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beepy-gen's Introduction

pi-gen

Tool used to create Raspberry Pi OS images, and custom images based on Raspberry Pi OS, which was in turn derived from the Raspbian project.

Note: Raspberry Pi OS 32 bit images are based primarily on Raspbian, while Raspberry Pi OS 64 bit images are based primarily on Debian.

Dependencies

pi-gen runs on Debian-based operating systems released after 2017, and we always advise you use the latest OS for security reasons.

On other Linux distributions it may be possible to use the Docker build described below.

To install the required dependencies for pi-gen you should run:

apt-get install coreutils quilt parted qemu-user-static debootstrap zerofree zip \
dosfstools libarchive-tools libcap2-bin grep rsync xz-utils file git curl bc \
gpg pigz xxd

The file depends contains a list of tools needed. The format of this package is <tool>[:<debian-package>].

Getting started with building your images

Getting started is as simple as cloning this repository on your build machine. You can do so with:

git clone https://github.com/RPI-Distro/pi-gen.git

--depth 1 can be added afer git clone to create a shallow clone, only containing the latest revision of the repository. Do not do this on your development machine.

Also, be careful to clone the repository to a base path NOT containing spaces. This configuration is not supported by debootstrap and will lead to pi-gen not running.

After cloning the repository, you can move to the next step and start configuring your build.

Config

Upon execution, build.sh will source the file config in the current working directory. This bash shell fragment is intended to set needed environment variables.

The following environment variables are supported:

  • IMG_NAME required (Default: unset)

    The name of the image to build with the current stage directories. Use this variable to set the root name of your OS, eg IMG_NAME=Frobulator. Export files in stages may add suffixes to IMG_NAME.

  • PI_GEN_RELEASE (Default: Raspberry Pi reference)

    The release name to use in /etc/issue.txt. The default should only be used for official Raspberry Pi builds.

  • RELEASE (Default: bookworm)

    The release version to build images against. Valid values are any supported Debian release. However, since different releases will have different sets of packages available, you'll need to either modify your stages accordingly, or checkout the appropriate branch. For example, if you'd like to build a bullseye image, you should do so from the bullseye branch.

  • APT_PROXY (Default: unset)

    If you require the use of an apt proxy, set it here. This proxy setting will not be included in the image, making it safe to use an apt-cacher or similar package for development.

    If you have Docker installed, you can set up a local apt caching proxy to like speed up subsequent builds like this:

    docker-compose up -d
    echo 'APT_PROXY=http://172.17.0.1:3142' >> config
    
  • BASE_DIR (Default: location of build.sh)

    CAUTION: Currently, changing this value will probably break build.sh

    Top-level directory for pi-gen. Contains stage directories, build scripts, and by default both work and deployment directories.

  • WORK_DIR (Default: "$BASE_DIR/work")

    Directory in which pi-gen builds the target system. This value can be changed if you have a suitably large, fast storage location for stages to be built and cached. Note, WORK_DIR stores a complete copy of the target system for each build stage, amounting to tens of gigabytes in the case of Raspbian.

    CAUTION: If your working directory is on an NTFS partition you probably won't be able to build: make sure this is a proper Linux filesystem.

  • DEPLOY_DIR (Default: "$BASE_DIR/deploy")

    Output directory for target system images and NOOBS bundles.

  • DEPLOY_COMPRESSION (Default: zip)

    Set to:

    • none to deploy the actual image (.img).
    • zip to deploy a zipped image (.zip).
    • gz to deploy a gzipped image (.img.gz).
    • xz to deploy a xzipped image (.img.xz).
  • DEPLOY_ZIP (Deprecated)

    This option has been deprecated in favor of DEPLOY_COMPRESSION.

    If DEPLOY_ZIP=0 is still present in your config file, the behavior is the same as with DEPLOY_COMPRESSION=none.

  • COMPRESSION_LEVEL (Default: 6)

    Compression level to be used when using zip, gz or xz for DEPLOY_COMPRESSION. From 0 to 9 (refer to the tool man page for more information on this. Usually 0 is no compression but very fast, up to 9 with the best compression but very slow ).

  • USE_QEMU (Default: "0")

    Setting to '1' enables the QEMU mode - creating an image that can be mounted via QEMU for an emulated environment. These images include "-qemu" in the image file name.

  • LOCALE_DEFAULT (Default: "en_GB.UTF-8" )

    Default system locale.

  • TARGET_HOSTNAME (Default: "raspberrypi" )

    Setting the hostname to the specified value.

  • KEYBOARD_KEYMAP (Default: "gb" )

    Default keyboard keymap.

    To get the current value from a running system, run debconf-show keyboard-configuration and look at the keyboard-configuration/xkb-keymap value.

  • KEYBOARD_LAYOUT (Default: "English (UK)" )

    Default keyboard layout.

    To get the current value from a running system, run debconf-show keyboard-configuration and look at the keyboard-configuration/variant value.

  • TIMEZONE_DEFAULT (Default: "Europe/London" )

    Default keyboard layout.

    To get the current value from a running system, look in /etc/timezone.

  • FIRST_USER_NAME (Default: pi)

    Username for the first user. This user only exists during the image creation process. Unless DISABLE_FIRST_BOOT_USER_RENAME is set to 1, this user will be renamed on the first boot with a name chosen by the final user. This security feature is designed to prevent shipping images with a default username and help prevent malicious actors from taking over your devices.

  • FIRST_USER_PASS (Default: unset)

    Password for the first user. If unset, the account is locked.

  • DISABLE_FIRST_BOOT_USER_RENAME (Default: 0)

    Disable the renaming of the first user during the first boot. This make it so FIRST_USER_NAME stays activated. FIRST_USER_PASS must be set for this to work. Please be aware of the implied security risk of defining a default username and password for your devices.

  • WPA_COUNTRY (Default: unset)

    Sets the default WLAN regulatory domain and unblocks WLAN interfaces. This should be a 2-letter ISO/IEC 3166 country Code, i.e. GB

  • ENABLE_SSH (Default: 0)

    Setting to 1 will enable ssh server for remote log in. Note that if you are using a common password such as the defaults there is a high risk of attackers taking over you Raspberry Pi.

  • PUBKEY_SSH_FIRST_USER (Default: unset)

Setting this to a value will make that value the contents of the FIRST_USER_NAME's ~/.ssh/authorized_keys. Obviously the value should therefore be a valid authorized_keys file. Note that this does not automatically enable SSH.

  • PUBKEY_ONLY_SSH (Default: 0)

  • Setting to 1 will disable password authentication for SSH and enable public key authentication. Note that if SSH is not enabled this will take effect when SSH becomes enabled.

  • SETFCAP (Default: unset)

    • Setting to 1 will prevent pi-gen from dropping the "capabilities" feature. Generating the root filesystem with capabilities enabled and running it from a filesystem that does not support capabilities (like NFS) can cause issues. Only enable this if you understand what it is.
  • STAGE_LIST (Default: stage*)

    If set, then instead of working through the numeric stages in order, this list will be followed. For example setting to "stage0 stage1 mystage stage2" will run the contents of mystage before stage2. Note that quotes are needed around the list. An absolute or relative path can be given for stages outside the pi-gen directory.

A simple example for building Raspberry Pi OS:

IMG_NAME='raspios'

The config file can also be specified on the command line as an argument the build.sh or build-docker.sh scripts.

./build.sh -c myconfig

This is parsed after config so can be used to override values set there.

How the build process works

The following process is followed to build images:

  • Interate through all of the stage directories in alphanumeric order

  • Bypass a stage directory if it contains a file called "SKIP"

  • Run the script prerun.sh which is generally just used to copy the build directory between stages.

  • In each stage directory iterate through each subdirectory and then run each of the install scripts it contains, again in alphanumeric order. These need to be named with a two digit padded number at the beginning. There are a number of different files and directories which can be used to control different parts of the build process:

    • 00-run.sh - A unix shell script. Needs to be made executable for it to run.

    • 00-run-chroot.sh - A unix shell script which will be run in the chroot of the image build directory. Needs to be made executable for it to run.

    • 00-debconf - Contents of this file are passed to debconf-set-selections to configure things like locale, etc.

    • 00-packages - A list of packages to install. Can have more than one, space separated, per line.

    • 00-packages-nr - As 00-packages, except these will be installed using the --no-install-recommends -y parameters to apt-get.

    • 00-patches - A directory containing patch files to be applied, using quilt. If a file named 'EDIT' is present in the directory, the build process will be interrupted with a bash session, allowing an opportunity to create/revise the patches.

  • If the stage directory contains files called "EXPORT_NOOBS" or "EXPORT_IMAGE" then add this stage to a list of images to generate

  • Generate the images for any stages that have specified them

It is recommended to examine build.sh for finer details.

Docker Build

Docker can be used to perform the build inside a container. This partially isolates the build from the host system, and allows using the script on non-debian based systems (e.g. Fedora Linux). The isolation is not complete due to the need to use some kernel level services for arm emulation (binfmt) and loop devices (losetup).

To build:

vi config         # Edit your config file. See above.
./build-docker.sh

If everything goes well, your finished image will be in the deploy/ folder. You can then remove the build container with docker rm -v pigen_work

If you encounter errors during the build, you can edit the corresponding scripts, and continue:

CONTINUE=1 ./build-docker.sh

To examine the container after a failure you can enter a shell within it using:

sudo docker run -it --privileged --volumes-from=pigen_work pi-gen /bin/bash

After successful build, the build container is by default removed. This may be undesired when making incremental changes to a customized build. To prevent the build script from remove the container add

PRESERVE_CONTAINER=1 ./build-docker.sh

There is a possibility that even when running from a docker container, the installation of qemu-user-static will silently fail when building the image because binfmt-support must be enabled on the underlying kernel. An easy fix is to ensure binfmt-support is installed on the host machine before starting the ./build-docker.sh script (or using your own docker build solution).

Passing arguments to Docker

When the docker image is run various required command line arguments are provided. For example the system mounts the /dev directory to the /dev directory within the docker container. If other arguments are required they may be specified in the PIGEN_DOCKER_OPTS environment variable. For example setting PIGEN_DOCKER_OPTS="--add-host foo:192.168.0.23" will add '192.168.0.23 foo' to the /etc/hosts file in the container. The --name and --privileged options are already set by the script and should not be redefined.

Stage Anatomy

Raspbian Stage Overview

The build of Raspbian is divided up into several stages for logical clarity and modularity. This causes some initial complexity, but it simplifies maintenance and allows for more easy customization.

  • Stage 0 - bootstrap. The primary purpose of this stage is to create a usable filesystem. This is accomplished largely through the use of debootstrap, which creates a minimal filesystem suitable for use as a base.tgz on Debian systems. This stage also configures apt settings and installs raspberrypi-bootloader which is missed by debootstrap. The minimal core is installed but not configured. As a result, this stage will not boot.

  • Stage 1 - truly minimal system. This stage makes the system bootable by installing system files like /etc/fstab, configures the bootloader, makes the network operable, and installs packages like raspi-config. At this stage the system should boot to a local console from which you have the means to perform basic tasks needed to configure and install the system.

  • Stage 2 - lite system. This stage produces the Raspberry Pi OS Lite image. Stage 2 installs some optimized memory functions, sets timezone and charmap defaults, installs fake-hwclock and ntp, wireless LAN and bluetooth support, dphys-swapfile, and other basics for managing the hardware. It also creates necessary groups and gives the pi user access to sudo and the standard console hardware permission groups.

    Note: Raspberry Pi OS Lite contains a number of tools for development, including Python, Lua and the build-essential package. If you are creating an image to deploy in products, be sure to remove extraneous development tools before deployment.

  • Stage 3 - desktop system. Here's where you get the full desktop system with X11 and LXDE, web browsers, git for development, Raspberry Pi OS custom UI enhancements, etc. This is a base desktop system, with some development tools installed.

  • Stage 4 - Normal Raspberry Pi OS image. System meant to fit on a 4GB card. This is the stage that installs most things that make Raspberry Pi OS friendly to new users - e.g. system documentation.

  • Stage 5 - The Raspberry Pi OS Full image. More development tools, an email client, learning tools like Scratch, specialized packages like sonic-pi, office productivity, etc.

Stage specification

If you wish to build up to a specified stage (such as building up to stage 2 for a lite system), place an empty file named SKIP in each of the ./stage directories you wish not to include.

Then add an empty file named SKIP_IMAGES to ./stage4 and ./stage5 (if building up to stage 2) or to ./stage2 (if building a minimal system).

# Example for building a lite system
echo "IMG_NAME='raspios'" > config
touch ./stage3/SKIP ./stage4/SKIP ./stage5/SKIP
touch ./stage4/SKIP_IMAGES ./stage5/SKIP_IMAGES
sudo ./build.sh  # or ./build-docker.sh

If you wish to build further configurations upon (for example) the lite system, you can also delete the contents of ./stage3 and ./stage4 and replace with your own contents in the same format.

Skipping stages to speed up development

If you're working on a specific stage the recommended development process is as follows:

  • Add a file called SKIP_IMAGES into the directories containing EXPORT_* files (currently stage2, stage4 and stage5)
  • Add SKIP files to the stages you don't want to build. For example, if you're basing your image on the lite image you would add these to stages 3, 4 and 5.
  • Run build.sh to build all stages
  • Add SKIP files to the earlier successfully built stages
  • Modify the last stage
  • Rebuild just the last stage using sudo CLEAN=1 ./build.sh
  • Once you're happy with the image you can remove the SKIP_IMAGES files and export your image to test

Troubleshooting

64 Bit Systems

Please note there is currently an issue when compiling with a 64 Bit OS. See RPi-Distro#271

A 64 bit image can be generated from the arm64 branch in this repository. Just replace the command from this section by the one below, and follow the rest of the documentation:

git clone --branch arm64 https://github.com/RPI-Distro/pi-gen.git

If you want to generate a 64 bits image from a Raspberry Pi running a 32 bits version, you need to add arm_64bit=1 to your config.txt file and reboot your machine. This will restart your machine with a 64 bits kernel. This will only work from a Raspberry Pi with a 64-bit capable processor (i.e. Raspberry Pi Zero 2, Raspberry Pi 3 or Raspberry Pi 4).

binfmt_misc

Linux is able execute binaries from other architectures, meaning that it should be possible to make use of pi-gen on an x86_64 system, even though it will be running ARM binaries. This requires support from the binfmt_misc kernel module.

You may see one of the following errors:

update-binfmts: warning: Couldn't load the binfmt_misc module.
W: Failure trying to run: chroot "/pi-gen/work/test/stage0/rootfs" /bin/true
and/or
chroot: failed to run command '/bin/true': Exec format error

To resolve this, ensure that the following files are available (install them if necessary):

/lib/modules/$(uname -r)/kernel/fs/binfmt_misc.ko
/usr/bin/qemu-arm-static

You may also need to load the module by hand - run modprobe binfmt_misc.

If you are using WSL to build you may have to enable the service sudo update-binfmts --enable

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beepy-gen's Issues

No cameras available

When I install the regular Raspberry pi image, when I run rpicam-still --list-cameras, it will list the camera. When I do rpicam-still -o test.jpg, it will generate an image and save it.

Unfortunately, on the installed image from the releases page here, when I run rpicam-still --list-cameras, it gives the message 'No cameras available!'. When I run rpicam-still -o test.jpg, it says the same.

beepy-kbd: updated RTC message on display

I thought it stopped, but letting it sit, it still just keeps throwing out the following messages on the display

[ 706.356620] beepy-kbd: updated RTC
[ 1364.356993] beepy-kbd: updated RTC
[ 2022.358958] beepy-kbd: updated RTC
[ 2680.359668] beepy-kbd: updated RTC

That seems to happen every 658 seconds.

Not sure why the log level is now set to this.
root@pi33:/home/mark# cat /proc/sys/kernel/printk
15 4 1 3

That isn't what it started at.

Again I am running PiZ2W with the 64 bit OS.

On 64 bit OS, holding the [Berry] key for one second throws error.

dmesg shows the following:

Unable to handle kernel paging request at virtual address 0011a844007cbbd0
[ 512.394701] Mem abort info:
[ 512.394838] ESR = 0x0000000096000004
[ 512.394940] EC = 0x25: DABT (current EL), IL = 32 bits
[ 512.395069] SET = 0, FnV = 0
[ 512.395156] EA = 0, S1PTW = 0
[ 512.395244] FSC = 0x04: level 0 translation fault
[ 512.395362] Data abort info:
[ 512.395444] ISV = 0, ISS = 0x00000004
[ 512.395624] CM = 0, WnR = 0
[ 512.395710] [0011a844007cbbd0] address between user and kernel address ranges
[ 512.395874] Internal error: Oops: 0000000096000004 [#3] PREEMPT SMP
[ 512.396015] Modules linked in: cmac algif_hash aes_arm64 aes_generic algif_skcipher af_alg bnep hci_uart btbcm bluetooth ecdh_generic ecc libaes 8021q garp stp llc vc4 brcmfmac snd_soc_hdmi_codec drm_display_helper cec brcmutil snd_soc_core cfg80211 snd_compress snd_pcm_dmaengine raspberrypi_hwmon rfkill i2c_bcm2835 bcm2835_codec(C) bcm2835_v4l2(C) bcm2835_isp(C) snd_bcm2835(C) v4l2_mem2mem bcm2835_mmal_vchiq(C) snd_pcm videobuf2_dma_contig videobuf2_vmalloc videobuf2_memops videobuf2_v4l2 videobuf2_common snd_timer spi_bcm2835 snd videodev mc vc_sm_cma(C) uio_pdrv_genirq uio beepy_kbd(O) sharp_drm(O) drm_dma_helper drm_kms_helper syscopyarea sysfillrect sysimgblt fb_sys_fops i2c_dev drm fuse drm_panel_orientation_quirks backlight ip_tables x_tables ipv6
[ 512.410059] CPU: 0 PID: 707 Comm: symbol-overlay Tainted: G D C O 6.1.21-v8+ #1642
[ 512.410089] Hardware name: Raspberry Pi Zero 2 W Rev 1.0 (DT)
[ 512.410098] pstate: a0000005 (NzCv daif -PAN -UAO -TCO -DIT -SSBS BTYPE=--)
[ 512.410114] pc : __memcpy+0x110/0x230
[ 512.410139] lr : kmemdup+0x58/0x70
[ 512.410157] sp : ffffffc008b6bb80
[ 512.424705] x29: ffffffc008b6bb80 x28: ffffffc008b6bd18 x27: 0000000000000004
[ 512.424739] x26: ffffff8006ffea00 x25: ffffff8004f12a00 x24: 0011a844007cbbd0
[ 512.424761] x23: 0000000000000000 x22: 00000000ffffff6c x21: 0011a844007cbbd0
[ 512.431503] x20: 000000000000e740 x19: ffffff8007bc0000 x18: 0000000000000000
[ 512.431532] x17: 0000000000000000 x16: ffffffe98d68aab8 x15: 00000000ffe9a804
[ 512.431554] x14: ffee573c073f4430 x13: 0000000000000000 x12: ffffffe98e91cb10
[ 512.431577] x11: ffffffe98e91cae0 x10: fffffffe001ef408 x9 : ffffffe98d6f7208
[ 512.431599] x8 : 0000000000000068 x7 : ffffffc008b6c000 x6 : ffffffc008b68000
[ 512.431621] x5 : ffffff8007bce740 x4 : 0011a844007da310 x3 : ffffffe98e759000
[ 512.431643] x2 : 000000000000e740 x1 : 0011a844007cbbd0 x0 : ffffff8007bc0000
[ 512.431667] Call trace:
[ 512.431674] __memcpy+0x110/0x230
[ 512.431695] drm_add_overlay+0x68/0xb4 [sharp_drm]
[ 512.431736] sharp_memory_ioctl_ov_add+0x30/0x50 [sharp_drm]
[ 512.431770] drm_ioctl_kernel+0xc8/0x180 [drm]
[ 512.432213] drm_ioctl+0x210/0x418 [drm]
[ 512.432558] drm_compat_ioctl+0xec/0x100 [drm]
[ 512.432910] __arm64_compat_sys_ioctl+0x168/0x180
[ 512.432932] invoke_syscall+0x4c/0x110
[ 512.432952] el0_svc_common.constprop.3+0xfc/0x120
[ 512.432971] do_el0_svc_compat+0x24/0x48
[ 512.432989] el0_svc_compat+0x30/0x88
[ 512.433007] el0t_32_sync_handler+0xe4/0x100
[ 512.433025] el0t_32_sync+0x190/0x194
[ 512.433047] Code: cb01000e b4fffc2e eb0201df 540004a3 (a940342c)
[ 512.433058] ---[ end trace 0000000000000000 ]---
root@pi33:/home/mark#

v1.0-rc 'apt upgrade' hung with DKMS recompile of beepy-kbd due to whiptail

Trying out the new v1.0-rc on my Beepy+RPIZero2W. Like always, immediately after getting on the network, I issue an 'apt update && apt upgrade'. Once it reaches the DKMS portion, it drags on for evah:

Unpacking raspi-utils (20240402-2) over (20240402-1) ...
Setting up linux-libc-dev (1:6.6.28-1+rpt1) ...
Setting up linux-image-6.6.28+rpt-rpi-v7l (1:6.6.28-1+rpt1) ...
/etc/kernel/postinst.d/dkms:
dkms: running auto installation service for kernel 6.6.28+rpt-rpi-v7l.
Sign command: /lib/modules/6.6.28+rpt-rpi-v7l/build/scripts/sign-file
Signing key: /var/lib/dkms/mok.key
Public certificate (MOK): /var/lib/dkms/mok.pub

Building module:
Cleaning build area...
make -j4 KERNELRELEASE=6.6.28+rpt-rpi-v7l && make -C /var/lib/dkms/beepy-kbd/2.11/source install_aux BUILD_DIR=/var/lib/dkms/beepy-kbd/2.11/build ...................................................................................................................................................................................................................................................................................................................................................................................................................................................................
Progress: [ 53%] [####################################################..............................................]

I've seen this kind of thing before. I bet it is some interactive thing like whiptail or dialog. Yup.

pi@bb:~ $ ps -ef f > ps-ef--forest.out
pi@bb:~ $ cat ps-ef--forest.out

UID        PID  PPID  C STIME TTY      STAT   TIME CMD
root         2     0  0 14:26 ?        S      0:00 [kthreadd]
root         3     2  0 14:26 ?        S      0:00  \_ [pool_workqueue_release]
...
root      5261     2  0 15:16 ?        I      0:00  \_ [kworker/u11:1-events_unbound]
root         1     0  0 14:26 ?        Ss     0:20 /sbin/init
root       230     1  0 14:26 ?        Ss     0:01 /lib/systemd/systemd-udevd
root       264     1  0 14:26 ?        Ss     0:01 /lib/systemd/systemd-journald
root       355     1  0 14:26 ?        Ss     0:00 /usr/sbin/cron -f
message+   371     1  0 14:26 ?        Ss     0:04 /usr/bin/dbus-daemon --system --address=systemd: --nofork --nopidfile --systemd-activation --syslog-only
root       377     1  0 14:26 ?        Ss     0:00 /lib/systemd/systemd-logind
root       385     1  0 14:26 ?        Ss     0:00 /usr/libexec/bluetooth/bluetoothd
pi         468     1  0 14:27 ?        Ss     0:00 /lib/systemd/systemd --user
pi         469   468  0 14:27 ?        S      0:00  \_ (sd-pam)
avahi      512     1  0 14:27 ?        Ss     0:05 avahi-daemon: running [beepy.local]
avahi      525   512  0 14:27 ?        S      0:00  \_ avahi-daemon: chroot helper
polkitd    522     1  0 14:27 ?        Ssl    0:00 /usr/lib/polkit-1/polkitd --no-debug
systemd+   523     1  0 14:27 ?        Ssl    0:00 /lib/systemd/systemd-timesyncd
nobody     524     1  0 14:27 ?        Ss     0:00 /usr/sbin/thd --triggers /etc/triggerhappy/triggers.d/ --socket /run/thd.socket --user nobody --deviceglob /dev/input/event*
root       526     1  0 14:27 ?        Ss     0:00 /sbin/wpa_supplicant -u -s -O DIR=/run/wpa_supplicant GROUP=netdev
root       561     1  0 14:27 ?        Ssl    0:01 /usr/sbin/NetworkManager --no-daemon
root       582     1  0 14:27 ?        Ssl    0:00 /usr/sbin/ModemManager
root       641     1  0 14:27 ?        Ss     0:00 sshd: /usr/sbin/sshd -D [listener] 0 of 10-100 startups
root      1598   641  0 14:52 ?        Ss     0:00  \_ sshd: pi [priv]
pi        1605  1598  0 14:52 ?        S      0:00      \_ sshd: pi@pts/3
pi        1606  1605  0 14:52 pts/3    Ss     0:00          \_ -bash
pi        1623  1606  0 14:52 pts/3    S+     0:00              \_ tmux
root      1086     1  0 14:34 tty6     Ss+    0:00 /sbin/agetty -o -p -- \u --noclear - linux
root      1087     1  0 14:34 tty1     Ss     0:00 /bin/login -f
pi        1088  1087  0 14:34 tty1     S+     0:00  \_ -bash
pi        1110  1088  0 14:34 tty1     S+     0:00      \_ tmux -u
pi        1112     1  0 14:34 ?        Ss     0:18 tmux -u
pi        1113  1112  0 14:34 pts/0    Ss+    0:00  \_ -bash
pi        1426  1112  0 14:37 pts/2    Ss+    0:00  \_ -bash
pi        1624  1112  0 14:52 pts/4    Ss+    0:00  \_ -bash
pi        1660  1112  0 14:53 pts/5    Ss     0:00  \_ -bash
root      1784  1660  0 14:56 pts/5    S+     0:00  |   \_ sudo su -
root      1785  1784  0 14:56 pts/6    Ss     0:00  |       \_ sudo su -
root      1786  1785  0 14:56 pts/6    S      0:00  |           \_ su -
root      1787  1786  0 14:56 pts/6    S      0:00  |               \_ -bash
root      2103  1787  0 14:59 pts/6    S+     0:07  |                   \_ apt upgrade
root      2706  2103  0 15:04 pts/1    Ss+    0:00  |                       \_ /usr/bin/dpkg --status-fd 22 --configure --pending
root      2709  2706  0 15:04 pts/1    S+     0:00  |                           \_ /bin/sh -e /var/lib/dpkg/info/linux-image-6.6.28+rpt-rpi-v7l.postinst configure
root      2722  2709  0 15:05 pts/1    S+     0:00  |                               \_ run-parts --report --exit-on-error --arg=6.6.28+rpt-rpi-v7l --arg=/boot/vmlinuz-6.6.28+rpt-rpi-v7l /etc/kernel/postinst.d
root      2723  2722  0 15:05 pts/1    S+     0:00  |                                   \_ /bin/sh /usr/lib/dkms/dkms_autoinstaller start 6.6.28+rpt-rpi-v7l
root      2730  2723  0 15:05 pts/1    S+     0:00  |                                       \_ /bin/bash /usr/sbin/dkms autoinstall --kernelver 6.6.28+rpt-rpi-v7l
root      4167  2730  0 15:05 pts/1    S+     0:00  |                                           \_ /bin/bash /usr/sbin/dkms autoinstall --kernelver 6.6.28+rpt-rpi-v7l
root      4168  4167  0 15:05 pts/1    S+     0:00  |                                               \_ /bin/bash /usr/sbin/dkms autoinstall --kernelver 6.6.28+rpt-rpi-v7l
root      4292  4168  0 15:05 pts/1    S+     0:00  |                                                   \_ /bin/bash /usr/sbin/dkms autoinstall --kernelver 6.6.28+rpt-rpi-v7l
root      4659  4292  0 15:05 pts/1    S+     0:00  |                                                   |   \_ make -C /var/lib/dkms/beepy-kbd/2.11/source install_aux BUILD_DIR=/var/lib/dkms/beepy-kbd/2.11/build
root      4676  4659  0 15:05 pts/1    S+     0:00  |                                                   |       \_ /bin/sh -c dpkg-reconfigure keyboard-configuration \ ?|| echo "dpkg-reconfigure failed, keymap may not be applied"
root      4677  4676  0 15:05 pts/1    S+     0:02  |                                                   |           \_ /usr/bin/perl -w /usr/sbin/dpkg-reconfigure keyboard-configuration
root      4706  4677  0 15:06 pts/1    S+     0:00  |                                                   |               \_ /bin/sh /var/lib/dpkg/info/keyboard-configuration.config reconfigure 1.221rpt1
root      4822  4677  0 15:06 pts/1    S+     0:00  |                                                   |               \_ whiptail --backtitle Package configuration --title Configuring keyboard-configuration --output-fd 11 --default-item Generic 105-key PC --menu Please select the model of the keyboard of this machine.  Keyboard model: 21 61 11 -- A4Tech KB-21  A4Tech KBS-8  A4Tech Wireless Desktop RFKB-23  Acer AirKey V  Acer C300  Acer Ferrari 4000  Acer laptop  Advance Scorpius KI  Amiga  Apple  Apple Aluminium (ANSI)  Apple Aluminium (ISO)  Apple Aluminium (JIS)  Apple laptop  Asus laptop  Atari TT  Azona RF2300 Wireless Internet  BTC 5090  BTC 5113RF Multimedia  BTC 5126T  BTC 6301URF  BTC 9000  BTC 9000A  BTC 9001AH  BTC 9019U  BTC 9116U Mini Wireless Internet and Gaming  BenQ X-Touch  BenQ X-Touch 730  BenQ X-Touch 800  Brother Internet  Cherry B.UNLIMITED  Cherry Blue Line CyBo@rd  Cherry Blue Line CyBo@rd (alt.)  Cherry CyBo@rd USB-Hub  Cherry CyMotion Expert  Cherry CyMotion Master Linux  Cherry CyMotion Master XPress  Chicony Internet  Chicony KB-9885  Chicony KU-0108  Chicony KU-0420  Chromebook  Classmate PC  Compaq Armada laptop  Compaq Easy Access  Compaq Internet (13 keys)  Compaq Internet (18 keys)  Compaq Internet (7 keys)  Compaq Presario laptop  Compaq iPaq  Creative Desktop Wireless 7000  DTK2000  Dell  Dell 101-key PC  Dell Inspiron 6000/8000 laptop  Dell Latitude laptop  Dell Precision M laptop  Dell Precision M65 laptop  Dell SK-8125  Dell SK-8135  Dell USB Multimedia  Dexxa Wireless Desktop  Diamond 9801/9802  Ennyah DKB-1008  Everex STEPnote  FL90  Fujitsu-Siemens Amilo laptop  Generic 101-key PC  Generic 102-key PC  Generic 104-key PC  Generic 104-key PC with L-shaped Enter key  Generic 105-key PC  Generic 86-key PC  Genius Comfy KB-12e  Genius Comfy KB-16M/Multimedia KWD-910  Genius Comfy KB-21e-Scroll  Genius KB-19e NB  Genius KKB-2050HS  Gyration  Happy Hacking  Happy Hacking for Mac  Hewlett-Packard Internet  Hewlett-Packard Mini 110 laptop  Hewlett-Packard NEC SK-2500 Multimedia  Hewlett-Packard Omnibook 500  Hewlett-Packard Omnibook 500 FA  Hewlett-Packard Omnibook 6000/6100  Hewlett-Packard Omnibook XE3 GC  Hewlett-Packard Omnibook XE3 GF  Hewlett-Packard Omnibook XT1000  Hewlett-Packard Pavilion ZT1100  Hewlett-Packard Pavilion dv5  Hewlett-Packard nx9020  Honeywell Euroboard  IBM Rapid Access  IBM Rapid Access II  IBM Space Saver  IBM ThinkPad 560Z/600/600E/A22E  IBM ThinkPad R60/T60/R61/T61  IBM ThinkPad Z60m/Z60t/Z61m/Z61t  Keytronic FlexPro  Kinesis  Logitech  Logitech Access  Logitech Cordless Desktop  Logitech Cordless Desktop (alt.)  Logitech Cordless Desktop EX110  Logitech Cordless Desktop LX-300  Logitech Cordless Desktop Navigator  Logitech Cordless Desktop Optical  Logitech Cordless Desktop Pro (2nd alt.)  Logitech Cordless Desktop iTouch  Logitech Cordless Freedom/Desktop Navigator  Logitech G15 extra keys via G15daemon  Logitech Internet  Logitech Internet 350  Logitech Internet Navigator  Logitech Ultra-X  Logitech Ultra-X Cordless Media Desktop  Logitech diNovo  Logitech diNovo Edge  Logitech iTouch  Logitech iTouch Cordless Y-RB6  Logitech iTouch Internet Navigator SE  Logitech iTouch Internet Navigator SE USB  MacBook/MacBook Pro  MacBook/MacBook Pro (intl.)  Macintosh  Macintosh Old  Memorex MX1998  Memorex MX2500 EZ-Access  Memorex MX2750  Microsoft Comfort Curve 2000  Microsoft Internet  Microsoft Internet Pro (Swedish)  Microsoft Natural  Microsoft Natural Elite  Microsoft Natural Ergonomic 4000  Microsoft Natural Pro OEM  Microsoft Natural Pro USB/Internet Pro  Microsoft Natural Pro/Internet Pro  Microsoft Natural Wireless Ergonomic 7000  Microsoft Office Keyboard  Microsoft Surface  Microsoft Wireless Multimedia 1.0A  NEC SK-1300  NEC SK-2500  NEC SK-6200  NEC SK-7100  Northgate OmniKey 101  OLPC  Ortek Multimedia/Internet MCK-800  PC-98  Propeller Voyager KTEZ-1000  QTronix Scorpius 98N+  SVEN Ergonomic 2500  SVEN Slim 303  Samsung SDM 4500P  Samsung SDM 4510P  Sanwa Supply SKB-KG3  Silvercrest Multimedia Wireless  SteelSeries Apex 300 (Apex RAW)  Sun Type 4  Sun Type 5  Sun Type 6 (Japanese)  Sun Type 6 USB (Japanese)  Sun Type 6 USB (Unix)  Sun Type 6/7 USB  Sun Type 6/7 USB (European)  Sun Type 7 USB  Sun Type 7 USB (European)  Sun Type 7 USB (Japanese)/Japanese 106-key  Sun Type 7 USB (Unix)  Super Power Multimedia  Symplon PaceBook tablet  Targa Visionary 811  Toshiba Satellite S3000  Truly Ergonomic 227  Truly Ergonomic 229  Trust Direct Access  Trust Slimline  Trust Wireless Classic  TypeMatrix EZ-Reach 2020  TypeMatrix EZ-Reach 2030 PS2  TypeMatrix EZ-Reach 2030 USB  TypeMatrix EZ-Reach 2030 USB (102/105:EU mode)  TypeMatrix EZ-Reach 2030 USB (106:JP mode)  Unitek KB-1925  ViewSonic KU-306 Internet  Winbook Model XP5  Yahoo! Internet  eMachines m6800 laptop
root      4293  4168  0 15:05 pts/1    S+     0:00  |                                                   \_ /bin/bash /usr/sbin/dkms autoinstall --kernelver 6.6.28+rpt-rpi-v7l
root      5276  4293  0 15:16 pts/1    S+     0:00  |                                                       \_ sleep 3
pi        2126  1112  0 15:01 pts/7    Ss     0:00  \_ -bash
pi        5281  2126 99 15:17 pts/7    R+     0:00      \_ ps -ef f

I had to kill this process to resume as killing whiptail wasn't enough:

/usr/bin/perl -w /usr/sbin/dpkg-reconfigure keyboard-configuration

but then repeat the kill for every image it was trying to build, and clean up the orphaned whiptail processes.

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