* OpCodeTable: Implement Hint instructions (CSDB, SEV, SEVL, WFE, WFI, YIELD)
* A64: Remove catch-all Hint instruction
* T16: Handle unallocated hint instructions
Some thumb tests execute these assuming that they're nops.
* T32: Fill out other Hint instructions
* A32: Fill out other hint instructions
* Periodically Flush Commands for Vulkan
NVIDIA's OpenGL driver has a built-in mechanism to automatically flush commands to GPU when a lot have been queued. It's also pretty inconsistent, but we'll ignore that for now.
Our Vulkan implementation only submits a command buffer (flush equivalent) when it needs to. This is typically when another command buffer needs to be sequenced after it, presenting a frame, or an edge case where we flush around GPU queries to get results sooner.
This difference in flush behaviour causes a notable difference between Vulkan and OpenGL when we have to wait for commands. In the worst case, we will wait for a sync point that has just been created. In Vulkan, this sync point is created by flushing the command buffer, and storing a waitable fence that signals its completion. Our command buffer contains _every command that we queued since the last submit_, which could be an entire frame's worth of draws.
This has a huge effect on CPU <-> GPU latency. The more commands in a command buffer, the longer we have to wait for it to complete, which results in wasted time. Because we don't know when the guest will force us to wait, we always want the smallest possible latency.
By periodically flushing, we ensure that each command buffer takes a more consistent, smaller amount of time to execute, and that the back of the GPU queue isn't as far away when we need to wait for something to happen. This also might reduce time that the GPU is left inactive while commands are being built.
The main affected game is Pokemon Sword, which got significantly faster in overworld areas due to reduced waiting time when it flushes a shadow map from the main GPU thread.
Another affected game is BOTW, which gets faster depending on the area. This game flushes textures/buffers from its game thread, which is the bottleneck.
Flush latency and throughput may be improved on other games that are inexplicably slower than OpenGL. It's possible that certain games could have their performance _decreased_ slightly due to flushes not being free, but it is unlikely.
Also, flushing to get query results sooner has been tweaked to improve the number of full draw skips that can be done. (tested in SMO)
* Remove unused variable
* Fix possible issue with early query flush
* Scale SamplesPassed counter by RT scale on report
Adds a scale factor for samples passed counter report based on the render target scale at the time. This ensures that when a game reads this counter, it appears similar to the result at 1x.
This doesn't cover cases where the the render target scale changes during the queried draws, though that might be better to handle along with other scope related issues in a future rework of counters. Games generally don't count for occlusion queries over render target changes anyways.
Fixes an issue in the Splatoon games where the special charge would scale too quickly at high res, points at the end of the game would be broken (but still provide a correct winner), and playing at a low res would make it impossible to swim in ink.
May also affect LOD scaling in The Witcher 3.
* Update Ryujinx.Graphics.Gpu/Engine/Threed/SemaphoreUpdater.cs
Co-authored-by: gdkchan <gab.dark.100@gmail.com>
Co-authored-by: gdkchan <gab.dark.100@gmail.com>
* Implement Thumb (32-bit) memory (ordered), multiply and bitfield instructions
* Remove public from interface
* Fix T32 BL immediate and implement signed and unsigned extend instructions
* Implement VRSRA, VRSHRN, VQSHRUN, VQMOVN, VQMOVUN, VQADD, VQSUB, VRHADD, VPADDL, VSUBL, VQDMULH and VMLAL Arm32 NEON instructions
* PPTC version
* Fix VQADD/VQSUB
* Improve MRC/MCR handling and exception messages
In case data is being recompiled as code, we don't want to throw at emit stage, instead we should only throw if it actually tries to execute
* Vertex Buffer Alignment part 1
* Update CacheByRange
* Add Stride Change compute shader, fix storage buffers in helpers
* An AMD exclusive
* Reword
* Change rules - stride conversion when attrs misalign
* Fix stupid mistake
* Fix background pipeline compile
* Improve a few things.
* Fix some feedback
* Address Feedback
(the shader binary didn't change when i changed the source to use the subgroup size)
* Fix bug where rewritten buffer would be disposed instantly.
* Implemented in IR the managed methods of the Saturating region ...
... of the SoftFallback class (the SatQ ones).
The need to natively manage the Fpcr and Fpsr system registers is still a fact.
Contributes to https://github.com/Ryujinx/Ryujinx/issues/2917 ; I will open another PR to implement in Intrinsics-branchless the methods of the Saturation region as well (the SatXXXToXXX ones).
All instructions involved have been tested locally in both release and debug modes, in both lowcq and highcq.
* Ptc.InternalVersion = 3665
* Addressed PR feedback.
We should report errors even when not requested.
This also ensure we only clear the bits that were requested on the output.
Finally, this fix when input events is 0.
* Bsd: Fix NullReferenceException in BsdSockAddr.FromIPEndPoint()
Allows "Victor Vran Overkill Edition" to boot with guest internet access enabled.
Thanks to EmulationFanatic for testing this for me!
* Bsd: Return proper error code if RemoteEndPoint is null
* Remove whitespace from empty line
Co-authored-by: gdkchan <gab.dark.100@gmail.com>
Co-authored-by: gdkchan <gab.dark.100@gmail.com>
* Implement intrusive red-black tree, use it for HLE kernel block manager
* Implement TreeDictionary using IntrusiveRedBlackTree
* Implement IntervalTree using IntrusiveRedBlackTree
* Implement IntervalTree (on Ryujinx.Memory) using IntrusiveRedBlackTree
* Make PredecessorOf and SuccessorOf internal, expose Predecessor and Successor properties on the node itself
* Allocation free tree node lookup
