* Sync PEC `FINDA_DIDNT_GO_OFF` to `FINDA_FILAMENT_STUCK`
* Sync PEC `FSENSOR_DIDNT_GO_OFF` to `FSENSOR_FILAMENT_STUCK`
* Sync PEC `PULLEY_STALLED` to `PULLEY_CANNOT_MOVE`
* Sync PEC `SELECTOR_CANNOT_MOVE` update text
* Sync PEC `IDLER_CANNOT_MOVE` update text
* Sync PEC `PULLEY_WARNING_TMC_TOO_HOT` to `WARNING_TMC_PULLEY_TOO_HOT`
* Snyc PEC `RestartMMU` to `ResetMMU`
Also related text
* Sync PEC `SELECTOR_WARNING_TMC_TOO_HOT` to `WARNING_TMC_SELECTOR_TOO_HOT`
* Sync PEC `IDLER_WARNING_TMC_TOO_HOT` to `WARNING_TMC_IDLER_TOO_HOT`
* Sync PEC `PULLEY_TMC_OVERHEAT_ERROR` to `TMC_PULLEY_OVERHEAT_ERROR`
* Sync PEC `SELECTOR_TMC_OVERHEAT_ERROR` to `TMC_SELECTOR_OVERHEAT_ERROR`
* Sync PEC `IDLER_TMC_OVERHEAT_ERROR` to `TMC_IDLER_OVERHEAT_ERROR`
* Sync PEC `PULLEY_TMC_DRIVER_ERROR` to `TMC_PULLEY_DRIVER_ERROR`
Also releated text
* Sync PEC `SELECTOR_TMC_DRIVER_ERROR` to `TMC_SELECTOR_DRIVER_ERROR`
Also related text
* Sync PEC `IDLER_TMC_DRIVER_ERROR` to `TMC_IDLER_DRIVER_ERROR`
Also related text
* Sync PEC `PULLEY_TMC_DRIVER_RESET` to `TMC_PULLEY_DRIVER_RESET`
* Sync PEC `SELECTOR_TMC_DRIVER_RESET` to `TMC_SELECTOR_DRIVER_RESET`
* Sync PEC `IDLER_TMC_DRIVER_RESET` to `TMC_IDLER_DRIVER_RESET`
* Sync PEC `PULLEY_TMC_UNDERVOLTAGE_ERROR` to `TMC_PULLEY_UNDERVOLTAGE_ERROR`
* Sync PEC `SELECTOR_TMC_UNDERVOLTAGE_ERROR` to `TMC_SELECTOR_UNDERVOLTAGE_ERROR`
* Sync PEC `IDLER_TMC_UNDERVOLTAGE_ERROR` to `TMC_IDLER_UNDERVOLTAGE_ERROR`
* Sync PEC `PULLEY_TMC_DRIVER_SHORTED` to `TMC_PULLEY_DRIVER_SHORTED`
Also related text
* Sync PEC `SELECTOR_TMC_DRIVER_SHORTED` to `TMC_SELECTOR_DRIVER_SHORTED`
Also related text
* Sync PEC `IDLER_TMC_DRIVER_SHORTED` to `TMC_IDLER_DRIVER_SHORTED`
Also related text
* Sync PEC `PULLEY_SELFTEST_FAILED` to `MMU_PULLEY_SELFTEST_FAILED`
Also related text
* Sync PEC `SELECTOR_SELFTEST_FAILED` to `MMU_SELECTOR_SELFTEST_FAILED`
Also releated text
* Sync PEC `IDLER_SELFTEST_FAILED` to `MMU_IDLER_SELFTEST_FAILED`
Also related text
* Sync PEC fix MMU_MMU
Update MMU MCU UNDERPOWER
* Sync PEC `FIL_ALREADY_LOADED` to `FILAMENT_ALREADY_LOADED`
Also related text
* Add Prusa Error Codes check script
* Remove `:` at FINDA and FSENSOR as it is in other tiles
* Sync
FSENSOR_DIDNT_TRIGGER
MSG_DESC_SELECTOR_CANNOT_MOVE
MSG_DESC_IDLER_CANNOT_MOVE
MSG_DESC_FW_UPDATE_NEEDED
FILAMENT_ALREADY_LOADED
* Add MMU UNKOWN_ERROR PEC
Sync with the 32-bit side.
The ReportingRAII does not handle recursion.
Fixes an issue with the multiple calls to
BeginReport() and EndReport()
Change in memory:
Flash: +14 bytes
SRAM: 0 bytes
We need to call BeginReport and EndReport
otherwise the SD filename is not shown when printing
This only affects single material MMU gcodes
Change in memory:
Flash: -4 bytes
SRAM: 0 bytes
Currently we are queuing many small 2 mm E-moves until the filament
sensor triggers. We do this because we never abort any queued moves,
so making small 2 mm moves ensures we do not move the E-motor more than
2 mm past the filament sensor.
Unfortunately, when E-cool mode is enabled, the E-motor will create
audible clicking sounds (similar one hears during jam or a loose grub
screw). A workaround for this is to queue one or more very long moves.
Where very long is something of the order of hundreds of millimeters. I
have it set to 350 mm but it's just a random constant really. Keep in
mind the firmware will block too large E-moves, if I recall correctly
it was anything above > 450 mm (see PREVENT_LENGTHY_EXTRUDE)
In order to use very long moves, we must somehow stop the E-motor from
moving once the filament sensor triggers. In other words, throw away
what's left of the current E-motor move. For this simple purpose we can
use planner_abort_hard() but we must set planner_aborted to false
afterwards because the code architecture does not allow the main loop()
to run until the Toolchange command is done processing.
Change in memory:
Flash: +18 bytes
SRAM: 0 bytes
The fact that the relationship between
machine position and pixel index is not linear
means we cannot simply rely on comparing
the previous position to the next machine position. i.e derivative of E_AXIS
Because around the max amplitude of the triangle wave
the slope will suddenly change sign and will create a deadzone
which has width 2*mm_per_pixel.
For MMU2S this is ~10mm (or two pixels).
Instead we should split the moves.
And only plan the 2nd move once we're
at the top of the triangle wave. That way we don't really care about the position delta.
Now we just calculate the current y(x)
position relative to current position and divide by mm_per_pixel.
If there is a delta measured with unit 'pixel' then that means
its time to render the next pixel.
This solution seems to work well so far on my end.
Change in memory:
Flash: +2 bytes
SRAM: 0 bytes
This fixes an issue where sometimes
not all 20 pixels are rendered.
It is better to render 1 too many pixels (sometimes), rather than rendering too few.
Change in memory:
Flash: +18 bytes
SRAM: 0 bytes
In case we are running a retry, the firmware
should clear the old rendering before
starting on a new one
Change in memory:
Flash: +6 bytes
SRAM: 0 bytes
It may be useful to view the Sensors menu
while the toolchange loading test is taking
place. For example to see if the reading is flickering
The firmware needs to call lcd_update(0) to update the screen rendering.
Change in memory:
Flash: -2 bytes
SRAM: 0 bytes
The general idea is to keep platform specific implementation away from the MMU state machines as much as we can.
That would enable unit testing the top level MMU state machine and integration into other project as well (if needed).
It may seem counterintuitive to disable the E-motor, but it gets enabled in the planner whenever the E-motor is to move.
The idea behind disbling the E-motor when it won't be needed for some time is to save power and lower the heat of the motor.
Therefore it is especially important to disable the motor before the printer pauses a print due to some MMU error screen.
Because this error is not an MMU error but a printer one, the existing infrastructure has been bent to support such a scenario.
During testing it turned out, that some machines fail to draw the error screen due to previous internal states.
This PR resets the internal states so that the conditions for drawing the error screen are met.
This PR tries to address the 3 different startup scenarios for 1st layer calibration with the MMU:
- 1st lay cal started with correct filament already loaded in the nozzle - we should continue, but skip the first 58mm (first 2 g-codes in the hard coded sequence) of purge line extrusion
- 1st lay cal started with other filament already loaded in the nozzle - we should unload and then issue a toolchange with no extra unload
- 1st lay cal started without loaded filament - we should just do a toolchange with no extra unload
PFW-1457
This is a prototype implementation of having the ability to show an MMU error screen even for printer's errors (during an MMU operation).
Also, the retry count of unloads after failed load the extruder tube is now limited to ~3 attempts.
Technically, since this very error is not an MMU's one (MMU is just fine at this stage) but a printer's one I tried to hack the existing error-reporting infrastructure to handle such a case.
The original idea of this approach was suggested by @vintagePC
The Extra Loading Distance is configurable by the user.
We need to compensate the hardcoded sequence
such that it does not extrude too much or
too little. Currently the firmware
extrudes too little.
3d-gussner
Guðni Már Gilbert
D.R.racer
Alex Voinea