Calling Thread::start multiple times leads to undefined behavior since
the Thread class was not designed to handle being restarted. Return an
error code if Thread::start is called a second time to prevent this
behavior.
I accidentally broke only uARM mbed 2 builds. Here is the story: When
scanning for resources, toolchains look for any `TOOLCHAIN_<classname>`
folders to include. These `<classname>`s mostly match the name passed in
on the command line with one exception: `uARM` on the command line maps
to `ARM_MICRO` the class. This would not be a problem except for the bug
that I introduced in a prior commit. The bug is that the mbed2 library
builds will use the name passed in on the command line to construct
`TOOLCHAIN_<cli-name>`. This will not match when scanning.
I fixed it by translating the `<cli-name>` into the `<classname>`.
An earlier patch in this series changed the API for
`build_api.prepare_toolchain`. This commit updates the `find_test`
function to call `prepare_toolchain` correctly.
An earlier patch in this series relies on the assumption that all
toolchain construction goes through `prepare_toolchain`. This is still
not the case. The only remaining user of the `mbedToolchain` object that
does not go through `prepare_toolchain` is the static analysis scanner.
It's basically dead-code at this point. I say we remove it. So this
patch removes it.
The prior patch in this series makes the assumption that any building
will go through `build_api.prepare_toolchain`. This was not a valid
assumption for the mbed2 build process. So, instead of maintaining 2
ways of using the toolchain classes, I elected to unify on
`prepare_toolchain`.
This is a bug fix for the following bug (Github issue #437):
If two builds were run specifying a non-default build folder, the second
build would fail to link with duplicate symbols and may not fit on the
device. The root of this problem is that these non-default build folders
are not ignored by scan-resources, and therefore included in the build.
We fix this bug by ignoring the build directory passed into the tools.
The pwmout driver is very similar for each STM32 family.
The only family specific part is defined in pwmout_device.h file.
It mainly contains few specific information:
- The mapping of PWM/TIMERS to APB1 or APB2 so that we can get the clock
- The clock calculation uses the right APB clock, which was sometimes
not the case before and could have lead to errors in case dividers were
enabled on APB clock settings. This case is now covered.
- Inactivation of inverted support on feaw families
The `sleep` function as been changed into `hal_sleep` by #3607.
Unfortunately the call to `sleep` in the hal_patch for the NRF51822 has not been
updated to `hal_sleep`. The result was a link time error for targets based on
NRF51822_LEGACY compiling with the mbed OS 5 tree.
If the free memory on a device is small enough then the calculation to
determine heap size could underflow to a large value. If this happens
then malloc will never return failure and instead will cause a crash on
allocation. This patch prevents the underflow so malloc works as
expected even with low amounts of free memory.
We have scripts (written in python) that are run after a binary image is
created in the tools. These scripts are not really exportable, as they
are part of the tools and may include and use any bits of python code
they please. So we don't export them. This patch disables export
combinations that would not work because the post-binary hook is not
exported. A white-list is used for forward compatibility.
In case the selected frequency is higher than the requested one, it is
better to send a debug warning rather than an blocking error.
In case of such warning, user may need to redefine the clock tree setting
at higher level (reducing peripheral's input clocks during init phase).
Up to now, speed was set for outputs and alternate, but this is
also valid for input configuration.
By default, let's configure high speed.
This is done firts, because speed for some families like F1 is mixed
with Input/Output mode settings, so can be later over-ridden if needed.
By default the number of pstorage pages is set 1 and all addresses are
calculated in the pstorage module accordingly. Nordic recommends
changing this macro to whatever number is suitable for the app (see
https://devzone.nordicsemi.com/question/53066/what-will-be-the-starting-
address-of-pstorage-page-how-we-can-change-it/?answer=53085#post-id-5308
5) which is not quite elegant given that pstorage_platform.h is part of
the mbed-os repo. With this modification you can e.g. define
PSTORAGE_NUM_OF_PAGES on the command line, however note that you should
rebuild mbed-os with this setting as it affects pstorage_platform.c.
Sometimes when under heavy load, the CI machines can take a significant
amount of time to bring up a python process (~10s). The timeouts for
the network tests were chosen without much thought, and didn't leave
much room for this sort of delay.
This patch brings up timeouts for ntetwork tests 20s -> 60s