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Merge tag 'docs-6.9-2' of git://git.lwn.net/linux

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Pull more documentation updates from Jonathan Corbet:
 "A handful of late-arriving documentation fixes and enhancements"

* tag 'docs-6.9-2' of git://git.lwn.net/linux:
  docs: verify/bisect: remove a level of indenting
  docs: verify/bisect: drop 'v' prefix, EOL aspect, and assorted fixes
  docs: verify/bisect: check taint flag
  docs: verify/bisect: improve install instructions
  docs: handling-regressions.rst: Update regzbot command fixed-by to fix
  docs: *-regressions.rst: Add colon to regzbot commands
  doc: Fix typo in admin-guide/cifs/introduction.rst
  README: Fix spelling
This commit is contained in:
Linus Torvalds
2024-03-20 09:36:46 -07:00
parent a4145ce1e7 b8cfda5c90
commit dba89d1b81
5 changed files with 216 additions and 183 deletions
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2
Documentation/admin-guide/cifs/introduction.rst
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@@ -28,7 +28,7 @@ Introduction
high performance safe distributed caching (leases/oplocks), optional packet
signing, large files, Unicode support and other internationalization
improvements. Since both Samba server and this filesystem client support the
CIFS Unix extensions, and the Linux client also suppors SMB3 POSIX extensions,
CIFS Unix extensions, and the Linux client also supports SMB3 POSIX extensions,
the combination can provide a reasonable alternative to other network and
cluster file systems for fileserving in some Linux to Linux environments,
not just in Linux to Windows (or Linux to Mac) environments.

2
Documentation/admin-guide/reporting-regressions.rst
View File

@@ -31,7 +31,7 @@ The important bits (aka "TL;DR")
Linux kernel regression tracking bot "regzbot" track the issue by specifying
when the regression started like this::
#regzbot introduced v5.13..v5.14-rc1
#regzbot introduced: v5.13..v5.14-rc1
All the details on Linux kernel regressions relevant for users

289
Documentation/admin-guide/verify-bugs-and-bisect-regressions.rst
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@@ -39,13 +39,13 @@ aspects, all of which might be essential in your present case.]*
developers**, execute just the *preparations* and *segment 1*; while doing so,
consider the newest Linux kernel you regularly use to be the 'working' kernel.
In the following example that's assumed to be 6.0.13, which is why the sources
of v6.0 will be used to prepare the .config file.
of 6.0 will be used to prepare the .config file.
**In case you face a regression**, follow the steps at least till the end of
*segment 2*. Then you can submit a preliminary report -- or continue with
*segment 3*, which describes how to perform a bisection needed for a
full-fledged regression report. In the following example 6.0.13 is assumed to be
the 'working' kernel and 6.1.5 to be the first 'broken', which is why v6.0
the 'working' kernel and 6.1.5 to be the first 'broken', which is why 6.0
will be considered the 'good' release and used to prepare the .config file.
* **Preparations**: set up everything to build your own kernels::
@@ -99,7 +99,8 @@ will be considered the 'good' release and used to prepare the .config file.
# * Note: on Arch Linux, its derivatives and a few other distributions
# the following commands will do nothing at all or only part of the
# job. See the step-by-step guide for further details.
command -v installkernel && sudo make modules_install install
sudo make modules_install
command -v installkernel && sudo make install
# * Check how much space your self-built kernel actually needs, which
# enables you to make better estimates later:
du -ch /boot/*$(make -s kernelrelease)* | tail -n 1
@@ -112,6 +113,7 @@ will be considered the 'good' release and used to prepare the .config file.
# checking if the output of the next two commands matches:
tail -n 1 ~/kernels-built
uname -r
cat /proc/sys/kernel/tainted
c) Check if the problem occurs with this kernel as well.
@@ -230,9 +232,10 @@ developers are obliged to act upon.
:ref:`Supplementary tasks: cleanup during and after following this guide.<introclosure_bissbs>`
The steps in each segment illustrate the important aspects of the process, while
a comprehensive reference section holds additional details. The latter sometimes
also outlines alternative approaches, pitfalls, as well as problems that might
occur at the particular step -- and how to get things rolling again.
a comprehensive reference section holds additional details for almost all of the
steps. The reference section sometimes also outlines alternative approaches,
pitfalls, as well as problems that might occur at the particular step -- and how
to get things rolling again.
For further details on how to report Linux kernel issues or regressions check
out Documentation/admin-guide/reporting-issues.rst, which works in conjunction
@@ -283,23 +286,23 @@ Preparations: set up everything to build your own kernels
Do you follow this guide to verify if a bug is present in the code developers
care for? Then consider the mainline release your 'working' kernel (the newest
one you regularly use) is based on to be the 'good' version; if your 'working'
kernel for example is '6.0.11', then your 'good' kernel is 'v6.0'.
kernel for example is 6.0.11, then your 'good' kernel is 6.0.
In case you face a regression, it depends on the version range where the
regression was introduced:
* Something which used to work in Linux 6.0 broke when switching to Linux
6.1-rc1? Then henceforth regard 'v6.0' as the last known 'good' version
and 'v6.1-rc1' as the first 'bad' one.
6.1-rc1? Then henceforth regard 6.0 as the last known 'good' version
and 6.1-rc1 as the first 'bad' one.
* Some function stopped working when updating from 6.0.11 to 6.1.4? Then for
the time being consider 'v6.0' as the last 'good' version and 'v6.1.4' as
the time being consider 6.0 as the last 'good' version and 6.1.4 as
the 'bad' one. Note, at this point it is merely assumed that 6.0 is fine;
this assumption will be checked in segment 2.
* A feature you used in 6.0.11 does not work at all or worse in 6.1.13? In
that case you want to bisect within a stable/longterm series: consider
'v6.0.11' as the last known 'good' version and 'v6.0.13' as the first 'bad'
6.0.11 as the last known 'good' version and 6.0.13 as the first 'bad'
one. Note, in this case you still want to compile and test a mainline kernel
as explained in segment 1: the outcome will determine if you need to report
your issue to the regular developers or the stable team.
@@ -349,7 +352,7 @@ Preparations: set up everything to build your own kernels
internet connections.*
Execute the following command to retrieve a fresh mainline codebase while
preparing things to add stable/longterm branches later::
preparing things to add branches for stable/longterm series later::
git clone -o mainline --no-checkout \
https://git.kernel.org/pub/scm/linux/kernel/git/torvalds/linux.git ~/linux/
@@ -368,14 +371,19 @@ Preparations: set up everything to build your own kernels
identifier using ``uname -r``.
Afterwards check out the source code for the version earlier established as
'good' (in this example this is assumed to be 6.0) and create a .config file::
'good'. In the following example command this is assumed to be 6.0; note that
the version number in this and all later Git commands needs to be prefixed
with a 'v'::
git checkout --detach v6.0
Now create a build configuration file::
make olddefconfig
The second command will try to locate the build configuration file for the
running kernel and then adjust it for the needs of the kernel sources you
checked out. While doing so, it will print a few lines you need to check.
The kernel build scripts then will try to locate the build configuration file
for the running kernel and then adjust it for the needs of the kernel sources
you checked out. While doing so, it will print a few lines you need to check.
Look out for a line starting with '# using defaults found in'. It should be
followed by a path to a file in '/boot/' that contains the release identifier
@@ -520,44 +528,32 @@ be a waste of time. [:ref:`details<introlatestcheck_bisref>`]
* Install your newly built kernel.
Before doing so, consider checking if there is still enough room for it::
Before doing so, consider checking if there is still enough space for it::
df -h /boot/ /lib/modules/
150 MByte in /boot/ and 200 in /lib/modules/ usually suffice. Those are rough
estimates assuming the worst case. How much your kernels actually require will
be determined later.
For now assume 150 MByte in /boot/ and 200 in /lib/modules/ will suffice; how
much your kernels actually require will be determined later during this guide.
Now install the kernel, which will be saved in parallel to the kernels from
your Linux distribution::
Now install the kernel's modules and its image, which will be stored in
parallel to the your Linux distribution's kernels::
command -v installkernel && sudo make modules_install install
sudo make modules_install
command -v installkernel && sudo make install
On many commodity Linux distributions this will take care of everything
required to boot your kernel. You might want to ensure that's the case by
checking if your boot loader's configuration was updated; furthermore ensure
an initramfs (also known as initrd) exists, which on many distributions can be
achieved by running ``ls -l /boot/init*$(make -s kernelrelease)*``. Those
steps are recommended, as there are quite a few Linux distribution where above
command is insufficient:
The second command ideally will take care of three steps required at this
point: copying the kernel's image to /boot/, generating an initramfs, and
adding an entry for both to the boot loader's configuration.
* On Arch Linux, its derivatives, many immutable Linux distributions, and a
few others the above command does nothing at, as they lack 'installkernel'
executable.
Sadly some distributions (among them Arch Linux, its derivatives, and many
immutable Linux distributions) will perform none or only some of those tasks.
You therefore want to check if all of them were taken care of and manually
perform those that were not. The reference section provides further details on
that; your distribution's documentation might help, too.
* Some distributions install the kernel, but don't add an entry for your
kernel in your boot loader's configuration -- the kernel thus won't show up
in the boot menu.
* Some distributions add a boot loader menu entry, but don't create an
initramfs on installation -- in that case your kernel most likely will be
unable to mount the root partition during bootup.
If any of that applies to you, see the reference section for further guidance.
Once you figured out what to do, consider writing down the necessary
installation steps: if you will build more kernels as described in
segment 2 and 3, you will have to execute these commands every time that
``command -v installkernel [...]`` comes up again.
Once you figured out the steps needed at this point, consider writing them
down: if you will build more kernels as described in segment 2 and 3, you will
have to perform those again after executing ``command -v installkernel [...]``.
[:ref:`details<install_bisref>`]
@@ -583,31 +579,40 @@ be a waste of time. [:ref:`details<introlatestcheck_bisref>`]
Remember the identifier momentarily, as it will help you pick the right kernel
from the boot menu upon restarting.
.. _recheckbroken_bissbs:
* Reboot into the kernel you just built and check if the feature that is
expected to be broken really is.
Start by making sure the kernel you booted is the one you just built. When
unsure, check if the output of these commands show the exact same release
identifier::
* Reboot into your newly built kernel. To ensure your actually started the one
you just built, you might want to verify if the output of these commands
matches::
tail -n 1 ~/kernels-built
uname -r
Now verify if the feature that causes trouble works with your newly built
kernel. If things work while investigating a regression, check the reference
section for further details.
.. _tainted_bissbs:
* Check if the kernel marked itself as 'tainted'::
cat /proc/sys/kernel/tainted
If that command does not return '0', check the reference section, as the cause
for this might interfere with your testing.
[:ref:`details<tainted_bisref>`]
.. _recheckbroken_bissbs:
* Verify if your bug occurs with the newly built kernel. If it does not, check
out the instructions in the reference section to ensure nothing went sideways
during your tests.
[:ref:`details<recheckbroken_bisref>`]
.. _recheckstablebroken_bissbs:
* Are you facing a problem within a stable/longterm release, but failed to
reproduce it with the mainline kernel you just built? Then check if the latest
codebase for the particular series might already fix the problem. To do so,
add the stable series Git branch for your 'good' kernel (again, this here is
assumed to be 6.0) and check out the latest version::
* Are you facing a problem within a stable/longterm series, but failed to
reproduce it with the mainline kernel you just built? One that according to
the `front page of kernel.org <https://kernel.org/>`_ is still supported? Then
check if the latest codebase for the particular series might already fix the
problem. To do so, add the stable series Git branch for your 'good' kernel
(again, this here is assumed to be 6.0) and check out the latest version::
cd ~/linux/
git remote set-branches --add stable linux-6.0.y
@@ -622,22 +627,26 @@ be a waste of time. [:ref:`details<introlatestcheck_bisref>`]
make -j $(nproc --all)
# * Check if the free space suffices holding another kernel:
df -h /boot/ /lib/modules/
command -v installkernel && sudo make modules_install install
sudo make modules_install
command -v installkernel && sudo make install
make -s kernelrelease | tee -a ~/kernels-built
reboot
Now verify if you booted the kernel you intended to start, to then check if
everything works fine with this kernel::
Confirm you booted the kernel you intended to start and check its tainted
status::
tail -n 1 ~/kernels-built
uname -r
cat /proc/sys/kernel/tainted
Now verify if this kernel is showing the problem.
[:ref:`details<recheckstablebroken_bisref>`]
Do you follow this guide to verify if a problem is present in the code
currently supported by Linux kernel developers? Then you are done at this
point. If you later want to remove the kernel you just built, check out
:ref:`Supplementary tasks: cleanup during and after following this guide.<introclosure_bissbs>`.
:ref:`Supplementary tasks: cleanup during and after following this guide<introclosure_bissbs>`.
In case you face a regression, move on and execute at least the next segment
as well.
@@ -670,12 +679,13 @@ otherwise would be a waste of time. [:ref:`details<introworkingcheck_bisref>`]
make -j $(nproc --all)
# * Check if the free space suffices holding another kernel:
df -h /boot/ /lib/modules/
command -v installkernel && sudo make modules_install install
sudo make modules_install
command -v installkernel && sudo make install
make -s kernelrelease | tee -a ~/kernels-built
reboot
When the system booted, you may want to verify once again that the
kernel you started is the one you just built:
kernel you started is the one you just built::
tail -n 1 ~/kernels-built
uname -r
@@ -698,7 +708,7 @@ configuration created earlier this works a lot faster than many people assume:
overall on average it will often just take about 10 to 15 minutes to compile
each kernel on commodity x86 machines.
* In case your 'bad' version is a stable/longterm release (say v6.1.5), add its
* In case your 'bad' version is a stable/longterm release (say 6.1.5), add its
stable branch, unless you already did so earlier::
cd ~/linux/
@@ -727,7 +737,8 @@ each kernel on commodity x86 machines.
make -j $(nproc --all)
# * Check if the free space suffices holding another kernel:
df -h /boot/ /lib/modules/
command -v installkernel && sudo make modules_install install
sudo make modules_install
command -v installkernel && sudo make install
make -s kernelrelease | tee -a ~/kernels-built
reboot
@@ -843,7 +854,8 @@ each kernel on commodity x86 machines.
make -j $(nproc --all) &&
# * Check if the free space suffices holding another kernel:
df -h /boot/ /lib/modules/
command -v installkernel && sudo make modules_install install
sudo make modules_install
command -v installkernel && sudo make install
Make -s kernelrelease | tee -a ~/kernels-built
reboot
@@ -1186,8 +1198,8 @@ Note, shallow clones have a few peculiar characteristics:
* For bisections the history needs to be deepened a few mainline versions
farther than it seems necessary, as explained above already. That's because
Git otherwise will be unable to revert or describe most of the commits within
a range (say v6.1..v6.2), as they are internally based on earlier kernels
releases (like v6.0-rc2 or 5.19-rc3).
a range (say 6.1..6.2), as they are internally based on earlier kernels
releases (like 6.0-rc2 or 5.19-rc3).
* This document in most places uses ``git fetch`` with ``--shallow-exclude=``
to specify the earliest version you care about (or to be precise: its git
@@ -1252,7 +1264,7 @@ restrictions).
Occasionally odd things happen when trying to use a config file prepared for one
kernel (say 6.1) on an older mainline release -- especially if it is much older
(say v5.15). That's one of the reasons why the previous step in the guide told
(say 5.15). That's one of the reasons why the previous step in the guide told
you to boot the kernel where everything works. If you manually add a .config
file you thus want to ensure it's from the working kernel and not from a one
that shows the regression.
@@ -1402,12 +1414,12 @@ Individual adjustments
*If you want to influence the other aspects of the configuration, do so
now.* [:ref:`... <configmods_bissbs>`]
You at this point can use a command like ``make menuconfig`` to enable or
disable certain features using a text-based user interface; to use a graphical
configuration utility, call the make target ``xconfig`` or ``gconfig`` instead.
All of them require development libraries from toolkits they are based on
(ncurses, Qt5, Gtk2); an error message will tell you if something required is
missing.
At this point you can use a command like ``make menuconfig`` or ``make nconfig``
to enable or disable certain features using a text-based user interface; to use
a graphical configuration utility, run ``make xconfig`` instead. Both of them
require development libraries from toolkits they are rely on (ncurses
respectively Qt5 or Qt6); an error message will tell you if something required
is missing.
[:ref:`back to step-by-step guide <configmods_bissbs>`]
@@ -1485,7 +1497,7 @@ highly recommended for these reasons:
.. _checkoutmaster_bisref:
Check out the latest Linux codebase
----------------------------------
-----------------------------------
*Check out the latest Linux codebase.*
[:ref:`... <introlatestcheck_bissbs>`]
@@ -1515,7 +1527,7 @@ When a build error occurs, it might be caused by some aspect of your machine's
setup that often can be fixed quickly; other times though the problem lies in
the code and can only be fixed by a developer. A close examination of the
failure messages coupled with some research on the internet will often tell you
which of the two it is. To perform such a investigation, restart the build
which of the two it is. To perform such investigation, restart the build
process like this::
make V=1
@@ -1538,10 +1550,10 @@ often one of the hits will provide a solution for your problem, too. If you
do not find anything that matches your problem, try again from a different angle
by modifying your search terms or using another line from the error messages.
In the end, most trouble you are to run into has likely been encountered and
In the end, most issues you run into have likely been encountered and
reported by others already. That includes issues where the cause is not your
system, but lies the code. If you run into one of those, you might thus find a
solution (e.g. a patch) or workaround for your problem, too.
system, but lies in the code. If you run into one of those, you might thus find a
solution (e.g. a patch) or workaround for your issue, too.
Package your kernel up
~~~~~~~~~~~~~~~~~~~~~~
@@ -1580,39 +1592,38 @@ Put the kernel in place
*Install the kernel you just built.* [:ref:`... <install_bissbs>`]
What you need to do after executing the command in the step-by-step guide
depends on the existence and the implementation of an ``installkernel``
executable. Many commodity Linux distributions ship such a kernel installer in
'/sbin/' that does everything needed, hence there is nothing left for you
except rebooting. But some distributions contain an installkernel that does
only part of the job -- and a few lack it completely and leave all the work to
you.
depends on the existence and the implementation of ``/sbin/installkernel``
executable on your distribution.
If ``installkernel`` is found, the kernel's build system will delegate the
actual installation of your kernel's image and related files to this executable.
On almost all Linux distributions it will store the image as '/boot/vmlinuz-
<kernelrelease identifier>' and put a 'System.map-<kernelrelease
identifier>' alongside it. Your kernel will thus be installed in parallel to any
existing ones, unless you already have one with exactly the same release name.
If installkernel is found, the kernel's build system will delegate the actual
installation of your kernel image to this executable, which then performs some
or all of these tasks:
Installkernel on many distributions will afterwards generate an 'initramfs'
(often also called 'initrd'), which commodity distributions rely on for booting;
hence be sure to keep the order of the two make targets used in the step-by-step
guide, as things will go sideways if you install your kernel's image before its
modules. Often installkernel will then add your kernel to the bootloader
configuration, too. You have to take care of one or both of these tasks
yourself, if your distributions installkernel doesn't handle them.
* On almost all Linux distributions installkernel will store your kernel's
image in /boot/, usually as '/boot/vmlinuz-<kernelrelease_id>'; often it will
put a 'System.map-<kernelrelease_id>' alongside it.
A few distributions like Arch Linux and its derivatives totally lack an
installkernel executable. On those just install the modules using the kernel's
build system and then install the image and the System.map file manually::
* On most distributions installkernel will then generate an 'initramfs'
(sometimes also called 'initrd'), which usually are stored as
'/boot/initramfs-<kernelrelease_id>.img' or
'/boot/initrd-<kernelrelease_id>'. Commodity distributions rely on this file
for booting, hence ensure to execute the make target 'modules_install' first,
as your distribution's initramfs generator otherwise will be unable to find
the modules that go into the image.
* On some distributions installkernel will then add an entry for your kernel
to your bootloader's configuration.
You have to take care of some or all of the tasks yourself, if your
distribution lacks a installkernel script or does only handle part of them.
Consult the distribution's documentation for details. If in doubt, install the
kernel manually::
sudo make modules_install
sudo install -m 0600 $(make -s image_name) /boot/vmlinuz-$(make -s kernelrelease)
sudo install -m 0600 System.map /boot/System.map-$(make -s kernelrelease)
If your distribution boots with the help of an initramfs, now generate one for
your kernel using the tools your distribution provides for this process.
Afterwards add your kernel to your bootloader configuration and reboot.
Now generate your initramfs using the tools your distribution provides for this
process. Afterwards add your kernel to your bootloader configuration and reboot.
[:ref:`back to step-by-step guide <install_bissbs>`]
@@ -1637,20 +1648,39 @@ need to look in different places.
[:ref:`back to step-by-step guide <storagespace_bissbs>`]
.. _tainted_bisref:
Check if your newly built kernel considers itself 'tainted'
-----------------------------------------------------------
*Check if the kernel marked itself as 'tainted'.*
[:ref:`... <tainted_bissbs>`]
Linux marks itself as tainted when something happens that potentially leads to
follow-up errors that look totally unrelated. That is why developers might
ignore or react scantly to reports from tainted kernels -- unless of course the
kernel set the flag right when the reported bug occurred.
That's why you want check why a kernel is tainted as explained in
Documentation/admin-guide/tainted-kernels.rst; doing so is also in your own
interest, as your testing might be flawed otherwise.
[:ref:`back to step-by-step guide <tainted_bissbs>`]
.. _recheckbroken_bisref:
Check the kernel built from the latest codebase
-----------------------------------------------
Check the kernel built from a recent mainline codebase
------------------------------------------------------
*Reboot into the kernel you just built and check if the feature that regressed
is really broken there.* [:ref:`... <recheckbroken_bissbs>`]
*Verify if your bug occurs with the newly built kernel.*
[:ref:`... <recheckbroken_bissbs>`]
There are a couple of reasons why the regression you face might not show up with
your own kernel built from the latest codebase. These are the most frequent:
There are a couple of reasons why your bug or regression might not show up with
the kernel you built from the latest codebase. These are the most frequent:
* The cause for the regression was fixed meanwhile.
* The bug was fixed meanwhile.
* The regression with the broken kernel was caused by a change in the build
* What you suspected to be a regression was caused by a change in the build
configuration the provider of your kernel carried out.
* Your problem might be a race condition that does not show up with your kernel;
@@ -1702,9 +1732,9 @@ it's possible that the thing that regressed might never have worked in vanilla
builds of the 'good' version in the first place.
There is a third reason for those that noticed a regression between
stable/longterm kernels of different series (e.g. v6.0.13..v6.1.5): it will
stable/longterm kernels of different series (e.g. 6.0.13..6.1.5): it will
ensure the kernel version you assumed to be 'good' earlier in the process (e.g.
v6.0) actually is working.
6.0) actually is working.
[:ref:`back to step-by-step guide <introworkingcheck_bissbs>`]
@@ -1720,6 +1750,9 @@ In case the feature that broke with newer kernels does not work with your first
self-built kernel, find and resolve the cause before moving on. There are a
multitude of reasons why this might happen. Some ideas where to look:
* Check the taint status and the output of ``dmesg``, maybe something unrelated
went wrong.
* Maybe localmodconfig did something odd and disabled the module required to
test the feature? Then you might want to recreate a .config file based on the
one from the last working kernel and skip trimming it down; manually disabling
@@ -1734,8 +1767,8 @@ multitude of reasons why this might happen. Some ideas where to look:
Note, if you found and fixed problems with the .config file, you want to use it
to build another kernel from the latest codebase, as your earlier tests with
mainline and the latest version from an affected stable/longterm series most
likely has been flawed.
mainline and the latest version from an affected stable/longterm series were most
likely flawed.
[:ref:`back to step-by-step guide <recheckworking_bissbs>`]
@@ -1749,7 +1782,7 @@ Start the bisection
This will start the bisection process; the last of the commands will make Git
check out a commit round about half-way between the 'good' and the 'bad' changes
for your to test.
for you to test.
[:ref:`back to step-by-step guide <bisectstart_bissbs>`]
@@ -1774,7 +1807,7 @@ There are two things worth of note here:
* Those slightly odd looking version identifiers can happen during bisections,
because the Linux kernel subsystems prepare their changes for a new mainline
release (say 6.2) before its predecessor (e.g. 6.1) is finished. They thus
base them on a somewhat earlier point like v6.1-rc1 or even v6.0 -- and then
base them on a somewhat earlier point like 6.1-rc1 or even 6.0 -- and then
get merged for 6.2 without rebasing nor squashing them once 6.1 is out. This
leads to those slightly odd looking version identifiers coming up during
bisections.
@@ -1790,7 +1823,7 @@ Bisection checkpoint
[:ref:`... <bisecttest_bissbs>`]
Ensure what you tell Git is accurate: getting it wrong just one time will bring
the rest of the bisection totally of course, hence all testing after that point
the rest of the bisection totally off course, hence all testing after that point
will be for nothing.
[:ref:`back to step-by-step guide <bisecttest_bissbs>`]
@@ -1811,7 +1844,7 @@ instead of testing ten or more kernels you might only have to build a few to
resolve things.
The .config file is put aside, as there is a decent chance that developers might
ask for it after you reported the regression.
ask for it after you report the regression.
[:ref:`back to step-by-step guide <bisectlog_bissbs>`]
@@ -1861,7 +1894,7 @@ simply remove its modules directory in /lib/modules/.
The other place is /boot/, where typically two up to five files will be placed
during installation of a kernel. All of them usually contain the release name in
their file name, but how many files and their exact name depends somewhat on
their file name, but how many files and their exact names depend somewhat on
your distribution's installkernel executable and its initramfs generator. On
some distributions the ``kernel-install remove...`` command mentioned in the
step-by-step guide will delete all of these files for you while also removing

12
Documentation/process/handling-regressions.rst
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@@ -27,11 +27,11 @@ The important bits (aka "The TL;DR")
is optional, but recommended):
* For mailed reports, check if the reporter included a line like ``#regzbot
introduced v5.13..v5.14-rc1``. If not, send a reply (with the regressions
introduced: v5.13..v5.14-rc1``. If not, send a reply (with the regressions
list in CC) containing a paragraph like the following, which tells regzbot
when the issue started to happen::
#regzbot ^introduced 1f2e3d4c5b6a
#regzbot ^introduced: 1f2e3d4c5b6a
* When forwarding reports from a bug tracker to the regressions list (see
above), include a paragraph like the following::
@@ -79,7 +79,7 @@ When doing either, consider making the Linux kernel regression tracking bot
"regzbot" immediately start tracking the issue:
* For mailed reports, check if the reporter included a "regzbot command" like
``#regzbot introduced 1f2e3d4c5b6a``. If not, send a reply (with the
``#regzbot introduced: 1f2e3d4c5b6a``. If not, send a reply (with the
regressions list in CC) with a paragraph like the following:::
#regzbot ^introduced: v5.13..v5.14-rc1
@@ -398,9 +398,9 @@ By using a 'regzbot command' in a direct or indirect reply to the mail with the
regression report. These commands need to be in their own paragraph (IOW: they
need to be separated from the rest of the mail using blank lines).
One such command is ``#regzbot introduced <version or commit>``, which makes
One such command is ``#regzbot introduced: <version or commit>``, which makes
regzbot consider your mail as a regressions report added to the tracking, as
already described above; ``#regzbot ^introduced <version or commit>`` is another
already described above; ``#regzbot ^introduced: <version or commit>`` is another
such command, which makes regzbot consider the parent mail as a report for a
regression which it starts to track.
@@ -432,7 +432,7 @@ or itself is a reply to that mail:
* Mark a regression as fixed by a commit that is heading upstream or already
landed::
#regzbot fixed-by: 1f2e3d4c5d
#regzbot fix: 1f2e3d4c5d
* Mark a regression as a duplicate of another one already tracked by regzbot::

2
README
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@@ -11,7 +11,7 @@ In order to build the documentation, use ``make htmldocs`` or
https://www.kernel.org/doc/html/latest/
There are various text files in the Documentation/ subdirectory,
several of them using the ReStructured Text markup notation.
several of them using the reStructuredText markup notation.
Please read the Documentation/process/changes.rst file, as it contains the
requirements for building and running the kernel, and information about