This translates all usages of MCore::Array to AZStd::vector. It is
designed to be as minimal of a change as possible (no changing to
range-for loops or other C++11 stuff).
We can decide to submit this wholesale, or submit it to a separate
branch that we can then integrate individual files from once we're ready
to do a specific class's transition.
It does not completely solve the `uint32`->`size_t` transition.
One important finding from doing this: `MCore::Array` uses a `memcpy`
when it reallocates. `AZStd::vector` will use the contained type's copy
or move constructor, per element. This is a significant change in
behavior. If you have type, `SomeStruct` that defines a destructor, that
type is copyable and not movable. So if you have a
`MCore::Array<SomeStruct>`, and you call `Add(); Add(); Add()`, that
reallocates 3 times, copying the contents using `memcpy`, and never
invokes `SomeStruct`'s copy constructor or destructor. Translating that
to `AZStd::vector<SomeStruct>` and calling `push_back(); push_back();
push_back();` will still reallocate 3 times, but it sees that
`SomeStruct` is non-movable, and uses the copy constructor to make the
copies, and then the destructor on the previous values. This call to the
destructor wasn't there before, and can cause things to be deleted that
weren't before. The solution to this is to make that struct be a
move-only type. Where possible, this was done by changing that type to
use `AZStd::unique_ptr` instead of a raw pointer, to get the proper move
behavior. Where that is not possible (types that inherit from
`MCore::MemoryObject`), a hand-written move constructor was created.
In general:
GetLength() becomes size()
GetMaxLength() becomes capacity()
GetIsEmpty() becomes empty()
Reserve() becomes reserve()
ReserveExact() becomes reserve()
Resize() becomes resize()
ResizeFast() becomes resize_no_construct()
Add() becomes emplace_back()
AddExact() becomes emplace_back()
AddEmpty() becomes emplace_back()
AddEmptyExact() becomes emplace_back()
GetPtr() becomes data()
GetItem() becomes at()
Shrink() becomes shrink_to_fit()
GetFirst() becomes front()
GetLast() becomes back()
Remove() becomes erase()
RemoveFirst() becomes erase()
RemoveLast() becomes pop_back()
RemoveByValue() becomes if (const auto it = AZStd::find(...); it != end(container)) container.erase(it);
Insert() becomes emplace()
Swap() becomes swap()
Clear(true) becomes clear(); shrink_to_fit()
Clear() becomes clear(); shrink_to_fit()
Clear(false) becomes clear()
Swap() becomes swap()
Find() becomes AZStd::find
MoveElements() becomes AZStd::move
SetMemoryCategory() is removed
Signed-off-by: Chris Burel <burelc@amazon.com>
* Final update copyright headers to reference license files at the repo root
Signed-off-by: spham <spham@amazon.com>
* Fix copyright validator unit tests to support the stale O3DE header scenario
Signed-off-by: spham <spham@amazon.com>
EMotionFX has user-customizable hotkeys. These hotkeys are registered by
individual plugins, and then the user can set what they want the hotkey to
be. The way this was implemented was by reimplementing `keyPressEvent` and
`keyReleaseEvent` for each widget that used customizable hotkeys, and in
there call `KeyboardShortcutManager::Check` to see if key press matched any
existing hotkey mapping.
However, the main Editor has behavior that prevents events from reaching
EMotionFX's `keyPressEvent` method, if a keypress matches a hotkey that is
also used by the main Editor. This is due to the global event filter
defined in `ShortcutDispatcher::eventFilter`. This event filter takes a Qt
`Shortcut` event, and will re-dispatch that event to all parent widgets of
a given receiver. So if a parent widget, like the main Editor, *does* have
a QAction that matches a given key sequence, that widget will receive the
event, the event is marked as processed, and no `KeyPress` event is ever
sent to the original widget where the event occurred.
All this means that processing hotkeys in a `keyPressEvent` won't work
reliably. The main editor defines a hotkey for the `delete` key, so that
can never be received in a `keyPressEvent` by any child widget of the
Editor.
This change removes all the hotkey logic from the `keyPressEvent` methods,
and replaces them with `QAction` instances. Hotkeys are defined with
`QAction::setShortcut`, and added to each widget that they apply to.
In addition, the `KeyboardShortcutManager` class had to be adjusted to suit
this new way of defining the hotkeys. It now has a pointer to each
`QAction*` that can have a customizable hotkey. It has also been greatly
simplified, since it can use a `QKeySequence` instead of separate variables
for `int key; bool hasCtrlModifier; bool hasAltModifier`.
Applying user-defined hotkeys now has to be done after the hotkeys are
registered from a plugin. It is the plugin's responsibility to reload the
user-defined hotkeys after registering all of its actions.
Benjamin Jillich
Chris Burel
pappeste
Steve Pham
alexpete