There's only a couple of cases like this, but there are some locale
paths in the CLDR that contain variants. For example, there isn't a
en-US path, but there is a en-US-POSIX path. This interferes with the
operation to search for locales by name. The algorithm is such that
searching for en-US will not result in en-US-POSIX being found. To
resolve this, we should remove variants from the locale name.
This data informs consumers how to join lists of values. For example,
in en-US, the list ["a", "b", "c"] formatted to a string should become
"a, b, and c".
This is to simply the Default Case Conversion implementation. Otherwise,
the implementation would need to determine which special casing rule to
apply, instead of just picking the first match.
The amount of aliases in the likely-subtags dataset is quite large, so
this also needed to change the way the data is generated. Otherwise, the
compiler would complain about the size of the generated code.
Previously, a static method was generated that would effectively parse
the dataset into a HashMap of Unicode::LanguageID at runtime. We now
perform that parsing at generation-time, and instead generate an Array
of a structure similar to Unicode::LanguageID (we cannot use the same
structure because it contains String and Optional, which cannot be used
at compile-time).
This option is similar to the qgrub option, but instead of starting a
QEMU PIIX4 machine, it starts a QEMU Q35 machine, booting a grub image
disk within it.
The DOM specification says that the primary use case for these is to
give Promises abort semantics. It is also a prerequisite for Fetch,
as it is used to make Fetch abortable.
a
CLDR contains a set of likely subtag data where, given a locale, you can
resolve what is the most likely language, script, or territory of that
locale. This data is needed for resolving territory aliases. These
aliases might contain multiple territories, and we need to resolve which
of those territories is most likely correct for a locale.
Note that the likely subtag data is quite huge (a few thousand entries).
As an optimization encouraged by the spec, we only generate the smallest
subset of this data that we actually need (about 150 entries).
Most alias substitutions are "simple", meaning that alias matching is
done by examining a single locale subtag. However, there are a handful
of "complex" aliases where matching is done by examining multiple
subtags. For example, the variant subtag "lojban" causes the locale
"art-lojban" to be canonicalized to "jbo", but only when the language
subtag is "art" (i.e. this should not occur for the locale "en-lojban").
This generates a method to perform complex alias matching.
CLDR contains a set of aliases for languages, territories, etc. that no
longer are meant to be used (e.g. due to deprecation). For example, the
language "aam" is deprecated and should be canonicalized as "aas".
This is needed so all headers and files exist on disk, so that
the sonar cloud analyzer can find them when executing the compilation
commands contained in compile_commands.json, without actually building.
Co-authored-by: Andrew Kaster <akaster@serenityos.org>
This should help prevent deadlocks where a thread blocks on a Mutex
while interrupts are disabled, and makes it impossible for the holder of
the Mutex to make forward progress because it cannot be scheduled in.
Hide it behind a new debug macro LOCK_IN_CRITICAL_DEBUG for now, because
Ext2FS takes a series of Mutexes from the page fault handler, which
executes with interrupts disabled.
This environment variable is already widely used across our build
scripts and tooling, so serenity.sh should respect it as well.
It still uses i686 as the fallback.
This allows us to remove all the add_subdirectory calls from the top
level CMakeLists.txt that referred to targets linking LagomCore.
Segregating the host tools and Serenity targets helps us get to a place
where the main Serenity build can simply use a CMake toolchain file
rather than swapping all the compiler/sysroot variables after building
host libraries and tools.
Moving this helper CMake file to the centralized Meta/CMake folder helps
to get a better grasp on what extra files are required for the build,
and what files are generated.
While we're at it, don't use add_compile_definitions for
ENABLE_UNICODE_DATA, which only needs to be seen by LibUnicode sources.
By using SerenityOS_SOURCE_DIR we can make custom targets and commands
agnostic to the actual location of the root CMakeLists directory.
All we care about is the root of the SerenityOS project.
compile_gml, compile_ipc, and generate_state_machine all use host
tools to generate sources for the target build. As part of trying to
organize host tools into a common area, let's move these helper rules to
a common file that we can add other host tools to later. And, keep the
host tool helpers separate from the CMake target helpers for apps and
libraries.
It's hard to follow how all the functions in the utils.cmake helper file
flow together, so let's move the pieces that are related to each other
into specialized helpers. First up: all the ConfigureComponents related
properties and functions.
On my machine (c), /mnt/c/Windows/System32 is not on the PATH by
default. This causes reg.exe to fail, which is responsible for detecting
the presence of QEMU. By putting this path on the PATH on WSL, it will
always work regardless of the specific PATH configuration, and QEMU is
always detected.
There is a bit of a race here between the Fuzzer and non-Fuzzer Lagom
builds. If the Unicode caches are empty, and the Fuzzer build completes
first, then the UCD and CLDR directories will be empty or won't exist.
Skip handling the Unicode caches for this build.
The IRC Client application made some sense while our main communication
hub was an IRC channel. Now that we've moved on, IRC is just a random
protocol with no particular relevance to this project.
This also has the benefit of removing one major client of the single-
process Web::InProcessWebView class.
