This also fixes a warning about an empty body in cortexm.c
if PLATFORM_HAS_DEBUG is defined but debugging is not enabled:
if (platform_timeout_is_expired(&to))
DEBUG_WARN("Reset seem to be stuck low!\n");
If the RP2040 is using the ring oscilator (ROSC) rather than the crystal
oscilator (XOSC) then flashing program will take much longer. As the XOSC is not
enabled at boot we should not assume it will be enabled before the debugger is
connected (or indeed at all), thus should use the longer timeout during load
commands.
Increasing spinner timeout to 500 means `tc_printf` is not called during
the `_flash_range_erase`. This is important as `_flash_range_erase` is
used when loading. This fixes the issue:
https://github.com/blacksphere/blackmagic/issues/875
Also adding spinner timeout counter to reduce bus traffic.
This reverts commit 61e237ec87.
This makes a CMSIS-DAP probe with version < 1.2 work again on DP V1 devices.
Status of other combination unknown:
DP V1 V2 V2/Multidrop
Probe
< 1.2 ok ok --
>= 1.2 ? ? ?
Use one file in dfu and server
For STM32, provide 3 ways to handle
- BMP way (8 bytes)
- DFU way (12 Bytes)
- Full unique id (24 Bytes), as with STLINK(V3) Bootloader
- RP2040 show both DPs
- Multidrop test with STM32L552 and STM32H745 allows selection
with "-m 0x4500041" (H7), "-m 1" (L552) or "-m 0x01002927" (RP2040)
This adds support for the STM32WL series in stm32l4.c. These parts have
the same flash registers layout as the L4 series, but a different base.
Since there are already two sets of registers in this target file, this
adds support for register maps that can be customized for each device
ID.
This adds a TRY_CATCH around the adiv5_ap_read_id() in
adiv5_component_probe() and resets the DP when that happens.
It seems like the STM32WLE5 comes with the AP of the inactive core
enabled in a way that does not make it detectable, and the current code
times out and leaves the whole device hanging.
Catching the timeout and calling adiv5_dp_abort() seems to restore the
device to a useable state.
Tested on Seed LoRa-E5 (STM32E5JC).
This patch puts null terminating characters for the 'type',
'version', and 'serial' strings extracted from blackmagic probe
id strings on linux systems.
STM32WLE5 has the same dual core chip as STM32WL5. For the second
core, the additional AP can be see, but access to e.g. CIDR0 for that
Romtable fails.
Aborting the scan too if again the second read of CIDR0 fails makes
sense anyways!
Special iRST_SENSE handling does not apply at least for BMP 2.1c.
On V2.1c, iRST_SENSE was set as output high and xRST high shorted
iRST_SENSE to ground via Q2
FIXME: Check for older versions!
This changes the USB identification from
"Black Magic Probe(STLINK/V2) v..." to
"Black Magic Probe (STLINK/V2) v..."
Signed-off-by: Martin <Ho-Ro@users.noreply.github.com>
This adds support for the NXP S32K148. This is an automotive-grade part
that is derived from the Kinetis line, so it has a very similar
interface to other parts in the family.
Signed-off-by: Sean Cross <sean@xobs.io>
**Summary**
Modifications to fix flash support on the lpc546xx:
- fix IAP entrypoint to be `0x03000204`, not the value at that address
- add a reset and attach sequence before erasing flash sectors. there's
little documentation around this, but experimentally, erasing sector 0
fails when the ROM bootloader is mapped to it (on reset). stepping the
chip once and attaching is enough to snap the chip out of it, permitting
flash erase on sector 0.
- add a few test commands to the lpc546xx table (read_uid, erase/write
sector, etc).
- write the magic CRC value when writing to sector 0
(`lpc_flash_write_magic_vect`).
- move the lpc546xx probe to before the lpc43xx probe, to prevent
getting the lpc546xx into Lockup when reading an illegal memory location
during lpc43xx probing
Fixes#786.
I don't 100% understand the reset/load sequence of this part, but these
changes are sufficient to program and debug the part now.
I didn't do a detailed analysis of what pyocd (via st-link hardware
adapter) and segger jlink do to handle the same, but both of those
worked without modification, so there's some difference in the
sequence they're using.
**Testing**
Verified I can now successfully erase and write an executable in sector
0 (and other sectors).
Verified the new commands work correctly.