Also add test cases for watching a variable as well as a location expressed as an expression.
o TestMyFirstWatchpoint.py:
Modified to test "watchpoint set -w write global".
o TestWatchLocationWithWatchSet.py:
Added to test "watchpoint set -w write -x 1 g_char_ptr + 7" where a contrived example program
with several threads is supposed to only access the array index within the range [0..6], but
there's some misbehaving thread writing past the range.
rdar://problem/10701761
llvm-svn: 149280
consume one or more of their arguments. If not done, this will cause a leak
as method will not consume the argument when receiver is null.
In this patch, the null path releases consumed argument.
// rdar://10444474
llvm-svn: 149279
This is to prevent diagnostic when using NSLocalizedString or CFCopyLocalizedString
macros which are usually used in place of NS and CF strings literals.
llvm-svn: 149268
This has shown better results for 2mm, 3mm and a couple of other benchmarks.
After this we show consistenly better results as PoCC with maxfuse. We need
to see if PoCC can also give better results with another fusion strategy.
llvm-svn: 149267
maximise_band_depth does not seem to have any effect for now, but it may help to
increase the amount of tileable loops. We expose the flag to be able to analyze
its effects when looking into individual benchmarks.
llvm-svn: 149266
This speeds up the scheduler by orders of magnitude and in addition yields often
to a better schedule.
With this we can compile all polybench kernels with less than 5x compile time
overhead. In general the overhead is even less than 2-3x. This is still with
running a lot of redundant passes and no compile time tuning at all. There are
several obvious areas where we can improve here further.
There are also two test cases where we cannot find a schedule any more (cholesky
and another). I will look into them later on.
With this we have a very solid base line from which we can start to optimize
further.
llvm-svn: 149263
sbvalue.value (<SBValue>)
sbvalue.variable (<SBValue>)
Initialize both with a lldb.SBValue
sbvalue.value() make all sorts of convenience properties. Type "help(sbvalue.value)"
in the embedded python interpreter to see what is available.
sbvalue.variable() wraps a lldb.SBValue and allows you to play with your variable just
as you would expect:
pt = sbvalue.variable (lldb.frame.FindVariable("pt"))
print pt.x
print py.y
argv = sbvalue.variable (lldb.frame.FindVariable("argv"))
print argv[0]
Member access and array acccess is all taken care of!
llvm-svn: 149260
mangling of floating-point literals. I just went ahead and
reimplemented toString() here; if someone wants to generalize
the library routine to do this, or feels strongly that we should
be post-processing, please feel free.
llvm-svn: 149256
'-target'. The original flag was part of a flag group that marked it as
driver-only. The new flag didn't ever get equivalent treatment. This
caused the '-target' flag to get passed down to any raw GCC invocation.
Marking it as a driver option fixes this and PR11875.
llvm-svn: 149244
contain shared pointers to the lldb_private::Target and lldb_private::Process
objects respectively as we won't want the target or process just going away.
Also cleaned up the lldb::SBModule to remove dangerous pointer accessors.
For any code the public API files, we should always be grabbing shared
pointers to any objects for the current class, and any other classes prior
to running code with them.
llvm-svn: 149238
- Remove the printf0 special handling as we treat it as printf anyway.
- Perform basic checks (non-literal, empty) for all formats and not only printf/scanf.
llvm-svn: 149236
frames might go away (the object itself, not the actual logical frame) when
we are single stepping due to the way we currently sometimes end up flushing
frames when stepping in/out/over. They later will come back to life
represented by another object yet they have the same StackID. Now when you get
a lldb::SBFrame object, it will track the frame it is initialized with until
the thread goes away or the StackID no longer exists in the stack for the
thread it was created on. It uses a weak_ptr to both the frame and thread and
also stores the StackID. These three items allow us to determine when the
stack frame object has gone away (the weak_ptr will be NULL) and allows us to
find the correct frame again. In our test suite we had such cases where we
were just getting lucky when something like this happened:
1 - stop at breakpoint
2 - get first frame in thread where we stopped
3 - run an expression that causes the program to JIT and run code
4 - run more expressions on the frame from step 2 which was very very luckily
still around inside a shared pointer, yet, not part of the current
thread (a new stack frame object had appeared with the same stack ID and
depth).
We now avoid all such issues and properly keep up to date, or we start
returning errors when the frame doesn't exist and always responds with
invalid answers.
Also fixed the UserSettingsController (not going to rewrite this just yet)
so that it doesn't crash on shutdown. Using weak_ptr's came in real handy to
track when the master controller has already gone away and this allowed me to
pull out the previous NotifyOwnerIsShuttingDown() patch as it is no longer
needed.
llvm-svn: 149231
Johnny Chen