Compared to Corrade, the improvement in compile time is about a minute
cumulative across all cores, or about 8 seconds on an 8-core system (~2
minutes before, ~1:52 after). Not bad at all. And this is with a
deprecated build, the non-deprecated build is 1:48 -> 1:41.
So they can be used in StridedArrayView member function slicing the same
way as the mutable overloads. Pointer, Triple and other low-level
containers do the same thing and this is one of the prime use cases for
the slicing functionality, so it's silly it didn't actually work.
Which is good, those are all either anchors in the theme itself, or are
group names for which Doxygen doesn't make anchors anymore (but m.css
does). Plain HTML link still works as before, so let's do that instead.
Doxygen 1.12 has no longer a completely insane matcher and discards
those as it should. With 1.8.17 classes had to be referenced with
Corrade:: but functions, typedefs and variables didn't need to be and it
was a complete utter chaos.
Same as what Range does, so accessing them doesn't lead to weird
surprises with e.g. `.x()` missing.
Which means I can also HOPEFULLY remove that old MSVC ICE workaround
from the tests.
Same as done for Containers::StaticArray some time ago. Since it's not a
potentially dangerous operation, it's not made as an overload of the
from() function, but instead a regular constructor. It's however kept
explicit for now, even though it eventually might not need to be -- I'm
not sure about potential consequences yet.
It fixed interpolation for a more precise rounding, which means the
ground truth files for this test are now off-by-one compared to before.
In particular, nothing in the _source_ BCn data or the Y-flip algorithm
changed, it's just that they're now decoded to RGBA differently by bcdec
so the tests fail.
Worked on x86, works on ARM Linux (with GCC) as well. Not sure if it has
anything to do with long doubles being 64bit there, but I don't think it
should.
Such as being able to print the contents as hexadecimal. Doing this just
for Vector and not any other math types, as those are all floating point
where it doesn't make sense. And for Nanoseconds, which are integers,
hexadecimal printing makes no sense either.
Got a suggestion that lerp() could be optimized to be one arithmetic
operation less. While valid in certain cases, it would break in case the
endpoints have wildly different magnitudes. Unfortunately that was only
my personal knowledge, not backed by regression tests. Now it is.
Like the Deg / Rad classes, these are for strongly-typed representation
of time. Because the current way, either with untyped and imprecise
Float, or the insanely-hard-to-use and bloated std::chrono::nanoseconds,
was just too crappy.
This is just the types alone, corresponding typedefs in the root
namespace, and conversion from std::chrono. Using these in the Animation
library, in Timeline, in DebugTools::FrameProfiler, GL::TimeQuery etc.,
will eventually and gradually follow.
Breaking change, but the new behavior makes a lot more sense. Hopefully
not that significant breakage -- I don't assume people regularly worked
with angles this way.
Basically what Vector has already, need this for integer representation
of time, i.e. that
1.0_sec*1.25
gives back 1.25_sec, where the internal representation is a 64-bit
nanosecond value.
Just in case the codegen was a bit different between the two. Also this
makes it more likely that the actually tested lines are shown in code
coverage.
To allow people to cherry-pick just a subset of them if other code
defines literals that may conflict. I first did that the same way as
STL (so both namespaces inline), only to subsequently discover the
horror that all literals are implicitly available in the enclosing
Math namespace, thus preventing no conflicts at all. So the Literals
namespace isn't getting inline, only the inner ones.
This is also in preparation for introduction of
Literals::ConstexprColorLiterals that would provide a constexpr variant
of the _srgbf literals at the expense of having a large LUT in a header
file.
Vladimír Vondruš