepOverUntil (lldb::SBFrame &frame,
lldb::SBFileSpec &file_spec,
uint32_t line);
SBError
StepUsingScriptedThreadPlan (const char *script_class_name);
SBError
JumpToLine (lldb::SBFileSpec &file_spec, uint32_t line);
void
RunToAddress (lldb::addr_t addr);
%feature("autodoc", "
Force a return from the frame passed in (and any frames younger than it)
without executing any more code in those frames. If return_value contains
a valid SBValue, that will be set as the return value from frame. Note, at
present only scalar return values are supported.
") ReturnFromFrame;
SBError
ReturnFromFrame (SBFrame &frame, SBValue &return_value);
%feature("docstring", "
//--------------------------------------------------------------------------
/// LLDB currently supports process centric debugging which means when any
/// thread in a process stops, all other threads are stopped. The Suspend()
/// call here tells our process to suspend a thread and not let it run when
/// the other threads in a process are allowed to run. So when
/// SBProcess::Continue() is called, any threads that aren't suspended will
/// be allowed to run. If any of the SBThread functions for stepping are
/// called (StepOver, StepInto, StepOut, StepInstruction, RunToAddres), the
2014-07-02 05:22:11 +08:00
/// thread will now be allowed to run and these functions will simply return.
///
/// Eventually we plan to add support for thread centric debugging where
/// each thread is controlled individually and each thread would broadcast
/// its state, but we haven't implemented this yet.
///
/// Likewise the SBThread::Resume() call will again allow the thread to run
/// when the process is continued.
///
/// Suspend() and Resume() functions are not currently reference counted, if
/// anyone has the need for them to be reference counted, please let us
/// know.
//--------------------------------------------------------------------------
") Suspend;
bool
Suspend();
bool
Resume ();
bool
IsSuspended();
bool
IsStopped();
uint32_t
GetNumFrames ();
lldb::SBFrame
GetFrameAtIndex (uint32_t idx);
lldb::SBFrame
GetSelectedFrame ();
lldb::SBFrame
SetSelectedFrame (uint32_t frame_idx);
lldb::SBProcess
GetProcess ();
bool
GetDescription (lldb::SBStream &description) const;
bool
GetStatus (lldb::SBStream &status) const;
bool
operator == (const lldb::SBThread &rhs) const;
bool
operator != (const lldb::SBThread &rhs) const;
%feature("autodoc","
Given an argument of str to specify the type of thread-origin extended
backtrace to retrieve, query whether the origin of this thread is
available. An SBThread is retured; SBThread.IsValid will return true
if an extended backtrace was available. The returned SBThread is not
a part of the SBProcess' thread list and it cannot be manipulated like
normal threads -- you cannot step or resume it, for instance -- it is
intended to used primarily for generating a backtrace. You may request
the returned thread's own thread origin in turn.
") GetExtendedBacktraceThread;
lldb::SBThread
GetExtendedBacktraceThread (const char *type);
%feature("autodoc","
Takes no arguments, returns a uint32_t.
If this SBThread is an ExtendedBacktrace thread, get the IndexID of the
original thread that this ExtendedBacktrace thread represents, if
available. The thread that was running this backtrace in the past may
not have been registered with lldb's thread index (if it was created,
did its work, and was destroyed without lldb ever stopping execution).
In that case, this ExtendedBacktrace thread's IndexID will be returned.
") GetExtendedBacktraceOriginatingIndexID;
uint32_t
GetExtendedBacktraceOriginatingIndexID();
%feature("autodoc","
Takes no arguments, returns a bool.
lldb may be able to detect that function calls should not be executed
on a given thread at a particular point in time. It is recommended that
this is checked before performing an inferior function call on a given
thread.
") SafeToCallFunctions;
bool
SafeToCallFunctions ();
%pythoncode %{
class frames_access(object):
Added many more python convenience accessors: You can now access a frame in a thread using: lldb.SBThread.frame[int] -> lldb.SBFrame object for a frame in a thread Where "int" is an integer index. You can also access a list object with all of the frames using: lldb.SBThread.frames => list() of lldb.SBFrame objects All SB objects that give out SBAddress objects have properties named "addr" lldb.SBInstructionList now has the following convenience accessors for len() and instruction access using an index: insts = lldb.frame.function.instructions for idx in range(len(insts)): print insts[idx] Instruction lists can also lookup an isntruction using a lldb.SBAddress as the key: pc_inst = lldb.frame.function.instructions[lldb.frame.addr] lldb.SBProcess now exposes: lldb.SBProcess.is_alive => BOOL Check if a process is exists and is alive lldb.SBProcess.is_running => BOOL check if a process is running (or stepping): lldb.SBProcess.is_running => BOOL check if a process is currently stopped or crashed: lldb.SBProcess.thread[int] => lldb.SBThreads for a given "int" zero based index lldb.SBProcess.threads => list() containing all lldb.SBThread objects in a process SBInstruction now exposes: lldb.SBInstruction.mnemonic => python string for instruction mnemonic lldb.SBInstruction.operands => python string for instruction operands lldb.SBInstruction.command => python string for instruction comment SBModule now exposes: lldb.SBModule.uuid => uuid.UUID(), an UUID object from the "uuid" python module lldb.SBModule.symbol[int] => lldb.Symbol, lookup symbol by zero based index lldb.SBModule.symbol[str] => list() of lldb.Symbol objects that match "str" lldb.SBModule.symbol[re] => list() of lldb.Symbol objecxts that match the regex lldb.SBModule.symbols => list() of all symbols in a module SBAddress objects can now access the current load address with the "lldb.SBAddress.load_addr" property. The current "lldb.target" will be used to try and resolve the load address. Load addresses can also be set using this accessor: addr = lldb.SBAddress() addd.load_addr = 0x123023 Then you can check the section and offset to see if the address got resolved. SBTarget now exposes: lldb.SBTarget.module[int] => lldb.SBModule from zero based module index lldb.SBTarget.module[str] => lldb.SBModule by basename or fullpath or uuid string lldb.SBTarget.module[uuid.UUID()] => lldb.SBModule whose UUID matches lldb.SBTarget.module[re] => list() of lldb.SBModule objects that match the regex lldb.SBTarget.modules => list() of all lldb.SBModule objects in the target SBSymbol now exposes: lldb.SBSymbol.name => python string for demangled symbol name lldb.SBSymbol.mangled => python string for mangled symbol name or None if there is none lldb.SBSymbol.type => lldb.eSymbolType enum value lldb.SBSymbol.addr => SBAddress object that represents the start address for this symbol (if there is one) lldb.SBSymbol.end_addr => SBAddress for the end address of the symbol (if there is one) lldb.SBSymbol.prologue_size => pythin int containing The size of the prologue in bytes lldb.SBSymbol.instructions => SBInstructionList containing all instructions for this symbol SBFunction now also has these new properties in addition to what is already has: lldb.SBFunction.addr => SBAddress object that represents the start address for this function lldb.SBFunction.end_addr => SBAddress for the end address of the function lldb.SBFunction.instructions => SBInstructionList containing all instructions for this function SBFrame now exposes the SBAddress for the frame: lldb.SBFrame.addr => SBAddress which is the section offset address for the current frame PC These are all in addition to what was already added. Documentation and website updates coming soon. llvm-svn: 149489
2012-02-01 16:09:32 +08:00
'''A helper object that will lazily hand out frames for a thread when supplied an index.'''
def __init__(self, sbthread):
self.sbthread = sbthread
def __len__(self):
if self.sbthread:
return int(self.sbthread.GetNumFrames())
Added many more python convenience accessors: You can now access a frame in a thread using: lldb.SBThread.frame[int] -> lldb.SBFrame object for a frame in a thread Where "int" is an integer index. You can also access a list object with all of the frames using: lldb.SBThread.frames => list() of lldb.SBFrame objects All SB objects that give out SBAddress objects have properties named "addr" lldb.SBInstructionList now has the following convenience accessors for len() and instruction access using an index: insts = lldb.frame.function.instructions for idx in range(len(insts)): print insts[idx] Instruction lists can also lookup an isntruction using a lldb.SBAddress as the key: pc_inst = lldb.frame.function.instructions[lldb.frame.addr] lldb.SBProcess now exposes: lldb.SBProcess.is_alive => BOOL Check if a process is exists and is alive lldb.SBProcess.is_running => BOOL check if a process is running (or stepping): lldb.SBProcess.is_running => BOOL check if a process is currently stopped or crashed: lldb.SBProcess.thread[int] => lldb.SBThreads for a given "int" zero based index lldb.SBProcess.threads => list() containing all lldb.SBThread objects in a process SBInstruction now exposes: lldb.SBInstruction.mnemonic => python string for instruction mnemonic lldb.SBInstruction.operands => python string for instruction operands lldb.SBInstruction.command => python string for instruction comment SBModule now exposes: lldb.SBModule.uuid => uuid.UUID(), an UUID object from the "uuid" python module lldb.SBModule.symbol[int] => lldb.Symbol, lookup symbol by zero based index lldb.SBModule.symbol[str] => list() of lldb.Symbol objects that match "str" lldb.SBModule.symbol[re] => list() of lldb.Symbol objecxts that match the regex lldb.SBModule.symbols => list() of all symbols in a module SBAddress objects can now access the current load address with the "lldb.SBAddress.load_addr" property. The current "lldb.target" will be used to try and resolve the load address. Load addresses can also be set using this accessor: addr = lldb.SBAddress() addd.load_addr = 0x123023 Then you can check the section and offset to see if the address got resolved. SBTarget now exposes: lldb.SBTarget.module[int] => lldb.SBModule from zero based module index lldb.SBTarget.module[str] => lldb.SBModule by basename or fullpath or uuid string lldb.SBTarget.module[uuid.UUID()] => lldb.SBModule whose UUID matches lldb.SBTarget.module[re] => list() of lldb.SBModule objects that match the regex lldb.SBTarget.modules => list() of all lldb.SBModule objects in the target SBSymbol now exposes: lldb.SBSymbol.name => python string for demangled symbol name lldb.SBSymbol.mangled => python string for mangled symbol name or None if there is none lldb.SBSymbol.type => lldb.eSymbolType enum value lldb.SBSymbol.addr => SBAddress object that represents the start address for this symbol (if there is one) lldb.SBSymbol.end_addr => SBAddress for the end address of the symbol (if there is one) lldb.SBSymbol.prologue_size => pythin int containing The size of the prologue in bytes lldb.SBSymbol.instructions => SBInstructionList containing all instructions for this symbol SBFunction now also has these new properties in addition to what is already has: lldb.SBFunction.addr => SBAddress object that represents the start address for this function lldb.SBFunction.end_addr => SBAddress for the end address of the function lldb.SBFunction.instructions => SBInstructionList containing all instructions for this function SBFrame now exposes the SBAddress for the frame: lldb.SBFrame.addr => SBAddress which is the section offset address for the current frame PC These are all in addition to what was already added. Documentation and website updates coming soon. llvm-svn: 149489
2012-02-01 16:09:32 +08:00
return 0
def __getitem__(self, key):
if type(key) is int and key < self.sbthread.GetNumFrames():
return self.sbthread.GetFrameAtIndex(key)
return None
def get_frames_access_object(self):
'''An accessor function that returns a frames_access() object which allows lazy frame access from a lldb.SBThread object.'''
return self.frames_access (self)
Added many more python convenience accessors: You can now access a frame in a thread using: lldb.SBThread.frame[int] -> lldb.SBFrame object for a frame in a thread Where "int" is an integer index. You can also access a list object with all of the frames using: lldb.SBThread.frames => list() of lldb.SBFrame objects All SB objects that give out SBAddress objects have properties named "addr" lldb.SBInstructionList now has the following convenience accessors for len() and instruction access using an index: insts = lldb.frame.function.instructions for idx in range(len(insts)): print insts[idx] Instruction lists can also lookup an isntruction using a lldb.SBAddress as the key: pc_inst = lldb.frame.function.instructions[lldb.frame.addr] lldb.SBProcess now exposes: lldb.SBProcess.is_alive => BOOL Check if a process is exists and is alive lldb.SBProcess.is_running => BOOL check if a process is running (or stepping): lldb.SBProcess.is_running => BOOL check if a process is currently stopped or crashed: lldb.SBProcess.thread[int] => lldb.SBThreads for a given "int" zero based index lldb.SBProcess.threads => list() containing all lldb.SBThread objects in a process SBInstruction now exposes: lldb.SBInstruction.mnemonic => python string for instruction mnemonic lldb.SBInstruction.operands => python string for instruction operands lldb.SBInstruction.command => python string for instruction comment SBModule now exposes: lldb.SBModule.uuid => uuid.UUID(), an UUID object from the "uuid" python module lldb.SBModule.symbol[int] => lldb.Symbol, lookup symbol by zero based index lldb.SBModule.symbol[str] => list() of lldb.Symbol objects that match "str" lldb.SBModule.symbol[re] => list() of lldb.Symbol objecxts that match the regex lldb.SBModule.symbols => list() of all symbols in a module SBAddress objects can now access the current load address with the "lldb.SBAddress.load_addr" property. The current "lldb.target" will be used to try and resolve the load address. Load addresses can also be set using this accessor: addr = lldb.SBAddress() addd.load_addr = 0x123023 Then you can check the section and offset to see if the address got resolved. SBTarget now exposes: lldb.SBTarget.module[int] => lldb.SBModule from zero based module index lldb.SBTarget.module[str] => lldb.SBModule by basename or fullpath or uuid string lldb.SBTarget.module[uuid.UUID()] => lldb.SBModule whose UUID matches lldb.SBTarget.module[re] => list() of lldb.SBModule objects that match the regex lldb.SBTarget.modules => list() of all lldb.SBModule objects in the target SBSymbol now exposes: lldb.SBSymbol.name => python string for demangled symbol name lldb.SBSymbol.mangled => python string for mangled symbol name or None if there is none lldb.SBSymbol.type => lldb.eSymbolType enum value lldb.SBSymbol.addr => SBAddress object that represents the start address for this symbol (if there is one) lldb.SBSymbol.end_addr => SBAddress for the end address of the symbol (if there is one) lldb.SBSymbol.prologue_size => pythin int containing The size of the prologue in bytes lldb.SBSymbol.instructions => SBInstructionList containing all instructions for this symbol SBFunction now also has these new properties in addition to what is already has: lldb.SBFunction.addr => SBAddress object that represents the start address for this function lldb.SBFunction.end_addr => SBAddress for the end address of the function lldb.SBFunction.instructions => SBInstructionList containing all instructions for this function SBFrame now exposes the SBAddress for the frame: lldb.SBFrame.addr => SBAddress which is the section offset address for the current frame PC These are all in addition to what was already added. Documentation and website updates coming soon. llvm-svn: 149489
2012-02-01 16:09:32 +08:00
def get_thread_frames(self):
'''An accessor function that returns a list() that contains all frames in a lldb.SBThread object.'''
frames = []
for frame in self:
frames.append(frame)
return frames
Added many more python convenience accessors: You can now access a frame in a thread using: lldb.SBThread.frame[int] -> lldb.SBFrame object for a frame in a thread Where "int" is an integer index. You can also access a list object with all of the frames using: lldb.SBThread.frames => list() of lldb.SBFrame objects All SB objects that give out SBAddress objects have properties named "addr" lldb.SBInstructionList now has the following convenience accessors for len() and instruction access using an index: insts = lldb.frame.function.instructions for idx in range(len(insts)): print insts[idx] Instruction lists can also lookup an isntruction using a lldb.SBAddress as the key: pc_inst = lldb.frame.function.instructions[lldb.frame.addr] lldb.SBProcess now exposes: lldb.SBProcess.is_alive => BOOL Check if a process is exists and is alive lldb.SBProcess.is_running => BOOL check if a process is running (or stepping): lldb.SBProcess.is_running => BOOL check if a process is currently stopped or crashed: lldb.SBProcess.thread[int] => lldb.SBThreads for a given "int" zero based index lldb.SBProcess.threads => list() containing all lldb.SBThread objects in a process SBInstruction now exposes: lldb.SBInstruction.mnemonic => python string for instruction mnemonic lldb.SBInstruction.operands => python string for instruction operands lldb.SBInstruction.command => python string for instruction comment SBModule now exposes: lldb.SBModule.uuid => uuid.UUID(), an UUID object from the "uuid" python module lldb.SBModule.symbol[int] => lldb.Symbol, lookup symbol by zero based index lldb.SBModule.symbol[str] => list() of lldb.Symbol objects that match "str" lldb.SBModule.symbol[re] => list() of lldb.Symbol objecxts that match the regex lldb.SBModule.symbols => list() of all symbols in a module SBAddress objects can now access the current load address with the "lldb.SBAddress.load_addr" property. The current "lldb.target" will be used to try and resolve the load address. Load addresses can also be set using this accessor: addr = lldb.SBAddress() addd.load_addr = 0x123023 Then you can check the section and offset to see if the address got resolved. SBTarget now exposes: lldb.SBTarget.module[int] => lldb.SBModule from zero based module index lldb.SBTarget.module[str] => lldb.SBModule by basename or fullpath or uuid string lldb.SBTarget.module[uuid.UUID()] => lldb.SBModule whose UUID matches lldb.SBTarget.module[re] => list() of lldb.SBModule objects that match the regex lldb.SBTarget.modules => list() of all lldb.SBModule objects in the target SBSymbol now exposes: lldb.SBSymbol.name => python string for demangled symbol name lldb.SBSymbol.mangled => python string for mangled symbol name or None if there is none lldb.SBSymbol.type => lldb.eSymbolType enum value lldb.SBSymbol.addr => SBAddress object that represents the start address for this symbol (if there is one) lldb.SBSymbol.end_addr => SBAddress for the end address of the symbol (if there is one) lldb.SBSymbol.prologue_size => pythin int containing The size of the prologue in bytes lldb.SBSymbol.instructions => SBInstructionList containing all instructions for this symbol SBFunction now also has these new properties in addition to what is already has: lldb.SBFunction.addr => SBAddress object that represents the start address for this function lldb.SBFunction.end_addr => SBAddress for the end address of the function lldb.SBFunction.instructions => SBInstructionList containing all instructions for this function SBFrame now exposes the SBAddress for the frame: lldb.SBFrame.addr => SBAddress which is the section offset address for the current frame PC These are all in addition to what was already added. Documentation and website updates coming soon. llvm-svn: 149489
2012-02-01 16:09:32 +08:00
__swig_getmethods__["id"] = GetThreadID
if _newclass: id = property(GetThreadID, None, doc='''A read only property that returns the thread ID as an integer.''')
__swig_getmethods__["idx"] = GetIndexID
if _newclass: idx = property(GetIndexID, None, doc='''A read only property that returns the thread index ID as an integer. Thread index ID values start at 1 and increment as threads come and go and can be used to uniquely identify threads.''')
__swig_getmethods__["return_value"] = GetStopReturnValue
if _newclass: return_value = property(GetStopReturnValue, None, doc='''A read only property that returns an lldb object that represents the return value from the last stop (lldb.SBValue) if we just stopped due to stepping out of a function.''')
__swig_getmethods__["process"] = GetProcess
if _newclass: process = property(GetProcess, None, doc='''A read only property that returns an lldb object that represents the process (lldb.SBProcess) that owns this thread.''')
__swig_getmethods__["num_frames"] = GetNumFrames
if _newclass: num_frames = property(GetNumFrames, None, doc='''A read only property that returns the number of stack frames in this thread as an integer.''')
__swig_getmethods__["frames"] = get_thread_frames
if _newclass: frames = property(get_thread_frames, None, doc='''A read only property that returns a list() of lldb.SBFrame objects for all frames in this thread.''')
__swig_getmethods__["frame"] = get_frames_access_object
if _newclass: frame = property(get_frames_access_object, None, doc='''A read only property that returns an object that can be used to access frames as an array ("frame_12 = lldb.thread.frame[12]").''')
Added many more python convenience accessors: You can now access a frame in a thread using: lldb.SBThread.frame[int] -> lldb.SBFrame object for a frame in a thread Where "int" is an integer index. You can also access a list object with all of the frames using: lldb.SBThread.frames => list() of lldb.SBFrame objects All SB objects that give out SBAddress objects have properties named "addr" lldb.SBInstructionList now has the following convenience accessors for len() and instruction access using an index: insts = lldb.frame.function.instructions for idx in range(len(insts)): print insts[idx] Instruction lists can also lookup an isntruction using a lldb.SBAddress as the key: pc_inst = lldb.frame.function.instructions[lldb.frame.addr] lldb.SBProcess now exposes: lldb.SBProcess.is_alive => BOOL Check if a process is exists and is alive lldb.SBProcess.is_running => BOOL check if a process is running (or stepping): lldb.SBProcess.is_running => BOOL check if a process is currently stopped or crashed: lldb.SBProcess.thread[int] => lldb.SBThreads for a given "int" zero based index lldb.SBProcess.threads => list() containing all lldb.SBThread objects in a process SBInstruction now exposes: lldb.SBInstruction.mnemonic => python string for instruction mnemonic lldb.SBInstruction.operands => python string for instruction operands lldb.SBInstruction.command => python string for instruction comment SBModule now exposes: lldb.SBModule.uuid => uuid.UUID(), an UUID object from the "uuid" python module lldb.SBModule.symbol[int] => lldb.Symbol, lookup symbol by zero based index lldb.SBModule.symbol[str] => list() of lldb.Symbol objects that match "str" lldb.SBModule.symbol[re] => list() of lldb.Symbol objecxts that match the regex lldb.SBModule.symbols => list() of all symbols in a module SBAddress objects can now access the current load address with the "lldb.SBAddress.load_addr" property. The current "lldb.target" will be used to try and resolve the load address. Load addresses can also be set using this accessor: addr = lldb.SBAddress() addd.load_addr = 0x123023 Then you can check the section and offset to see if the address got resolved. SBTarget now exposes: lldb.SBTarget.module[int] => lldb.SBModule from zero based module index lldb.SBTarget.module[str] => lldb.SBModule by basename or fullpath or uuid string lldb.SBTarget.module[uuid.UUID()] => lldb.SBModule whose UUID matches lldb.SBTarget.module[re] => list() of lldb.SBModule objects that match the regex lldb.SBTarget.modules => list() of all lldb.SBModule objects in the target SBSymbol now exposes: lldb.SBSymbol.name => python string for demangled symbol name lldb.SBSymbol.mangled => python string for mangled symbol name or None if there is none lldb.SBSymbol.type => lldb.eSymbolType enum value lldb.SBSymbol.addr => SBAddress object that represents the start address for this symbol (if there is one) lldb.SBSymbol.end_addr => SBAddress for the end address of the symbol (if there is one) lldb.SBSymbol.prologue_size => pythin int containing The size of the prologue in bytes lldb.SBSymbol.instructions => SBInstructionList containing all instructions for this symbol SBFunction now also has these new properties in addition to what is already has: lldb.SBFunction.addr => SBAddress object that represents the start address for this function lldb.SBFunction.end_addr => SBAddress for the end address of the function lldb.SBFunction.instructions => SBInstructionList containing all instructions for this function SBFrame now exposes the SBAddress for the frame: lldb.SBFrame.addr => SBAddress which is the section offset address for the current frame PC These are all in addition to what was already added. Documentation and website updates coming soon. llvm-svn: 149489
2012-02-01 16:09:32 +08:00
__swig_getmethods__["name"] = GetName
if _newclass: name = property(GetName, None, doc='''A read only property that returns the name of this thread as a string.''')
__swig_getmethods__["queue"] = GetQueueName
if _newclass: queue = property(GetQueueName, None, doc='''A read only property that returns the dispatch queue name of this thread as a string.''')
__swig_getmethods__["queue_id"] = GetQueueID
if _newclass: queue_id = property(GetQueueID, None, doc='''A read only property that returns the dispatch queue id of this thread as an integer.''')
__swig_getmethods__["stop_reason"] = GetStopReason
if _newclass: stop_reason = property(GetStopReason, None, doc='''A read only property that returns an lldb enumeration value (see enumerations that start with "lldb.eStopReason") that represents the reason this thread stopped.''')
__swig_getmethods__["is_suspended"] = IsSuspended
if _newclass: is_suspended = property(IsSuspended, None, doc='''A read only property that returns a boolean value that indicates if this thread is suspended.''')
__swig_getmethods__["is_stopped"] = IsStopped
if _newclass: is_stopped = property(IsStopped, None, doc='''A read only property that returns a boolean value that indicates if this thread is stopped but not exited.''')
%}
};
} // namespace lldb