Klipper with Moonraker shipped with Fluidd and/or Mainsail
- get your printer to the next level!
- Docker Compose config and Dockerfiles provided!
- Build with Github actions and deployed to https://hub.docker.com/u/dimalo
- Docker multiarch builds with best practices
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Dockerhub images support x64, ARM64, ARM32v7 & ARM32v6
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Docker multistage builds for optimized image sizes
-
fully integrated klipper image with moonraker enabled
- startup management with supervisord & dependent startup (klipper starts first, then only if klipper is running moonraker is started)
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collection of useful klipper macros see client_macros.cfg
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Nozzle prime line with random Y starting point
Don't use the same starting point for priming to reduce bed wear!
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safe filament load / unload / change, which checks for sufficient (configurable) nozzle temperature
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best practice start gcode:
Please modify this to your needs! This macro works well on my cartesian and core xy machines and only homes Z as soon as the nozzle is hot, so leftover extrusions don't smash into the bed when they're cold.
Example for PrusaSlicer start gcode:
; Making sure PrusaSlicer doesn't inject heatup gcode... M104 S0 M190 S0 ; Run START_PRINT macro START_PRINT T_BED=[first_layer_bed_temperature] T_EXTRUDER=[first_layer_temperature]
-
several versions of pause/cancel/end, to either present the toolhead or the print (and get the toolhead out of the way) - check the defaults!
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park toolhead with
M125
(default X25 Y0) -
support delay with display output with
COUNTDOWN
Please be careful to not run the macros without making sure they work with your printer!
-
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collection of calibration macros (for example manual bed leveling) see calibration_macros.cfg
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complete Klipper setup with web control client
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only your printer.cfg is required!
- the services start without it, so you can supply your config through the web UI
- you can mount your config file to /home/klippy/.config/printer.cfg, and klipper will pick it up after a restart
Prerequisites:
- Your klipper host machine runs Linux or MacOS (Windows was not tested yet)
- You have docker and docker-compose installed on your machine
- You have flashed your printer with the appropriate .bin
- You have your printer connected to your machine and you know it's serial mount point (e.g. /dev/ttyACM0 or /dev/ttyUSB0)
- ARM32v6 (Raspberry Pi Zero and 1) requires Docker 20. Fluidd is not yet supported
- clone this repository and open it or navigate to it in your terminal
- modify docker-compose.yml to your needs
- set serial port of your printer
- mount printer.cfg if already prepared (else you will be able to set it up later as well...)
- run
docker-compose pull && docker-compose up
if you want to use the provided dockerhub images, else rundocker-compose up
to first build them on your host - watch the services being set up
- make sure you have no port conflicts on 7125, 8010 and 8011
- make sure klipper and moonraker started
- leave the compose session running
- test the frontends
- configure your printer
- modify / upload printer.cfg, if not mounted already
- check if klipper is able to connect to the printer
- follow klippers documentation to test your printers functionality
Quit the compose session with Ctrl+C
and run docker-compose up -d
.
Happy 3D Printing!
No serial connection:
Check the permissions on the serial device in the klipper host.
ls -lsa /dev/ttyACM0
Supply the group permissions to the docker-compose config in docker-compose.yml build args for klipper.
Run docker-compose build
After build run docker-compose up -d
and see if it works.
- compiling klipper.bin for your printer (will need compile tools which bloat the image so this will likely not be implemented)
- automatic updates for klipper/moonraker (partly working as repos are getting updated but no dependency installs happen - update the container with
docker-compose pull
instead) - automatic updates for the frontend (update the container with
docker-compose pull
instead) - CI pipeline to build images as upstream repos change