testing/os-autoinst-distri-rocky-migrated
10
0
Fork 0
Code Issues 12 Pull Requests 1 Packages Projects Releases Wiki Activity

Update and unwrap README, move function docs in-line

Browse Source 
The README looks pretty ugly on Pagure. So let's unwrap it.
Let's also move the function docs into the source files. We're
much more likely to keep them up to date that way, I think. We
should probably change over to proper perl POD documentation at
some point, but comments in-line are OK for now I think.
This commit is contained in:
Adam Williamson 2017-01-12 14:27:42 -08:00
parent 460a6e5439
commit e0418b3328
3 changed files with 92 additions and 108 deletions
Show Stats Download Patch File Download Diff File Expand all files Collapse all files

149
README.md
View File

@ -1,127 +1,66 @@
openQA tests for the Fedora distribution
========================================
This repository contains tests and images for testing [Fedora](https://getfedora.org/) with
[openQA](http://os-autoinst.github.io/openQA/). For additional tools, Installation Guide and
Docker images, see [this repository](https://bitbucket.org/rajcze/openqa_fedora_tools).
This repository contains tests and images for testing [Fedora](https://getfedora.org/) with [openQA](http://os-autoinst.github.io/openQA/). For additional tools, Installation Guide and Docker images, see [this repository](https://bitbucket.org/rajcze/openqa_fedora_tools).
Test development
----------------
See official documentation [on basic concept](https://github.com/os-autoinst/openQA/blob/master/docs/GettingStarted.asciidoc),
[test development (including API specification)](https://github.com/os-autoinst/openQA/blob/master/docs/WritingTests.asciidoc),
[needles specification](https://github.com/os-autoinst/os-autoinst/blob/master/doc/needles.txt) and
[supported variables for backend](https://github.com/os-autoinst/os-autoinst/blob/master/doc/backend_vars.asciidoc). See
[this example repo](https://github.com/os-autoinst/os-autoinst-distri-example) on how tests should be structured.
See official documentation on:
* [basic concept](https://github.com/os-autoinst/openQA/blob/master/docs/GettingStarted.asciidoc)
* [test development (including API specification)](https://github.com/os-autoinst/openQA/blob/master/docs/WritingTests.asciidoc)
* [needles specification](https://github.com/os-autoinst/os-autoinst/blob/master/doc/needles.txt)
* [supported variables for backend](https://github.com/os-autoinst/os-autoinst/blob/master/doc/backend_vars.asciidoc).
See [this example repo](https://github.com/os-autoinst/os-autoinst-distri-example) on how tests should be structured.
### main.pm modular architecture
Since openQA uses only one entrypoint for all tests (main.pm), we have decided to utilize
this feature and make tests modular. It means that basic passing through main.pm (without any variables set)
results in most basic installation test executed. Developer can customize it with additional variables
(for example by setting `PACKAGE_SET=minimal` to do installation only with minimal package set).
Since openQA uses only one entrypoint for all tests (main.pm), we have decided to utilize this feature and make tests modular. It means that basic passing through main.pm (without any variables set) results in most basic installation test executed. Developer can customize it with additional variables (for example by setting `PACKAGE_SET=minimal` to do installation only with minimal package set).
Make your test modular, so that it utilizes `_boot_to_anaconda.pm`, `_software_selection.pm` and `_do_install_and_reboot.pm` tests (that are loaded automatically). Break your test into smaller parts, each dealing with one specific feature (e. g. partitioning, user creation...) and add their loading into main.pm based on reasonable variable setting (so they can be used in other tests also).
Fedora installation (and consequently main.pm) consists of several parts:
1. booting into Anaconda or booting live image and starting Anaconda
#### Booting into Anaconda or booting live image and starting Anaconda
Since there isn't much variation between tests in this step, we have developed universal `_boot_to_anaconda.pm`
test that is loaded automatically each time except when `ENTRYPOINT` or `UPGRADE` is set (see VARIABLES.md).
Since there isn't much variation between tests in this step, we have developed universal `_boot_to_anaconda.pm` test that is loaded automatically each time except when `ENTRYPOINT` or `UPGRADE` is set (see VARIABLES.md).
To customize this step, you can set following variables:
To customize this step, you can set following variables:
- `GRUB` is appended to kernel line before boot. You can set for example `inst.updates` here.
- If `KICKSTART` is set, this part of installation ends here (program doesn't wait for Anaconda to appear).
Note that you should set `inst.ks` yourself by setting `GRUB` variable.
- If `LIVE` is set, program waits for desktop to appear and then clicks on "Install to Hard Drive" button.
- `GRUB` is appended to kernel line before boot. You can set for example `inst.updates` here.
- If `KICKSTART` is set, this part of installation ends here (program doesn't wait for Anaconda to appear). Note that you should set `inst.ks` yourself by setting `GRUB` variable.
- If `LIVE` is set, program waits for desktop to appear and then clicks on "Install to Hard Drive" button.
2. customizing installation by interacting with Anaconda spokes
#### Customizing installation by interacting with Anaconda spokes
Most of the differences between tests take place in this part. If you want to add another installation test,
you will probably put your variable checking and test loading here. All tests in this part should start on
Anaconda's main hub and after they done its part, they should go back to Anaconda's main hub so that next
test could be executed. In this phase, universal `_software_selection.pm` test is loaded that handles
selecting what software to install.
Most of the differences between tests take place in this part. If you want to add another installation test, you will probably put your variable checking and test loading here. All tests in this part should start on Anaconda's main hub and after they done its part, they should go back to Anaconda's main hub so that next test could be executed. In this phase, universal `_software_selection.pm` test is loaded that handles selecting what software to install.
To customize this step, you can set following variables:
To customize this step, you can set following variables:
- Set `PACKAGE_SET` to install required package set on "Software selection spoke" - you have to provide correct needles with the
name of `anaconda_${PACKAGE_SET}_highlighted` and `anaconda_${PACKAGE_SET}_selected`.
- Set `ENCRYPT_PASSWORD` to encrypt disk, value of this variable is used as an actual password.
- Set `PACKAGE_SET` to install required package set on "Software selection spoke" - you have to provide correct needles with the name of `anaconda_${PACKAGE_SET}_highlighted` and `anaconda_${PACKAGE_SET}_selected`.
- Set `ENCRYPT_PASSWORD` to encrypt disk, value of this variable is used as an actual password.
3. installing Fedora and waiting for Fedora to reboot
#### Installing Fedora and waiting for Fedora to reboot
After all customizations are finished, `_do_install_and_reboot.pm` test is automatically loaded.
It starts installation, creates user and sets root password when required, waits for installation
to finish and reboots into installed system. Only variables that control flow in this part are these:
After all customizations are finished, `_do_install_and_reboot.pm` test is automatically loaded. It starts installation, creates user and sets root password when required, waits for installation to finish and reboots into installed system. Only variables that control flow in this part are these:
- `ROOT_PASSWORD` to set root password to this value.
- When set, `USER_LOGIN` and `USER_PASSWORD` are used to create user in Anaconda.
- `ROOT_PASSWORD` to set root password to this value.
- When set, `USER_LOGIN` and `USER_PASSWORD` are used to create user in Anaconda.
4. post-install phase
#### Post-install phase
After installation is finished and installed system is fully booted, you can run additional tests
as checks that installed system has correct attributes - that correct file system is used, that
RAID is used etc.
Make your test modular, so that it utilizes `_boot_to_anaconda.pm`, `_software_selection.pm` and
`_do_install_and_reboot.pm` tests (that are loaded automatically). Break your test into smaller parts,
each dealing with one specific feature (e. g. partitioning, user creation...) and add their loading
into main.pm based on reasonable variable setting (so they can be used in other tests also).
After installation is finished and installed system is fully booted, you can run additional tests as checks that installed system has correct attributes - that correct file system is used, that RAID is used etc.
### Test inheritance
Your test can inherit from `basetest`, `fedorabase`, `installedtest` or `anacondatest`.
- `basetest` is basic class provided by os-autoinst - it has empty `post_fail_hook()` and doesn't set any flags.
- `fedorabase` doesn't neither set flags nor does anything in `post_fail_hook()`, but it provides basic functions
that will be useful during testing Fedora. It should be used when no other, more specific class can be used. It provides
these functions:
- `console_login()` handles logging in as a root/specified user into console. It requires TTY to
be already displayed (handled by the `root_console()` method of subclasses). You can configure user and password
by setting `user` and `password` arguments. If you set `check` argument to 1, this function
dies if it fails to log in. Example usage: `$self->console_login(user => "garret", password => "weakpassword");`
logs in as user `garret`, with password `weakpassword`.
- `boot_to_login_screen()` handles booting from bootloader to login screen. It can take three optional arguments:
first is the name of the login screen needle that should be displayed when system is booted, second is time how
long still screen should be displayed until openQA decides that system is booted and third is timeout how long
it should wait for still screen to appear. Example usage: `$self->boot_to_login_screen("graphical_login", 30);`
will wait until screen is not moving for 30 seconds and then checks, whether `graphical_login` needle is displayed.
- `clone_host_resolv()` copies the contents of the host's `/etc/resolv.conf` into the guest, overwriting any existing contents. This is mainly intended for use by openvswitch guests which need external connectivity.
- `anacondatest` should be used in tests where Anaconda is running. It uploads Anaconda logs (for example
`anaconda.log` or `packaging.log`) in `post_fail_hook()`. It also provides these convenient methods for Anaconda:
- `root_console()` tries to login is as a root. It decides to what TTY to switch into and then calls `console_login()`
for root. Example usage:
after calling `$self->root_console();`, console should be shown with root logged in.
- `select_disks()` handles disk selecting. It have one optional argument - number of disks to select. It should be
run when main Anaconda hub is displayed. It enters disk selection spoke and then ensures that required number of
disks are selected. Additionally, if `$PARTITIONING` variable (set in Web UI) starts with `custom_`, it selects
"custom partitioning" checkbox. Example usage: after calling `$self->select_disks(2);` from Anaconda main hub,
installation destination spoke will be displayed and two attached disks will be selected for installation.
- `custom_scheme_select()` is used for setting custom partitioning scheme (such as LVM). It should be called when
custom partitioning spoke is displayed. You have to pass it name of partitioning scheme and needle
`anaconda_part_scheme_$scheme` should exist. Example usage: `$self->custom_scheme_select("btrfs");` uses
`anaconda_part_scheme_btrfs` to set partitioning scheme to Btrfs.
- `custom_change_type()` is used to set different device types for specified partition (e. g. RAID). It should be
called when custom partitioning spoke is displayed. You have to pass it type of partition and name of partition
and needles `anaconda_part_select_$part` and `anaconda_part_device_type_$type` should exist. Example usage:
`$self->custom_change_type("raid", "root");` uses `anaconda_part_select_root` and `anaconda_part_device_type_raid`
needles to set RAID for root partition.
- `custom_change_fs()` is used to set different file systems for specified partition. It should be
called when custom partitioning spoke is displayed. You have to pass it filesystem name and name of partition
and needles `anaconda_part_select_$part` and `anaconda_part_fs_$fs` should exist. Example usage:
`$self->custom_change_fs("ext3", "root");` uses `anaconda_part_select_root` and `anaconda_part_fs_ext3` needles
to set ext3 file system for root partition.
- `custom_delete_part()` is used for deletion of previously added partitions in custom partitioning spoke. It should
be called when custom partitioning spoke is displayed. You have to pass it partition name and needle
`anaconda_part_select_$part` should exist. Example usage: `$self->custom_delete_part('swap');` uses
`anaconda_part_select_swap` to delete previously added swap partition.
- `installedtest` should be used in tests that are running on installed system (either in postinstall phase
or in upgrade tests). It uploads `/var/log` in `post_fail_hook()`. It provides these functions:
- `root_console()` tries to login is as a root. It switches to TTY that is set as an argument (default is TTY1)
and then calls `console_login()` for root.
Example usage: running `$self->root_console(tty=>2);` results in TTY2 displayed with root logged
in.
- `check_release()` checks whether the installed release matches a given value. E.g. `check_release(23)`
checks whether the installed system is Fedora 23. The value can be 'Rawhide' or a Fedora release number;
often you will want to use `get_var('VERSION')`. Expects a console prompt to be active when it is called.
Your test can inherit from `basetest`, `fedorabase`, `installedtest` or `anacondatest`. Each provides relevant methods that are documented in-line, so read the files (`lib/basetest.pm`, `lib/fedorabase.pm` etc.) for information on these.
- `basetest`: A base class provided by os-autoinst - it has empty `post_fail_hook()` and doesn't set any flags.
- `fedorabase`: doesn't set flags and does nothing in `post_fail_hook()`, but provides some basic methods that will be useful during testing Fedora. It should be used when no other, more specific class can be used.
- `anacondatest`: should be used in tests where Anaconda is running. It uploads Anaconda logs (for example `anaconda.log` or `packaging.log`) in `post_fail_hook()`.
- `installedtest`: should be used in tests that are running on installed system (either in postinstall phase or in upgrade tests).
There are also several modules that export utility functions, currently `main_common`, `freeipa`, and `packagetest`. Your test can `use` any of these modules and then directly call the functions they export. Again, the functions are documented in-line.
### New test development workflow
@ -135,23 +74,17 @@ and `test_flags()` method, inheriting from one of the classes mentioned above.
7. Add new Job template and Test suite into `templates` file.
8. Add new Test suite and Test case into [`conf_test_suites.py`](https://bitbucket.org/rajcze/openqa_fedora_tools/src/develop/tools/openqa_trigger/conf_test_suites.py)
file in openqa_fedora_tools repository.
9. Open differential request via phabricator, set openqa_fedora as a project and repository.
9. Open pull request in [Pagure](https://pagure.io/fedora-qa/os-autoinst-distri-fedora).
10. Mark your test in [phabricator page](https://phab.qa.fedoraproject.org/w/openqa/tests/) as done.
### Language handling
Tests can run in different languages. To set the language which will be used for a test, set the `LANGUAGE`
variable for the test suite. The results of this will be:
Tests can run in different languages. To set the language which will be used for a test, set the `LANGUAGE` variable for the test suite. The results of this will be:
1. The value set will be typed into the language search box in anaconda.
2. Any needle with at least one tag that starts with `LANGUAGE` will be unregistered unless it has the tag `LANGUAGE-(LANGUAGE)` (where `(LANGUAGE)` is the value set, forced to upper-case).
3. As a consequence, the chosen language will be selected at the anaconda Welcome screen.
It is very important, therefore, that needles have the correct tags. Any needle which is expected to match for
tests run in *any* language must have no `LANGUAGE` tags. Other needles must have the appropriate tag(s)
for the languages they are expected to match. The safest option if you are unsure is to set no `LANGUAGE` tag(s).
The only danger of this is that missing translations may not be caught.
It is very important, therefore, that needles have the correct tags. Any needle which is expected to match for tests run in *any* language must have no `LANGUAGE` tags. Other needles must have the appropriate tag(s) for the languages they are expected to match. The safest option if you are unsure is to set no `LANGUAGE` tag(s). The only danger of this is that missing translations may not be caught.
Note that tags of the form `ENV-INSTLANG-(anything)` are useless artefacts and should be removed. Due to
unfortunate design in openQA, any needle created in the web UI needle editor will have a `ENV-INSTLANG-en_US`
tag by default; this should be removed before submission.
Note that tags of the form `ENV-INSTLANG-(anything)` are useless artefacts and should be removed.

39
lib/anacondatest.pm
View File

@ -57,6 +57,7 @@ sub post_fail_hook {
}
sub root_console {
# Switch to an appropriate TTY and log in as root.
my $self = shift;
my %args = (
@_);
@ -74,6 +75,15 @@ sub root_console {
}
sub select_disks {
# Handles disk selection. Has one optional argument - number of
# disks to select. Should be run when main Anaconda hub is
# displayed. Enters disk selection spoke and then ensures that
# required number of disks are selected. Additionally, if
# PARTITIONING variable starts with custom_, selects "custom
# partitioning" checkbox. Example usage:
# after calling `$self->select_disks(2);` from Anaconda main hub,
# installation destination spoke will be displayed and two
# attached disks will be selected for installation.
my $self = shift;
my %args = (
disks => 1,
@ -141,6 +151,12 @@ sub select_disks {
}
sub custom_scheme_select {
# Used for setting custom partitioning scheme (such as LVM).
# Should be called when custom partitioning spoke is displayed.
# Pass the name of the partitioning scheme. Needle
# `anaconda_part_scheme_$scheme` should exist. Example usage:
# `$self->custom_scheme_select("btrfs");` uses needle
# `anaconda_part_scheme_btrfs` to set partition scheme to Btrfs.
my ($self, $scheme) = @_;
assert_and_click "anaconda_part_scheme";
# Move the mouse away from the menu
@ -149,6 +165,14 @@ sub custom_scheme_select {
}
sub custom_change_type {
# Used to set different device types for specified partition (e.g.
# RAID). Should be called when custom partitioning spoke is
# displayed. Pass it type of partition and name of partition.
# Needles `anaconda_part_select_$part` and
# `anaconda_part_device_type_$type` should exist. Example usage:
# `$self->custom_change_type("raid", "root");` uses
# `anaconda_part_select_root` and `anaconda_part_device_type_raid`
# needles to set RAID for root partition.
my ($self, $type, $part) = @_;
$part ||= "root";
assert_and_click "anaconda_part_select_$part";
@ -160,6 +184,14 @@ sub custom_change_type {
}
sub custom_change_fs {
# Used to set different file systems for specified partition.
# Should be called when custom partitioning spoke is displayed.
# Pass filesystem name and name of partition. Needles
# `anaconda_part_select_$part` and `anaconda_part_fs_$fs` should
# exist. Example usage:
# `$self->custom_change_fs("ext3", "root");` uses
# `anaconda_part_select_root` and `anaconda_part_fs_ext3` needles
# to set ext3 file system for root partition.
my ($self, $fs, $part) = @_;
$part ||= "root";
assert_and_click "anaconda_part_select_$part";
@ -184,6 +216,13 @@ sub custom_change_device {
}
sub custom_delete_part {
# Used for deletion of previously added partitions in custom
# partitioning spoke. Should be called when custom partitioning
# spoke is displayed. Pass the partition name. Needle
# `anaconda_part_select_$part` should exist. Example usage:
# `$self->custom_delete_part('swap');` uses
# `anaconda_part_select_swap` to delete previously added swap
# partition.
my ($self, $part) = @_;
return if not $part;
assert_and_click "anaconda_part_select_$part";

12
lib/installedtest.pm
View File

@ -10,6 +10,7 @@ use testapi;
use main_common;
sub root_console {
# Switch to a default or specified TTY and log in as root.
my $self = shift;
my %args = (
tty => 1, # what TTY to login to
@ -45,6 +46,11 @@ sub post_fail_hook {
}
sub check_release {
# Checks whether the installed release matches a given value. E.g.
# `check_release(23)` checks whether the installed system is
# Fedora 23. The value can be 'Rawhide' or a Fedora release
# number; often you will want to use `get_var('VERSION')`. Expects
# a console prompt to be active when it is called.
my $self = shift;
my $release = shift;
my $check_command = "grep SUPPORT_PRODUCT_VERSION /usr/lib/os.release.d/os-release-fedora";
@ -52,6 +58,9 @@ sub check_release {
}
sub menu_launch_type {
# Launch an application in a graphical environment, by opening a
# launcher, typing the specified string and hitting enter. Pass
# the string to be typed to launch whatever it is you want.
my $self = shift;
my $app = shift;
# super does not work on KDE, because fml
@ -63,6 +72,9 @@ sub menu_launch_type {
}
sub start_cockpit {
# Starting from a console, get to a browser with Cockpit (running
# on localhost) shown. If $login is truth-y, also log in. Assumes
# X and Firefox are installed.
my $self = shift;
my $login = shift || 0;
# run firefox directly in X as root. never do this, kids!