This converts the TextLayout algorithm from handling just words to
handling blocks of strings. With this model, whitespace is preserved
and inserted as-is, rather than being eaten and then replaced with a
single space (or none, if the whitespace was at the start of the word).
Closes#9032.
This implements unconditional special case folding, and conditional
folding for non-locale cases. Worth noting that the only conditional,
non-locale special case is for converting an uppercase sigma to
lowercase.
This will be needed for the Unicode Standard's Default Case Algorithm.
Generate the field as an enumeration rather than a string for easier
comparison.
This adds a SpecialCasing structure to the generated UnicodeData.h/cpp
files. This structure contains casing rules for code points which have
non-1-to-1 upper-to-lower case code point mappings. Further, these rules
may be limited to specific locales or other context.
We don't have these yet as our Date implementation doesn't use the time
value algorithms and AOs from the spec, but Temporal will need these in
various contexts.
Unfortunately seems like QEMU tries to use SPICE for audio so we need to
explicitly set -audiodev to use either SDL or coreaudio (depending on
platorm)
Previously there was a dead zone between the item icon and its text
in IconViews. This meant that you could click between the icon and
the text label and hit nothing.
This patch improves the situation by inflating both rects so that
they both overlap and become a bit easier to hit.
This role allows you to specify a custom opacity for icon painting.
Note that the opacity is not in effect when the item is either
selected and/or hovered.
To add a new per-CPU data structure, add an ID for it to the
ProcessorSpecificDataID enum.
Then call ProcessorSpecific<T>::initialize() when you are ready to
construct the per-CPU data structure on the current CPU. It can then
be accessed via ProcessorSpecific<T>::get().
This patch replaces the existing hard-coded mechanisms for Scheduler
and MemoryManager per-CPU data structure.
This enables further work on implementing KASLR by adding relocation
support to the pre-kernel and updating the kernel to be less dependent
on specific virtual memory layouts.
This allows us to specify virtual addresses for things the kernel should
access via virtual addresses later on. By doing this we can make the
kernel independent from specific physical addresses.
