This lets us reduce the number of USE_RETRO_ACHIEVEMENTS ifdefs in the
code base, reducing visual clutter. In particular, needing an ifdef for
each call to IsHardcodeModeActive was annoying to me. This also reduces
the risk that someone writes code that accidentally fails to compile
with USE_RETRO_ACHIEVEMENTS disabled.
We could cut down on ifdefs even further by making HardcodeWarningWidget
always exist, but that would result in non-trivial code ending up in the
binary even with USE_RETRO_ACHIEVEMENTS disabled, so I'm leaving it out
of this PR. It's not a lot of code though, so I might end up revisiting
it at some point.
The client can handle media changes natively so disabling can take place internally. This code uses the same external calls to load data, but will call either BeginLoad or BeginChangeMedia based on whether any media is already loaded.
Due to the client's handling of media changes (it simply disables hardcore if an unknown media is detected) the existing functionality for "disabling" the achievements is no longer necessary and can be deleted.
Most obviously, there is no longer a warning message to the player in the achievement window that achievements are disabled if a game is not currently running.
Given how many member functions make use of the system instance,
it's likely just better to pass the system instance in on construction.
Makes the interface a little less noisy to use.
Frame advancing is easily exploitable for slowing down a game and artificially improving reaction times and is not allowed in RetroAchievements hardcore mode.
Some state changes are meant to be near instantanoues, before switching to something else. By reporting ithe instant switch, the UI will flicker between states (pause/play button) and the debugger will unnecessarily update. Skipping the callback avoids these issues.
This was implemented to prevent UI flickering due to the state rapidly switching between pause/play. Recently, it has been causing issues with debugger windows, which update during frame advance.
While both fastmem and the BLR optimization depend on fault handling,
the BLR optimization doesn't depend on fastmem, and there are cases
where you might want the BLR optimization but not fastmem. For me
personally, it's useful when I try to use a debugger on Android and have
to disable fastmem so I don't get SIGSEGVs all the time, but it would be
especially useful for iOS users.
In theory, our config system supports calling Set from any thread. But
because we have config callbacks that call RunAsCPUThread, it's a lot
more restricted in practice. Calling Set from any thread other than the
host thread or the CPU thread is formally thread unsafe, and calling Set
on the host thread while the CPU thread is showing a panic alert causes
a deadlock. This is especially a problem because 04072f0 made the
"Ignore for this session" button in panic alerts call Set.
Because so many of our config callbacks want their code to run on the
CPU thread, I thought it would make sense to have a centralized way to
move execution to the CPU thread for config callbacks. To solve the
deadlock problem, this new way is non-blocking. This means that threads
other than the CPU thread might continue executing before the CPU thread
is informed of the new config, but I don't think there's any problem
with that.
Intends to fix https://bugs.dolphin-emu.org/issues/13108.
The ExpansionInterfaceManager::PauseAndLock function does nothing but
call other functions that have no effect.
ExpansionInterfaceManager::PauseAndLock calls CEXIChannel::PauseAndLock,
which in turn calls IEXIDevice::PauseAndLock. None of the classes
deriving from IEXIDevice override PauseAndLock, and the implementation
in IEXIDevice does nothing.
Fixing all the places it's used turned out to be a more complicated task than anticipated. So let's remove this for now so we don't confuse users with cryptic error messages...
Somewhere in the process of getting the memory peeking right for achievements, the AchievementManager call to DoFrame went missing. This restores it properly.
LoadGameByFilenameAsync sets up a volume reader and hashes the volume, then uses that hash to make the three consecutive API requests to resolve hash, start session and load game data.
CloseGame resets the m_is_game_loaded flag, wipes the queue, and destroys all the game data responses.