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wry/src/copy_device.rs
2026-03-02 18:19:15 +01:00

2058 lines
78 KiB
Rust

use {
crate::{
async_engine::{AsyncEngine, SpawnedFuture},
eventfd_cache::EventfdCache,
format::{FORMATS, Format},
gfx_api::FdSync,
io_uring::IoUring,
rect::{Rect, Region},
utils::{
clonecell::CloneCell, copyhashmap::CopyHashMap, errorfmt::ErrorFmt, numcell::NumCell,
oserror::OsError, queue::AsyncQueue, stack::Stack,
},
video::{
LINEAR_MODIFIER, LINEAR_STRIDE_ALIGN, Modifier,
dmabuf::{DmaBuf, DmaBufIds, DmaBufPlane, PlaneVec},
drm::{NodeType, get_drm_nodes_from_dev, syncobj::SyncobjCtx},
},
vulkan_core::{
self, VULKAN_API_VERSION, VulkanCoreError, VulkanCoreInstance, device::VulkanDeviceInf,
map_extension_properties, sync::VulkanDeviceSyncExt,
timeline_semaphore::VulkanDeviceTimelineSemaphoreExt,
},
},
ahash::{AHashMap, AHashSet},
arrayvec::ArrayVec,
ash::{
Device,
ext::{
external_memory_dma_buf, image_drm_format_modifier, physical_device_drm,
queue_family_foreign,
},
khr::{external_fence_fd, external_memory_fd, external_semaphore_fd},
vk::{
self, AccessFlags2, BindImageMemoryInfo, BindImagePlaneMemoryInfo, BlitImageInfo2,
BufferCopy2, BufferCreateInfo, BufferImageCopy2, BufferMemoryBarrier2,
BufferUsageFlags, CommandBuffer, CommandBufferAllocateInfo, CommandBufferBeginInfo,
CommandBufferSubmitInfo, CommandBufferUsageFlags, CommandPoolCreateFlags,
CommandPoolCreateInfo, CopyBufferInfo2, CopyBufferToImageInfo2, CopyImageInfo2,
CopyImageToBufferInfo2, DependencyInfo, DeviceCreateInfo, DeviceMemory,
DeviceQueueCreateInfo, DrmFormatModifierPropertiesEXT,
DrmFormatModifierPropertiesListEXT, ExportMemoryAllocateInfo, Extent3D,
ExternalBufferProperties, ExternalFenceFeatureFlags, ExternalFenceHandleTypeFlags,
ExternalFenceProperties, ExternalImageFormatPropertiesKHR,
ExternalMemoryBufferCreateInfo, ExternalMemoryBufferCreateInfoKHR,
ExternalMemoryFeatureFlags, ExternalMemoryHandleTypeFlags,
ExternalMemoryImageCreateInfo, ExternalSemaphoreFeatureFlags,
ExternalSemaphoreHandleTypeFlags, ExternalSemaphoreProperties, Filter,
FormatFeatureFlags, FormatProperties2, ImageAspectFlags, ImageBlit2, ImageCopy2,
ImageCreateFlags, ImageCreateInfo, ImageDrmFormatModifierExplicitCreateInfoEXT,
ImageFormatProperties2, ImageLayout, ImageMemoryBarrier2, ImageMemoryRequirementsInfo2,
ImagePlaneMemoryRequirementsInfo, ImageSubresourceLayers, ImageSubresourceRange,
ImageTiling, ImageType, ImageUsageFlags, ImportMemoryFdInfoKHR,
ImportSemaphoreFdInfoKHR, MemoryAllocateInfo, MemoryDedicatedAllocateInfo,
MemoryFdPropertiesKHR, MemoryGetFdInfoKHR, MemoryPropertyFlags, MemoryRequirements2,
MemoryType, Offset3D, PhysicalDevice, PhysicalDeviceDrmPropertiesEXT,
PhysicalDeviceExternalBufferInfo, PhysicalDeviceExternalFenceInfo,
PhysicalDeviceExternalImageFormatInfoKHR, PhysicalDeviceExternalSemaphoreInfo,
PhysicalDeviceFeatures2, PhysicalDeviceImageDrmFormatModifierInfoEXT,
PhysicalDeviceImageFormatInfo2, PhysicalDeviceProperties2,
PhysicalDeviceSynchronization2Features, PhysicalDeviceTimelineSemaphoreFeatures,
PipelineStageFlags2, QUEUE_FAMILY_FOREIGN_EXT, Queue, QueueFlags, SampleCountFlags,
SemaphoreCreateInfo, SemaphoreImportFlags, SemaphoreSubmitInfo, SharingMode,
SubmitInfo2, SubresourceLayout, WHOLE_SIZE,
},
},
bstr::ByteSlice,
isnt::std_1::collections::IsntHashMapExt,
linearize::{Linearize, LinearizeExt, StaticCopyMap, StaticMap, static_copy_map, static_map},
log::Level,
run_on_drop::on_drop,
std::{
cell::{Cell, RefCell},
ffi::CStr,
fmt::{Debug, Formatter},
io,
ops::Deref,
rc::Rc,
slice,
},
thiserror::Error,
uapi::{AsUstr, OwnedFd, c},
vk::{Buffer, CommandPool, Image, Semaphore},
};
#[derive(Debug, Error)]
pub enum CopyDeviceError {
#[error(transparent)]
Core(#[from] VulkanCoreError),
#[error("Could not create a semaphore")]
CreateSemaphore(#[source] vk::Result),
#[error("Could not dup a sync file")]
DupSyncFile(#[source] io::Error),
#[error("Could not dup a dma buf")]
DupDmaBuf(#[source] io::Error),
#[error("Could not import a sync file")]
ImportSyncFile(#[source] vk::Result),
#[error("Could not submit the copy")]
SubmitCopy(#[source] vk::Result),
#[error("Could not enumerate the physical devices")]
EnumeratePhysicalDevice(#[source] vk::Result),
#[error("Could not find a corresponding vulkan device")]
NoVulkanDevice,
#[error("Device does not support vulkan 1.3")]
NoVulkan13,
#[error("Device does not support the synchronization2 feature")]
NoSynchronization2,
#[error("Device does not support the device extension {}", .0.as_ustr().as_bytes().as_bstr())]
MissingDeviceExtensions(&'static CStr),
#[error("Device does not support importing sync files")]
NoSyncFileImport,
#[error("Device does not support exporting sync files")]
NoSyncFileExport,
#[error("Device does not support importing dma bufs as buffers")]
NoDmaBufBufferImport,
#[error("Device does not have a graphics queue family")]
NoGfxQueueFamily,
#[error("Could not create the device")]
CreateDevice(#[source] vk::Result),
#[error("Could not create a command pool")]
CreateCommandPool(#[source] vk::Result),
#[error("Could not create a command buffer")]
CreateCommandBuffer(#[source] vk::Result),
#[error("Copy source and destination must have the same size")]
NotSameSize,
#[error("Copy source has a non-positive size")]
NonPositiveSize,
#[error("The size calculation overflowed")]
SizeOverflow,
#[error("The format and/or modifier is not supported")]
UnsupportedFormat,
#[error("the image is too large")]
TooLarge,
#[error("Copy source has an incorrect number of planes")]
WrongNumberOfPlanes,
#[error("Could not create a buffer")]
CreateBuffer(#[source] vk::Result),
#[error("Device returned an unexpected required buffer size")]
UnexpectedBufferSize,
#[error("Could not query memory fd properties")]
GetMemoryFdProperties(#[source] vk::Result),
#[error("Could not find a memory type for import")]
NoMemoryTypeForImport,
#[error("Could not import memory")]
ImportMemory(#[source] vk::Result),
#[error("Could not bind buffer memory")]
BindBufferMemory(#[source] vk::Result),
#[error("Could not bind image memory")]
BindImageMemory(#[source] vk::Result),
#[error("Could not create an image")]
CreateImage(#[source] vk::Result),
#[error("Could not begin a command buffer")]
BeginCommandBuffer(#[source] vk::Result),
#[error("Could not end a command buffer")]
EndCommandBuffer(#[source] vk::Result),
#[error("The previous copy is still executing")]
Busy,
#[error("The device does not support dmabuf export")]
NoDmabufExport,
#[error("Could not find a memory type for import")]
NoMemoryTypeForAllocation,
#[error("Could not allocate memory")]
AllocateMemory(#[source] vk::Result),
#[error("Could not export a dmabuf")]
ExportDmabuf(#[source] vk::Result),
#[error("Both buffers are off device")]
BothOffDevice,
#[error("Cannot blit between these formats")]
BlitNotSupported,
#[error("Could not get DRM nodes")]
GetDrmNodes(#[source] OsError),
#[error("Device has no device nodes")]
NoDeviceNodes,
#[error("Could not open device node")]
OpenDeviceNode(#[source] OsError),
}
type Keyed<T> = StaticMap<TransferType, T>;
type KeyedCopy<T> = StaticCopyMap<TransferType, T>;
pub struct PhysicalCopyDevice {
ring: Rc<IoUring>,
eng: Rc<AsyncEngine>,
eventfd_cache: Rc<EventfdCache>,
sync_ctx: Rc<SyncobjCtx>,
instance: VulkanCoreInstance,
physical_device: PhysicalDevice,
support: AHashMap<u32, StaticMap<Dir, Vec<CopyDeviceSupport>>>,
queues_to_allocate: Vec<QueueToAllocate>,
queues: KeyedCopy<QueueIndex>,
supports_dmabuf_export: bool,
supports_timeline_opaque_export: bool,
memory_types: Vec<MemoryType>,
rects: RefCell<Vec<(i32, i32, u32, u32)>>,
buffer_copy_2: RefCell<Vec<BufferCopy2<'static>>>,
buffer_image_copy_2: RefCell<Vec<BufferImageCopy2<'static>>>,
image_copy_2: RefCell<Vec<ImageCopy2<'static>>>,
image_blit_2: RefCell<Vec<ImageBlit2<'static>>>,
}
#[derive(Debug)]
struct QueueToAllocate {
family: u32,
num: usize,
}
#[derive(Copy, Clone, Default, Debug)]
struct QueueIndex {
allocate_idx: usize,
family: u32,
idx_within_family: u32,
transfer_granularity_mask: (u32, u32),
}
pub struct CopyDevice {
_tasks: Vec<SpawnedFuture<()>>,
dev: Rc<CopyDeviceInner>,
timeline_semaphore: Option<Rc<VulkanTimelineSemaphore>>,
}
struct CopyDeviceInner {
phy: Rc<PhysicalCopyDevice>,
dev: Device,
unique_pools: Vec<CommandPool>,
pools: Keyed<CommandPool>,
queues: KeyedCopy<Queue>,
external_semaphore_fd: external_semaphore_fd::Device,
external_fence_fd: external_fence_fd::Device,
external_memory_fd: external_memory_fd::Device,
semaphores: Stack<VulkanSemaphore>,
fences: Stack<Rc<VulkanFence>>,
submissions: Keyed<Rc<PendingSubmissions>>,
}
#[derive(Default)]
struct PendingSubmissions {
task_has_pending: Cell<bool>,
pending: AsyncQueue<Pending>,
}
pub struct CopyDeviceCopy {
inner: Rc<CopyDeviceCopyInner>,
dev: Rc<CopyDevice>,
}
struct CopyDeviceCopyInner {
dev: Rc<CopyDeviceInner>,
busy_id: NumCell<u64>,
busy: CloneCell<Option<FdSync>>,
width: u32,
height: u32,
command_buffer: CommandBuffer,
tt: TransferType,
ty: CopyDeviceCopyType,
}
enum CopyDeviceCopyType {
BufferToBuffer {
src: VulkanBuffer,
dst: VulkanBuffer,
stride: u32,
bpp: u32,
},
BufferToImage {
buf: VulkanBuffer,
buf_format: &'static Format,
buf_stride: u32,
img: VulkanImage,
},
ImageToBuffer {
img: VulkanImage,
buf: VulkanBuffer,
buf_format: &'static Format,
buf_stride: u32,
},
ImageToImage {
src: VulkanImage,
dst: VulkanImage,
},
Blit {
src: VulkanImage,
dst: VulkanImage,
},
}
struct Pending {
dev: Rc<CopyDeviceInner>,
busy_id: u64,
sync: Option<FdSync>,
copy: Rc<CopyDeviceCopyInner>,
semaphore: Option<VulkanSemaphore>,
vulkan_sync: VulkanSync,
}
struct VulkanSemaphore {
dev: Rc<CopyDeviceInner>,
semaphore: Semaphore,
}
type VulkanFence = vulkan_core::fence::VulkanFence<CopyDeviceInner>;
type VulkanTimelineSemaphore =
vulkan_core::timeline_semaphore::VulkanTimelineSemaphore<CopyDeviceInner>;
type VulkanSync = vulkan_core::sync::VulkanSync<CopyDeviceInner>;
struct VulkanBuffer {
dev: Rc<CopyDeviceInner>,
buf: Buffer,
mem: DeviceMemory,
}
struct VulkanImage {
dev: Rc<CopyDeviceInner>,
img: Image,
mem: PlaneVec<DeviceMemory>,
}
#[derive(Copy, Clone)]
pub struct CopyDeviceSupport {
pub modifier: Modifier,
pub planes: usize,
pub max_width: u32,
pub max_height: u32,
pub blit: bool,
}
pub struct CopyDeviceBuffer {
device: Rc<CopyDeviceInner>,
memory: DeviceMemory,
dmabuf: DmaBuf,
}
#[derive(Copy, Clone, Debug, Linearize)]
enum TransferType {
Blit,
Intra,
Download,
Upload,
}
#[derive(Copy, Clone, Debug, Linearize)]
enum Dir {
Src,
Dst,
}
struct ClassifiedDmabuf<'a> {
fd_props: PlaneVec<MemoryFdPropertiesKHR<'static>>,
on_device: bool,
buffer_possible: bool,
format: &'a CopyDeviceSupport,
}
pub struct CopyDeviceRegistry {
ring: Rc<IoUring>,
eng: Rc<AsyncEngine>,
eventfd_cache: Rc<EventfdCache>,
devs: CopyHashMap<c::dev_t, Option<Rc<PhysicalCopyDevice>>>,
}
const DEVICE_EXTENSIONS: [&CStr; 6] = [
external_semaphore_fd::NAME,
external_fence_fd::NAME,
external_memory_fd::NAME,
external_memory_dma_buf::NAME,
image_drm_format_modifier::NAME,
queue_family_foreign::NAME,
];
impl PhysicalCopyDevice {
fn new(
ring: &Rc<IoUring>,
eng: &Rc<AsyncEngine>,
eventfd_cache: &Rc<EventfdCache>,
dev: c::dev_t,
) -> Result<Rc<Self>, CopyDeviceError> {
let core_instance = VulkanCoreInstance::new(Level::Debug)?;
let instance = &core_instance.instance;
let physical_device;
let device_extensions;
let device_properties;
let supports_dmabuf_export;
'find_device: {
let devices = unsafe {
instance
.enumerate_physical_devices()
.map_err(CopyDeviceError::EnumeratePhysicalDevice)?
};
'outer: for phy in devices {
let res = unsafe { instance.enumerate_device_extension_properties(phy) };
let exts = match res {
Ok(res) => map_extension_properties(res),
Err(e) => {
log::error!(
"Could not enumerate extensions of physical device: {}",
ErrorFmt(e),
);
continue;
}
};
if exts.not_contains_key(physical_device_drm::NAME) {
continue 'outer;
}
let mut drm_props = PhysicalDeviceDrmPropertiesEXT::default();
let mut props = PhysicalDeviceProperties2::default().push_next(&mut drm_props);
unsafe {
instance.get_physical_device_properties2(phy, &mut props);
}
let props = props.properties;
let major = uapi::major(dev) as i64;
let minor = uapi::minor(dev) as i64;
let matches = (drm_props.has_primary == vk::TRUE
&& drm_props.primary_major == major
&& drm_props.primary_minor == minor)
|| (drm_props.has_render == vk::TRUE
&& drm_props.render_major == major
&& drm_props.render_minor == minor);
if matches {
physical_device = phy;
device_extensions = exts;
device_properties = props;
break 'find_device;
}
}
return Err(CopyDeviceError::NoVulkanDevice);
}
let nodes = get_drm_nodes_from_dev(uapi::major(dev), uapi::minor(dev))
.map_err(CopyDeviceError::GetDrmNodes)?;
let path = nodes
.get(&NodeType::Render)
.or_else(|| nodes.get(&NodeType::Primary))
.ok_or(CopyDeviceError::NoDeviceNodes)?;
let device_fd = uapi::open(path.as_c_str(), c::O_RDWR, 0)
.map(Rc::new)
.map_err(Into::into)
.map_err(CopyDeviceError::OpenDeviceNode)?;
if device_properties.api_version < VULKAN_API_VERSION {
return Err(CopyDeviceError::NoVulkan13);
}
for ext in DEVICE_EXTENSIONS {
if device_extensions.not_contains_key(ext) {
return Err(CopyDeviceError::MissingDeviceExtensions(ext));
}
}
{
let mut synchronization2_features = PhysicalDeviceSynchronization2Features::default();
let mut physical_device_features =
PhysicalDeviceFeatures2::default().push_next(&mut synchronization2_features);
unsafe {
instance
.get_physical_device_features2(physical_device, &mut physical_device_features);
}
if synchronization2_features.synchronization2 != vk::TRUE {
return Err(CopyDeviceError::NoSynchronization2);
}
}
{
let info = PhysicalDeviceExternalSemaphoreInfo::default()
.handle_type(ExternalSemaphoreHandleTypeFlags::SYNC_FD);
let mut props = ExternalSemaphoreProperties::default();
unsafe {
instance.get_physical_device_external_semaphore_properties(
physical_device,
&info,
&mut props,
);
}
let supported = props
.external_semaphore_features
.contains(ExternalSemaphoreFeatureFlags::IMPORTABLE);
if !supported {
return Err(CopyDeviceError::NoSyncFileImport);
}
}
{
let info = PhysicalDeviceExternalFenceInfo::default()
.handle_type(ExternalFenceHandleTypeFlags::SYNC_FD);
let mut props = ExternalFenceProperties::default();
unsafe {
instance.get_physical_device_external_fence_properties(
physical_device,
&info,
&mut props,
);
}
let supported = props
.external_fence_features
.contains(ExternalFenceFeatureFlags::EXPORTABLE);
if !supported {
return Err(CopyDeviceError::NoSyncFileExport);
}
}
{
let info = PhysicalDeviceExternalBufferInfo::default()
.handle_type(ExternalMemoryHandleTypeFlags::DMA_BUF_EXT)
.usage(BufferUsageFlags::TRANSFER_SRC | BufferUsageFlags::TRANSFER_DST);
let mut props = ExternalBufferProperties::default();
unsafe {
instance.get_physical_device_external_buffer_properties(
physical_device,
&info,
&mut props,
);
}
let features = props.external_memory_properties.external_memory_features;
let supported = features.contains(ExternalMemoryFeatureFlags::IMPORTABLE);
if !supported {
return Err(CopyDeviceError::NoDmaBufBufferImport);
}
supports_dmabuf_export = features.contains(ExternalMemoryFeatureFlags::EXPORTABLE);
}
let (queues_to_allocate, queue_indices) = {
let families =
unsafe { instance.get_physical_device_queue_family_properties(physical_device) };
let mut transfer_only = None;
let mut compute_only = None;
let mut gfx = None;
for (idx, family) in families.iter().enumerate() {
let idx = idx as u32;
let g = family.min_image_transfer_granularity;
let g = (g.width.wrapping_sub(1), g.height.wrapping_sub(1));
if g.0 == u32::MAX || g.1 == u32::MAX {
continue;
}
let count = family.queue_count;
if count == 0 {
continue;
}
let v = (idx, g, count);
let flags = family.queue_flags;
if flags.contains(QueueFlags::GRAPHICS) {
if gfx.is_none() {
gfx = Some(v);
}
} else if flags.contains(QueueFlags::COMPUTE) {
if compute_only.is_none() {
compute_only = Some(v);
}
} else if flags.contains(QueueFlags::TRANSFER) {
if transfer_only.is_none() {
transfer_only = Some(v);
}
}
}
let gfx = gfx.ok_or(CopyDeviceError::NoGfxQueueFamily)?;
allocate_queues(gfx, compute_only, transfer_only)
};
let mut support = AHashMap::default();
for format in FORMATS {
let mut list = vec![];
for attach in [false, true] {
let mut modifiers = DrmFormatModifierPropertiesListEXT::default();
if attach {
modifiers = modifiers.drm_format_modifier_properties(&mut list);
}
let mut out = FormatProperties2::default().push_next(&mut modifiers);
unsafe {
instance.get_physical_device_format_properties2(
physical_device,
format.vk_format,
&mut out,
);
}
if !attach {
list = vec![
DrmFormatModifierPropertiesEXT::default();
modifiers.drm_format_modifier_count as usize
];
}
}
let mut format_support = StaticMap::<_, Vec<_>>::default();
for modifier in list {
for dir in Dir::variants() {
let format_feature_flags = match dir {
Dir::Src => FormatFeatureFlags::TRANSFER_SRC,
Dir::Dst => FormatFeatureFlags::TRANSFER_DST,
};
let blit_feature_flags = match dir {
Dir::Src => FormatFeatureFlags::BLIT_SRC,
Dir::Dst => FormatFeatureFlags::BLIT_DST,
};
let image_usage_flags = match dir {
Dir::Src => ImageUsageFlags::TRANSFER_SRC,
Dir::Dst => ImageUsageFlags::TRANSFER_DST,
};
let image_features = modifier.drm_format_modifier_tiling_features;
if !image_features.contains(format_feature_flags) {
continue;
}
let supports_blit = image_features.contains(blit_feature_flags);
let mut modifier_info = PhysicalDeviceImageDrmFormatModifierInfoEXT::default()
.drm_format_modifier(modifier.drm_format_modifier);
let mut external_memory_info =
PhysicalDeviceExternalImageFormatInfoKHR::default()
.handle_type(ExternalMemoryHandleTypeFlags::DMA_BUF_EXT);
let info = PhysicalDeviceImageFormatInfo2::default()
.format(format.vk_format)
.ty(ImageType::TYPE_2D)
.tiling(ImageTiling::DRM_FORMAT_MODIFIER_EXT)
.usage(image_usage_flags)
.push_next(&mut external_memory_info)
.push_next(&mut modifier_info);
let mut external_memory_prop = ExternalImageFormatPropertiesKHR::default();
let mut prop =
ImageFormatProperties2::default().push_next(&mut external_memory_prop);
let res = unsafe {
instance.get_physical_device_image_format_properties2(
physical_device,
&info,
&mut prop,
)
};
if res.is_err() {
continue;
}
let prop = prop.image_format_properties;
let memory_features = external_memory_prop
.external_memory_properties
.external_memory_features;
if !memory_features.contains(ExternalMemoryFeatureFlags::IMPORTABLE) {
continue;
}
let me = prop.max_extent;
if me.width > 0 && me.height > 0 && me.depth > 0 {
format_support[dir].push(CopyDeviceSupport {
modifier: modifier.drm_format_modifier,
planes: modifier.drm_format_modifier_plane_count as usize,
max_width: me.width,
max_height: me.height,
blit: supports_blit,
});
}
}
}
support.insert(format.drm, format_support);
}
let memory_info =
unsafe { instance.get_physical_device_memory_properties(physical_device) };
let features = core_instance.get_features(physical_device);
let supports_timeline_opaque_export =
core_instance.supports_timeline_opaque_export(physical_device, &features);
let dev = Rc::new(PhysicalCopyDevice {
ring: ring.clone(),
eng: eng.clone(),
eventfd_cache: eventfd_cache.clone(),
sync_ctx: Rc::new(SyncobjCtx::new(&device_fd)),
instance: core_instance,
physical_device,
support,
queues_to_allocate,
queues: queue_indices,
supports_dmabuf_export,
supports_timeline_opaque_export,
memory_types: memory_info.memory_types_as_slice().to_vec(),
rects: Default::default(),
buffer_copy_2: Default::default(),
image_blit_2: Default::default(),
image_copy_2: Default::default(),
buffer_image_copy_2: Default::default(),
});
Ok(dev)
}
pub fn src_support(&self, format: &Format) -> &[CopyDeviceSupport] {
self.support(format, Dir::Src)
}
pub fn dst_support(&self, format: &Format) -> &[CopyDeviceSupport] {
self.support(format, Dir::Dst)
}
fn support(&self, format: &Format, dir: Dir) -> &[CopyDeviceSupport] {
self.support
.get(&format.drm)
.map(|s| s[dir].as_slice())
.unwrap_or_default()
}
pub fn create_device(self: &Rc<Self>) -> Result<Rc<CopyDevice>, CopyDeviceError> {
let instance = &self.instance.instance;
let device = {
let priorities = [1.0; TransferType::LENGTH];
let queue_create_info: Vec<_> = self
.queues_to_allocate
.iter()
.map(|q| {
DeviceQueueCreateInfo::default()
.queue_family_index(q.family)
.queue_priorities(&priorities[..q.num])
})
.collect();
let extensions = DEVICE_EXTENSIONS.map(|e| e.as_ptr());
let mut semaphore_features = PhysicalDeviceTimelineSemaphoreFeatures::default()
.timeline_semaphore(self.supports_timeline_opaque_export);
let mut synchronization2_features =
PhysicalDeviceSynchronization2Features::default().synchronization2(true);
let info = DeviceCreateInfo::default()
.queue_create_infos(&queue_create_info)
.enabled_extension_names(&extensions)
.push_next(&mut semaphore_features)
.push_next(&mut synchronization2_features);
unsafe {
instance
.create_device(self.physical_device, &info, None)
.map_err(CopyDeviceError::CreateDevice)?
}
};
let destroy_device = on_drop(|| unsafe { device.destroy_device(None) });
let external_semaphore_fd = external_semaphore_fd::Device::new(instance, &device);
let external_fence_fd = external_fence_fd::Device::new(instance, &device);
let external_memory_fd = external_memory_fd::Device::new(instance, &device);
let queues = self.queues.map_values(|idx| unsafe {
device.get_device_queue(idx.family, idx.idx_within_family)
});
let mut unique_pools = vec![];
let mut destroy_pools = vec![];
for q in &self.queues_to_allocate {
let info = CommandPoolCreateInfo::default()
.queue_family_index(q.family)
.flags(CommandPoolCreateFlags::RESET_COMMAND_BUFFER);
let pool = unsafe {
device
.create_command_pool(&info, None)
.map_err(CopyDeviceError::CreateCommandPool)?
};
unique_pools.push(pool);
let device = &device;
let destroy_pool = on_drop(move || unsafe { device.destroy_command_pool(pool, None) });
destroy_pools.push(destroy_pool);
}
let pools: StaticMap<TransferType, _> = static_map! {
tt => unique_pools[self.queues[tt].allocate_idx]
};
let submissions_list: Vec<Vec<Rc<PendingSubmissions>>> = self
.queues_to_allocate
.iter()
.map(|q| vec![Default::default(); q.num])
.collect();
let submissions = self
.queues
.into_static_map()
.map_values(|q| submissions_list[q.allocate_idx][q.idx_within_family as usize].clone());
destroy_pools.into_iter().for_each(|v| v.forget());
destroy_device.forget();
let dev = Rc::new(CopyDeviceInner {
phy: self.clone(),
dev: device,
unique_pools,
pools,
queues,
external_semaphore_fd,
external_fence_fd,
external_memory_fd,
semaphores: Default::default(),
fences: Default::default(),
submissions,
});
let mut tasks = vec![];
for submissions in submissions_list.iter().flatten().cloned() {
let future = wait_for_submissions(submissions, dev.clone(), self.ring.clone());
let task = self.eng.spawn("copy-device-await-pending", future);
tasks.push(task);
}
let queue = Rc::new(CopyDevice {
timeline_semaphore: dev.create_timeline_semaphore_or_log(),
dev,
_tasks: tasks,
});
Ok(queue)
}
}
async fn wait_for_submissions(
submissions: Rc<PendingSubmissions>,
dev: Rc<CopyDeviceInner>,
ring: Rc<IoUring>,
) {
loop {
submissions.task_has_pending.set(false);
let pending = submissions.pending.pop().await;
submissions.task_has_pending.set(true);
if let Some(sync) = &pending.sync
&& let Err(e) = sync.try_signaled(&ring).await
{
log::warn!(
"Could not wait for sync file to become readable: {}",
ErrorFmt(e),
);
dev.wait_idle();
}
pending.vulkan_sync.handle_validation();
}
}
impl CopyDevice {
fn classify_dmabuf(
&self,
buf: &DmaBuf,
dir: Dir,
) -> Result<ClassifiedDmabuf<'_>, CopyDeviceError> {
if buf.width <= 0 || buf.height <= 0 {
return Err(CopyDeviceError::NonPositiveSize);
}
let width = buf.width as u32;
let height = buf.height as u32;
let Some(format) = self
.dev
.phy
.support(buf.format, dir)
.iter()
.find(|s| s.modifier == buf.modifier)
else {
return Err(CopyDeviceError::UnsupportedFormat);
};
if width > format.max_width || height > format.max_height {
return Err(CopyDeviceError::TooLarge);
}
if buf.planes.len() != format.planes {
return Err(CopyDeviceError::WrongNumberOfPlanes);
}
let mut fd_props = PlaneVec::new();
for plane in &buf.planes {
let mut props = MemoryFdPropertiesKHR::default();
unsafe {
self.dev
.external_memory_fd
.get_memory_fd_properties(
ExternalMemoryHandleTypeFlags::DMA_BUF_EXT,
plane.fd.raw(),
&mut props,
)
.map_err(CopyDeviceError::GetMemoryFdProperties)?;
}
fd_props.push(props);
if buf.is_one_file() {
break;
}
}
let mut on_device = true;
for prop in &fd_props {
let mut plane_on_device = false;
for (idx, ty) in self.dev.phy.memory_types.iter().enumerate() {
if prop.memory_type_bits & (1 << idx) != 0
&& ty
.property_flags
.contains(MemoryPropertyFlags::DEVICE_LOCAL)
{
plane_on_device = true;
break;
}
}
if !plane_on_device {
on_device = false;
break;
}
}
let buffer_possible = buf.modifier == LINEAR_MODIFIER
&& buf.planes.len() == 1
&& buf.planes[0].stride % buf.format.bpp == 0
&& width <= buf.planes[0].stride / buf.format.bpp;
Ok(ClassifiedDmabuf {
fd_props,
on_device,
buffer_possible,
format,
})
}
fn import_buffer(
&self,
tt: TransferType,
class: &ClassifiedDmabuf,
buf: &DmaBuf,
dir: Dir,
) -> Result<VulkanBuffer, CopyDeviceError> {
assert!(class.buffer_possible);
let height = buf.height as u32;
let plane = &buf.planes[0];
let queue_family = self.dev.phy.queues[tt].family;
let buffer_size = plane.stride as u64 * height as u64;
let buffer = {
let buffer_usage_flags = match dir {
Dir::Src => BufferUsageFlags::TRANSFER_SRC,
Dir::Dst => BufferUsageFlags::TRANSFER_DST,
};
let mut external_info = ExternalMemoryBufferCreateInfoKHR::default()
.handle_types(ExternalMemoryHandleTypeFlags::DMA_BUF_EXT);
let info = BufferCreateInfo::default()
.size(buffer_size)
.usage(buffer_usage_flags)
.queue_family_indices(slice::from_ref(&queue_family))
.push_next(&mut external_info);
unsafe {
self.dev
.dev
.create_buffer(&info, None)
.map_err(CopyDeviceError::CreateBuffer)?
}
};
let destroy_buffer = on_drop(|| unsafe { self.dev.dev.destroy_buffer(buffer, None) });
let memory = {
let out = unsafe { self.dev.dev.get_buffer_memory_requirements(buffer) };
if out.size > buffer_size {
return Err(CopyDeviceError::UnexpectedBufferSize);
}
let memory_type_bits = class.fd_props[0].memory_type_bits & out.memory_type_bits;
if memory_type_bits == 0 {
return Err(CopyDeviceError::NoMemoryTypeForImport);
}
let fd = uapi::fcntl_dupfd_cloexec(plane.fd.raw(), 0)
.map_err(Into::into)
.map_err(CopyDeviceError::DupDmaBuf)?;
let mut dedicated_allocation = MemoryDedicatedAllocateInfo::default().buffer(buffer);
let mut external_memory = ImportMemoryFdInfoKHR::default()
.handle_type(ExternalMemoryHandleTypeFlags::DMA_BUF_EXT)
.fd(fd.raw());
let allocate_info = MemoryAllocateInfo::default()
.allocation_size(out.size)
.memory_type_index(memory_type_bits.trailing_zeros() as _)
.push_next(&mut external_memory)
.push_next(&mut dedicated_allocation);
let memory = unsafe {
self.dev
.dev
.allocate_memory(&allocate_info, None)
.map_err(CopyDeviceError::ImportMemory)?
};
let _ = fd.unwrap();
memory
};
let free_memory = on_drop(|| unsafe { self.dev.dev.free_memory(memory, None) });
unsafe {
self.dev
.dev
.bind_buffer_memory(buffer, memory, 0)
.map_err(CopyDeviceError::BindBufferMemory)?;
}
free_memory.forget();
destroy_buffer.forget();
Ok(VulkanBuffer {
dev: self.dev.clone(),
buf: buffer,
mem: memory,
})
}
fn import_image(
&self,
tt: TransferType,
class: &ClassifiedDmabuf,
buf: &DmaBuf,
dir: Dir,
) -> Result<VulkanImage, CopyDeviceError> {
let dev = &self.dev.dev;
let disjoint = buf.is_disjoint();
let queue_family = self.dev.phy.queues[tt].family;
let image = {
let image_create_flags = match disjoint {
true => ImageCreateFlags::DISJOINT,
false => ImageCreateFlags::empty(),
};
let image_usage_flags = match dir {
Dir::Src => ImageUsageFlags::TRANSFER_SRC,
Dir::Dst => ImageUsageFlags::TRANSFER_DST,
};
let plane_layouts: PlaneVec<_> = buf
.planes
.iter()
.map(|p| SubresourceLayout {
offset: p.offset as _,
row_pitch: p.stride as _,
size: 0,
array_pitch: 0,
depth_pitch: 0,
})
.collect();
let mut mod_info = ImageDrmFormatModifierExplicitCreateInfoEXT::default()
.drm_format_modifier(buf.modifier)
.plane_layouts(&plane_layouts);
let mut memory_image_create_info = ExternalMemoryImageCreateInfo::default()
.handle_types(ExternalMemoryHandleTypeFlags::DMA_BUF_EXT);
let info = ImageCreateInfo::default()
.flags(image_create_flags)
.image_type(ImageType::TYPE_2D)
.format(buf.format.vk_format)
.extent(Extent3D {
width: buf.width as _,
height: buf.height as _,
depth: 1,
})
.mip_levels(1)
.array_layers(1)
.samples(SampleCountFlags::TYPE_1)
.tiling(ImageTiling::DRM_FORMAT_MODIFIER_EXT)
.usage(image_usage_flags)
.sharing_mode(SharingMode::EXCLUSIVE)
.queue_family_indices(slice::from_ref(&queue_family))
.initial_layout(ImageLayout::UNDEFINED)
.push_next(&mut mod_info)
.push_next(&mut memory_image_create_info);
unsafe {
dev.create_image(&info, None)
.map_err(CopyDeviceError::CreateImage)?
}
};
let destroy_image = on_drop(|| unsafe { dev.destroy_image(image, None) });
let mut memories = PlaneVec::new();
let mut free_memories = PlaneVec::new();
{
let num_device_memories = match disjoint {
true => buf.planes.len(),
false => 1,
};
let mut bind_image_plane_memory_infos = PlaneVec::new();
for plane_idx in 0..num_device_memories {
let dma_buf_plane = &buf.planes[plane_idx];
let mut image_memory_requirements_info =
ImageMemoryRequirementsInfo2::default().image(image);
let mut image_plane_memory_requirements_info;
if disjoint {
let plane_aspect = match plane_idx {
0 => ImageAspectFlags::MEMORY_PLANE_0_EXT,
1 => ImageAspectFlags::MEMORY_PLANE_1_EXT,
2 => ImageAspectFlags::MEMORY_PLANE_2_EXT,
3 => ImageAspectFlags::MEMORY_PLANE_3_EXT,
_ => unreachable!(),
};
image_plane_memory_requirements_info =
ImagePlaneMemoryRequirementsInfo::default().plane_aspect(plane_aspect);
image_memory_requirements_info = image_memory_requirements_info
.push_next(&mut image_plane_memory_requirements_info);
bind_image_plane_memory_infos
.push(BindImagePlaneMemoryInfo::default().plane_aspect(plane_aspect));
}
let mut memory_requirements = MemoryRequirements2::default();
unsafe {
dev.get_image_memory_requirements2(
&image_memory_requirements_info,
&mut memory_requirements,
);
}
let memory_type_bits = memory_requirements.memory_requirements.memory_type_bits
& class.fd_props[plane_idx].memory_type_bits;
if memory_type_bits == 0 {
return Err(CopyDeviceError::NoMemoryTypeForImport);
}
let fd = uapi::fcntl_dupfd_cloexec(dma_buf_plane.fd.raw(), 0)
.map_err(Into::into)
.map_err(CopyDeviceError::DupDmaBuf)?;
let mut memory_dedicated_allocate_info =
MemoryDedicatedAllocateInfo::default().image(image);
let mut import_memory_fd_info = ImportMemoryFdInfoKHR::default()
.fd(fd.raw())
.handle_type(ExternalMemoryHandleTypeFlags::DMA_BUF_EXT);
let memory_allocate_info = MemoryAllocateInfo::default()
.allocation_size(memory_requirements.memory_requirements.size)
.memory_type_index(memory_type_bits.trailing_zeros() as _)
.push_next(&mut import_memory_fd_info)
.push_next(&mut memory_dedicated_allocate_info);
let device_memory = unsafe {
dev.allocate_memory(&memory_allocate_info, None)
.map_err(CopyDeviceError::ImportMemory)?
};
let _ = fd.unwrap();
memories.push(device_memory);
free_memories.push(on_drop(move || unsafe {
dev.free_memory(device_memory, None)
}));
}
let mut bind_image_memory_infos = PlaneVec::new();
let mut bind_image_plane_memory_infos = bind_image_plane_memory_infos.iter_mut();
for mem in memories.iter().copied() {
let mut info = BindImageMemoryInfo::default().image(image).memory(mem);
if disjoint {
info = info.push_next(bind_image_plane_memory_infos.next().unwrap());
}
bind_image_memory_infos.push(info);
}
unsafe {
dev.bind_image_memory2(&bind_image_memory_infos)
.map_err(CopyDeviceError::BindImageMemory)?;
}
}
free_memories.into_iter().for_each(|f| f.forget());
destroy_image.forget();
Ok(VulkanImage {
dev: self.dev.clone(),
img: image,
mem: memories,
})
}
pub fn create_copy(
self: &Rc<Self>,
src: &DmaBuf,
dst: &DmaBuf,
) -> Result<CopyDeviceCopy, CopyDeviceError> {
if (dst.width, dst.height) != (src.width, src.height) {
return Err(CopyDeviceError::NotSameSize);
}
let src_class = self.classify_dmabuf(src, Dir::Src)?;
let dst_class = self.classify_dmabuf(dst, Dir::Dst)?;
let blit = src.format != dst.format;
if blit && (!src_class.format.blit || !dst_class.format.blit) {
return Err(CopyDeviceError::BlitNotSupported);
}
let tt = match (src_class.on_device, dst_class.on_device) {
(false, false) => return Err(CopyDeviceError::BothOffDevice),
_ if blit => TransferType::Blit,
(false, true) => TransferType::Upload,
(true, false) => TransferType::Download,
(true, true) => TransferType::Intra,
};
let dev = &self.dev.dev;
let command_buffer = {
let info = CommandBufferAllocateInfo::default()
.command_pool(self.dev.pools[tt])
.command_buffer_count(1);
let mut buf = unsafe {
dev.allocate_command_buffers(&info)
.map_err(CopyDeviceError::CreateCommandBuffer)?
};
assert_eq!(buf.len(), 1);
buf.pop().unwrap()
};
let free_command_buffer =
on_drop(|| unsafe { dev.free_command_buffers(self.dev.pools[tt], &[command_buffer]) });
let ty = if blit {
CopyDeviceCopyType::Blit {
src: self.import_image(tt, &src_class, src, Dir::Src)?,
dst: self.import_image(tt, &dst_class, dst, Dir::Dst)?,
}
} else if !src_class.buffer_possible && !dst_class.buffer_possible {
CopyDeviceCopyType::ImageToImage {
src: self.import_image(tt, &src_class, src, Dir::Src)?,
dst: self.import_image(tt, &dst_class, dst, Dir::Dst)?,
}
} else if src_class.buffer_possible
&& dst_class.buffer_possible
&& src.planes[0].stride == dst.planes[0].stride
{
CopyDeviceCopyType::BufferToBuffer {
src: self.import_buffer(tt, &src_class, src, Dir::Src)?,
dst: self.import_buffer(tt, &dst_class, dst, Dir::Dst)?,
stride: src.planes[0].stride,
bpp: src.format.bpp,
}
} else if src_class.buffer_possible {
CopyDeviceCopyType::BufferToImage {
buf: self.import_buffer(tt, &src_class, src, Dir::Src)?,
buf_format: src.format,
buf_stride: src.planes[0].stride,
img: self.import_image(tt, &dst_class, dst, Dir::Dst)?,
}
} else {
CopyDeviceCopyType::ImageToBuffer {
img: self.import_image(tt, &src_class, src, Dir::Src)?,
buf: self.import_buffer(tt, &dst_class, dst, Dir::Dst)?,
buf_format: dst.format,
buf_stride: dst.planes[0].stride,
}
};
free_command_buffer.forget();
Ok(CopyDeviceCopy {
inner: Rc::new(CopyDeviceCopyInner {
dev: self.dev.clone(),
busy_id: Default::default(),
busy: Default::default(),
width: src.width as _,
height: src.height as _,
command_buffer,
tt,
ty,
}),
dev: self.clone(),
})
}
pub fn create_buffer(
&self,
dma_buf_ids: &DmaBufIds,
width: i32,
height: i32,
format: &'static Format,
) -> Result<CopyDeviceBuffer, CopyDeviceError> {
if !self.dev.phy.supports_dmabuf_export {
return Err(CopyDeviceError::NoDmabufExport);
}
if width <= 0 || height <= 0 {
return Err(CopyDeviceError::NonPositiveSize);
}
let stride = width as u32 * format.bpp as u32;
let Some(stride) = stride.checked_next_multiple_of(LINEAR_STRIDE_ALIGN as u32) else {
return Err(CopyDeviceError::SizeOverflow);
};
let Some(size) = (stride as u64).checked_mul(height as u64) else {
return Err(CopyDeviceError::SizeOverflow);
};
let dev = &self.dev.dev;
let buffer = {
let mut external_info = ExternalMemoryBufferCreateInfo::default()
.handle_types(ExternalMemoryHandleTypeFlags::DMA_BUF_EXT);
let info = BufferCreateInfo::default()
.size(size)
.usage(BufferUsageFlags::TRANSFER_SRC | BufferUsageFlags::TRANSFER_DST)
.sharing_mode(SharingMode::EXCLUSIVE)
.push_next(&mut external_info);
unsafe {
dev.create_buffer(&info, None)
.map_err(CopyDeviceError::CreateBuffer)?
}
};
let _destroy_buffer = on_drop(|| unsafe { dev.destroy_buffer(buffer, None) });
let memory = {
let memory_requirements = unsafe { dev.get_buffer_memory_requirements(buffer) };
let required_flags =
MemoryPropertyFlags::DEVICE_LOCAL | MemoryPropertyFlags::HOST_VISIBLE;
let index = 'index: {
for (idx, ty) in self.dev.phy.memory_types.iter().enumerate() {
if memory_requirements.memory_type_bits & (1 << idx) != 0
&& ty.property_flags.contains(required_flags)
{
break 'index idx;
}
}
return Err(CopyDeviceError::NoMemoryTypeForAllocation);
};
let mut dedicated_allocation = MemoryDedicatedAllocateInfo::default().buffer(buffer);
let mut external_memory = ExportMemoryAllocateInfo::default()
.handle_types(ExternalMemoryHandleTypeFlags::DMA_BUF_EXT);
let info = MemoryAllocateInfo::default()
.allocation_size(memory_requirements.size)
.memory_type_index(index as _)
.push_next(&mut external_memory)
.push_next(&mut dedicated_allocation);
unsafe {
dev.allocate_memory(&info, None)
.map_err(CopyDeviceError::AllocateMemory)?
}
};
let free_memory = on_drop(|| unsafe { dev.free_memory(memory, None) });
let fd = {
let info = MemoryGetFdInfoKHR::default()
.memory(memory)
.handle_type(ExternalMemoryHandleTypeFlags::DMA_BUF_EXT);
unsafe {
self.dev
.external_memory_fd
.get_memory_fd(&info)
.map_err(CopyDeviceError::ExportDmabuf)?
}
};
let fd = Rc::new(OwnedFd::new(fd));
let mut dmabuf = DmaBuf {
id: dma_buf_ids.next(),
width,
height,
format,
modifier: LINEAR_MODIFIER,
planes: Default::default(),
is_disjoint: Default::default(),
};
dmabuf.planes.push(DmaBufPlane {
offset: 0,
stride,
fd,
});
free_memory.forget();
Ok(CopyDeviceBuffer {
device: self.dev.clone(),
memory,
dmabuf,
})
}
}
impl CopyDeviceInner {
fn wait_idle(&self) {
log::warn!("Blocking");
let res = unsafe { self.dev.device_wait_idle() };
if let Err(e) = res {
log::error!("Could not wait for device idle: {}", ErrorFmt(e));
log::error!("This is unsound.");
}
for submissions in self.submissions.values() {
submissions.pending.clear();
}
}
fn create_semaphore(self: &Rc<Self>) -> Result<VulkanSemaphore, CopyDeviceError> {
let create_info = SemaphoreCreateInfo::default();
let semaphore = unsafe {
self.dev
.create_semaphore(&create_info, None)
.map_err(CopyDeviceError::CreateSemaphore)?
};
Ok(VulkanSemaphore {
dev: self.clone(),
semaphore,
})
}
}
impl CopyDeviceCopy {
fn ensure_not_busy(&self) -> Result<(), CopyDeviceError> {
let slf = &*self.inner;
if let Some(sync) = slf.busy.get()
&& sync.is_unsignaled()
{
return Err(CopyDeviceError::Busy);
}
slf.busy.take();
Ok(())
}
pub fn execute(
&self,
sync: Option<&FdSync>,
region: Option<&Region>,
) -> Result<Option<FdSync>, CopyDeviceError> {
self.ensure_not_busy()?;
let slf = &*self.inner;
let tt = slf.tt;
let dev = &slf.dev.dev;
let cmd = slf.command_buffer;
let queue_family = slf.dev.phy.queues[tt].family;
let region_buf;
let width = slf.width;
let height = slf.height;
let region = match region {
Some(r) => r,
_ => {
region_buf = Region::new(Rect::new_saturating(0, 0, width as i32, height as i32));
&region_buf
}
};
let (x_mask, y_mask) = slf.dev.phy.queues[tt].transfer_granularity_mask;
let rects = &mut *slf.dev.phy.rects.borrow_mut();
rects.clear();
for rect in region.iter() {
let x1 = (rect.x1().max(0) as u32 & !x_mask).min(width);
let y1 = (rect.y1().max(0) as u32 & !y_mask).min(height);
let x2 = ((rect.x2().max(0) as u32 + x_mask) & !x_mask).min(width);
let y2 = ((rect.y2().max(0) as u32 + y_mask) & !y_mask).min(height);
let width = x2 - x1;
let height = y2 - y1;
if width == 0 || height == 0 {
continue;
}
rects.push((x1 as i32, y1 as i32, width, height));
}
if rects.is_empty() {
return Ok(None);
}
let begin_info =
CommandBufferBeginInfo::default().flags(CommandBufferUsageFlags::ONE_TIME_SUBMIT);
unsafe {
dev.begin_command_buffer(cmd, &begin_info)
.map_err(CopyDeviceError::BeginCommandBuffer)?;
}
macro_rules! initial_buffer_barriers {
($($buf:expr, $access:expr;)*) => {
[$(
BufferMemoryBarrier2::default()
.dst_stage_mask(PipelineStageFlags2::TRANSFER)
.dst_access_mask($access)
.src_queue_family_index(QUEUE_FAMILY_FOREIGN_EXT)
.dst_queue_family_index(queue_family)
.buffer($buf.buf)
.size(WHOLE_SIZE),
)*]
};
}
macro_rules! final_buffer_barriers {
($($buf:expr, $access:expr;)*) => {
[$(
BufferMemoryBarrier2::default()
.src_stage_mask(PipelineStageFlags2::TRANSFER)
.src_access_mask($access)
.src_queue_family_index(queue_family)
.dst_queue_family_index(QUEUE_FAMILY_FOREIGN_EXT)
.buffer($buf.buf)
.size(WHOLE_SIZE),
)*]
};
}
let image_subresource_range = ImageSubresourceRange {
aspect_mask: ImageAspectFlags::COLOR,
base_mip_level: 0,
level_count: 1,
base_array_layer: 0,
layer_count: 1,
};
let image_subresource = ImageSubresourceLayers {
aspect_mask: ImageAspectFlags::COLOR,
mip_level: 0,
base_array_layer: 0,
layer_count: 1,
};
macro_rules! initial_image_barriers {
($($img:expr, $layout:expr, $access:expr;)*) => {
[$(
ImageMemoryBarrier2::default()
.dst_stage_mask(PipelineStageFlags2::TRANSFER)
.dst_access_mask($access)
.old_layout(ImageLayout::GENERAL)
.new_layout(ImageLayout::GENERAL)
.src_queue_family_index(QUEUE_FAMILY_FOREIGN_EXT)
.dst_queue_family_index(queue_family)
.image($img.img)
.subresource_range(image_subresource_range),
ImageMemoryBarrier2::default()
.src_stage_mask(PipelineStageFlags2::TRANSFER)
.src_access_mask($access)
.dst_stage_mask(PipelineStageFlags2::TRANSFER)
.dst_access_mask($access)
.old_layout(ImageLayout::GENERAL)
.new_layout($layout)
.src_queue_family_index(queue_family)
.dst_queue_family_index(queue_family)
.image($img.img)
.subresource_range(image_subresource_range),
)*]
};
}
macro_rules! final_image_barriers {
($($img:expr, $layout:expr, $access:expr;)*) => {
[$(
ImageMemoryBarrier2::default()
.src_stage_mask(PipelineStageFlags2::TRANSFER)
.src_access_mask($access)
.dst_stage_mask(PipelineStageFlags2::TRANSFER)
.dst_access_mask($access)
.old_layout($layout)
.new_layout(ImageLayout::GENERAL)
.src_queue_family_index(queue_family)
.dst_queue_family_index(queue_family)
.image($img.img)
.subresource_range(image_subresource_range),
ImageMemoryBarrier2::default()
.src_stage_mask(PipelineStageFlags2::TRANSFER)
.src_access_mask($access)
.old_layout(ImageLayout::GENERAL)
.new_layout(ImageLayout::GENERAL)
.src_queue_family_index(queue_family)
.dst_queue_family_index(QUEUE_FAMILY_FOREIGN_EXT)
.image($img.img)
.subresource_range(image_subresource_range),
)*]
};
}
match &slf.ty {
CopyDeviceCopyType::BufferToBuffer {
src,
dst,
stride,
bpp,
} => {
let regions = &mut *slf.dev.phy.buffer_copy_2.borrow_mut();
regions.clear();
let stride = *stride as u64;
let bpp = *bpp as u64;
for &mut (x, y, width, height) in rects {
let lo = y as u64 * stride + x as u64 * bpp;
let size = (height as u64 - 1) * stride + width as u64 * bpp;
let region = BufferCopy2::default()
.src_offset(lo)
.dst_offset(lo)
.size(size);
regions.push(region);
}
use AccessFlags2 as A;
let initial_barriers = initial_buffer_barriers![
src, A::TRANSFER_READ;
dst, A::TRANSFER_WRITE;
];
let final_barriers = final_buffer_barriers![
src, A::TRANSFER_READ;
dst, A::TRANSFER_WRITE;
];
let initial_dependency_info =
DependencyInfo::default().buffer_memory_barriers(&initial_barriers);
let final_dependency_info =
DependencyInfo::default().buffer_memory_barriers(&final_barriers);
let copy_buffer_info = CopyBufferInfo2::default()
.src_buffer(src.buf)
.dst_buffer(dst.buf)
.regions(regions);
unsafe {
dev.cmd_pipeline_barrier2(cmd, &initial_dependency_info);
dev.cmd_copy_buffer2(cmd, &copy_buffer_info);
dev.cmd_pipeline_barrier2(cmd, &final_dependency_info);
}
}
CopyDeviceCopyType::BufferToImage {
buf,
buf_format,
buf_stride,
img,
}
| CopyDeviceCopyType::ImageToBuffer {
img,
buf,
buf_format,
buf_stride,
} => {
let regions = &mut *slf.dev.phy.buffer_image_copy_2.borrow_mut();
regions.clear();
for &mut (x, y, width, height) in rects {
let offset = y as u64 * *buf_stride as u64 + x as u64 * buf_format.bpp as u64;
let region = BufferImageCopy2::default()
.buffer_offset(offset)
.buffer_row_length(*buf_stride / buf_format.bpp)
.buffer_image_height(slf.height)
.image_subresource(image_subresource)
.image_offset(Offset3D { x, y, z: 0 })
.image_extent(Extent3D {
width,
height,
depth: 1,
});
regions.push(region);
}
let buffer_to_image = match &slf.ty {
CopyDeviceCopyType::BufferToImage { .. } => true,
CopyDeviceCopyType::ImageToBuffer { .. } => false,
_ => unreachable!(),
};
let image_access_mask;
let image_layout;
let buffer_access_mask;
match buffer_to_image {
true => {
image_access_mask = AccessFlags2::TRANSFER_WRITE;
image_layout = ImageLayout::TRANSFER_DST_OPTIMAL;
buffer_access_mask = AccessFlags2::TRANSFER_READ;
}
false => {
image_access_mask = AccessFlags2::TRANSFER_READ;
image_layout = ImageLayout::TRANSFER_SRC_OPTIMAL;
buffer_access_mask = AccessFlags2::TRANSFER_WRITE;
}
}
let initial_image_barriers = initial_image_barriers![
img, image_layout, image_access_mask;
];
let final_image_barriers = final_image_barriers![
img, image_layout, image_access_mask;
];
let initial_buffer_barriers = initial_buffer_barriers![
buf, buffer_access_mask;
];
let final_buffer_barriers = final_buffer_barriers![
buf, buffer_access_mask;
];
let initial_dependency_info = DependencyInfo::default()
.buffer_memory_barriers(&initial_buffer_barriers)
.image_memory_barriers(&initial_image_barriers);
let final_dependency_info = DependencyInfo::default()
.buffer_memory_barriers(&final_buffer_barriers)
.image_memory_barriers(&final_image_barriers);
unsafe {
dev.cmd_pipeline_barrier2(cmd, &initial_dependency_info);
match buffer_to_image {
true => {
let copy = CopyBufferToImageInfo2::default()
.src_buffer(buf.buf)
.dst_image(img.img)
.dst_image_layout(image_layout)
.regions(&regions);
dev.cmd_copy_buffer_to_image2(cmd, &copy);
}
false => {
let copy = CopyImageToBufferInfo2::default()
.src_image(img.img)
.src_image_layout(image_layout)
.dst_buffer(buf.buf)
.regions(&regions);
dev.cmd_copy_image_to_buffer2(cmd, &copy);
}
}
dev.cmd_pipeline_barrier2(cmd, &final_dependency_info);
}
}
CopyDeviceCopyType::ImageToImage { src, dst } => {
let regions = &mut *slf.dev.phy.image_copy_2.borrow_mut();
regions.clear();
for &mut (x, y, width, height) in rects {
let region = ImageCopy2::default()
.src_subresource(image_subresource)
.src_offset(Offset3D { x, y, z: 0 })
.dst_subresource(image_subresource)
.dst_offset(Offset3D { x, y, z: 0 })
.extent(Extent3D {
width,
height,
depth: 1,
});
regions.push(region);
}
use {AccessFlags2 as A, ImageLayout as L};
let initial_barriers = initial_image_barriers![
src, L::TRANSFER_SRC_OPTIMAL, A::TRANSFER_READ;
dst, L::TRANSFER_DST_OPTIMAL, A::TRANSFER_WRITE;
];
let final_barriers = final_image_barriers![
src, L::TRANSFER_SRC_OPTIMAL, A::TRANSFER_READ;
dst, L::TRANSFER_DST_OPTIMAL, A::TRANSFER_WRITE;
];
let initial_dependency_info =
DependencyInfo::default().image_memory_barriers(&initial_barriers);
let final_dependency_info =
DependencyInfo::default().image_memory_barriers(&final_barriers);
let copy_image_info = CopyImageInfo2::default()
.src_image(src.img)
.src_image_layout(L::TRANSFER_SRC_OPTIMAL)
.dst_image(dst.img)
.dst_image_layout(L::TRANSFER_DST_OPTIMAL)
.regions(regions);
unsafe {
dev.cmd_pipeline_barrier2(cmd, &initial_dependency_info);
dev.cmd_copy_image2(cmd, &copy_image_info);
dev.cmd_pipeline_barrier2(cmd, &final_dependency_info);
}
}
CopyDeviceCopyType::Blit { src, dst } => {
let regions = &mut *slf.dev.phy.image_blit_2.borrow_mut();
regions.clear();
for &mut (x, y, width, height) in rects {
let x1 = x;
let y1 = y;
let x2 = x1 + width as i32;
let y2 = y1 + height as i32;
let offsets = [
Offset3D { x: x1, y: y1, z: 0 },
Offset3D { x: x2, y: y2, z: 1 },
];
let region = ImageBlit2::default()
.src_subresource(image_subresource)
.src_offsets(offsets)
.dst_subresource(image_subresource)
.dst_offsets(offsets);
regions.push(region);
}
use {AccessFlags2 as A, ImageLayout as L};
let initial_barriers = initial_image_barriers![
src, L::TRANSFER_SRC_OPTIMAL, A::TRANSFER_READ;
dst, L::TRANSFER_DST_OPTIMAL, A::TRANSFER_WRITE;
];
let final_barriers = final_image_barriers![
src, L::TRANSFER_SRC_OPTIMAL, A::TRANSFER_READ;
dst, L::TRANSFER_DST_OPTIMAL, A::TRANSFER_WRITE;
];
let initial_dependency_info =
DependencyInfo::default().image_memory_barriers(&initial_barriers);
let final_dependency_info =
DependencyInfo::default().image_memory_barriers(&final_barriers);
let blit_image_info = BlitImageInfo2::default()
.src_image(src.img)
.src_image_layout(L::TRANSFER_SRC_OPTIMAL)
.dst_image(dst.img)
.dst_image_layout(L::TRANSFER_DST_OPTIMAL)
.regions(regions)
.filter(Filter::NEAREST);
unsafe {
dev.cmd_pipeline_barrier2(cmd, &initial_dependency_info);
dev.cmd_blit_image2(cmd, &blit_image_info);
dev.cmd_pipeline_barrier2(cmd, &final_dependency_info);
}
}
};
unsafe {
dev.end_command_buffer(cmd)
.map_err(CopyDeviceError::EndCommandBuffer)?;
}
let mut wait_semaphore = None;
let mut wait_semaphores = ArrayVec::<_, 1>::new();
if let Some(sync) = sync
&& let Some(sync_file) = sync.get_sync_file()
{
let semaphore = match slf.dev.semaphores.pop() {
Some(s) => s,
_ => slf.dev.create_semaphore()?,
};
semaphore.import(sync_file)?;
let info = SemaphoreSubmitInfo::default()
.semaphore(semaphore.semaphore)
.stage_mask(PipelineStageFlags2::TRANSFER);
wait_semaphores.push(info);
wait_semaphore = Some(semaphore);
}
let command_buffer_info = CommandBufferSubmitInfo::default().command_buffer(cmd);
let mut semaphore_submit_info = SemaphoreSubmitInfo::default();
let mut submit_info = SubmitInfo2::default()
.command_buffer_infos(slice::from_ref(&command_buffer_info))
.wait_semaphore_infos(&wait_semaphores);
let vulkan_sync = slf.dev.create_sync(
self.dev.timeline_semaphore.as_ref(),
&mut semaphore_submit_info,
&mut submit_info,
)?;
unsafe {
slf.dev
.dev
.queue_submit2(
slf.dev.queues[tt],
slice::from_ref(&submit_info),
vulkan_sync.fence(),
)
.map_err(CopyDeviceError::SubmitCopy)?;
}
let sync = vulkan_sync.to_sync(|| slf.dev.wait_idle());
slf.busy.set(sync.clone());
let pending = Pending {
dev: slf.dev.clone(),
busy_id: slf.busy_id.add_fetch(1),
sync: sync.clone(),
copy: self.inner.clone(),
semaphore: wait_semaphore,
vulkan_sync,
};
slf.dev.submissions[tt].pending.push(pending);
Ok(sync)
}
}
impl VulkanSemaphore {
fn import(&self, sync_file: &OwnedFd) -> Result<(), CopyDeviceError> {
let fd = uapi::fcntl_dupfd_cloexec(sync_file.raw(), 0)
.map_err(Into::into)
.map_err(CopyDeviceError::DupSyncFile)?;
let info = ImportSemaphoreFdInfoKHR::default()
.flags(SemaphoreImportFlags::TEMPORARY)
.semaphore(self.semaphore)
.handle_type(ExternalSemaphoreHandleTypeFlags::SYNC_FD)
.fd(fd.raw());
unsafe {
self.dev
.external_semaphore_fd
.import_semaphore_fd(&info)
.map_err(CopyDeviceError::ImportSyncFile)?;
}
let _ = fd.unwrap();
Ok(())
}
}
impl CopyDeviceRegistry {
pub fn new(
ring: &Rc<IoUring>,
eng: &Rc<AsyncEngine>,
eventfd_cache: &Rc<EventfdCache>,
) -> Self {
Self {
ring: ring.clone(),
eng: eng.clone(),
eventfd_cache: eventfd_cache.clone(),
devs: Default::default(),
}
}
pub fn remove(&self, dev: c::dev_t) {
self.devs.remove(&dev);
}
pub fn get(&self, dev: c::dev_t) -> Option<Rc<PhysicalCopyDevice>> {
if let Some(dev) = self.devs.get(&dev) {
return dev;
}
match PhysicalCopyDevice::new(&self.ring, &self.eng, &self.eventfd_cache, dev).map(Some) {
Ok(cd) => {
self.devs.set(dev, cd.clone());
cd
}
Err(e) => {
let maj = uapi::major(dev);
let min = uapi::minor(dev);
log::warn!(
"Could not create physical copy device for {maj}:{min}: {}",
ErrorFmt(e),
);
self.devs.set(dev, None);
None
}
}
}
}
impl Drop for VulkanSemaphore {
fn drop(&mut self) {
unsafe {
self.dev.dev.destroy_semaphore(self.semaphore, None);
}
}
}
impl Drop for CopyDeviceCopyInner {
fn drop(&mut self) {
unsafe {
self.dev.dev.free_command_buffers(
self.dev.pools[self.tt],
slice::from_ref(&self.command_buffer),
);
}
}
}
impl Drop for CopyDeviceInner {
fn drop(&mut self) {
unsafe {
for &pool in &self.unique_pools {
self.dev.destroy_command_pool(pool, None);
}
self.dev.destroy_device(None);
}
}
}
impl Drop for CopyDevice {
fn drop(&mut self) {
let dev = &self.dev;
let has_pending = dev
.submissions
.values()
.any(|s| s.task_has_pending.get() || s.pending.is_not_empty());
if has_pending {
dev.wait_idle();
}
dev.semaphores.take();
dev.fences.take();
}
}
impl Drop for Pending {
fn drop(&mut self) {
if let Some(v) = self.semaphore.take() {
self.dev.semaphores.push(v);
}
if self.copy.busy_id.get() == self.busy_id {
self.copy.busy.take();
}
}
}
impl CopyDeviceBuffer {
pub fn dmabuf(&self) -> &DmaBuf {
&self.dmabuf
}
}
impl Drop for CopyDeviceBuffer {
fn drop(&mut self) {
unsafe {
self.device.dev.free_memory(self.memory, None);
}
}
}
impl Debug for CopyDeviceBuffer {
fn fmt(&self, f: &mut Formatter<'_>) -> std::fmt::Result {
f.debug_struct("CopyDeviceBuffer").finish_non_exhaustive()
}
}
impl Debug for PhysicalCopyDevice {
fn fmt(&self, f: &mut Formatter<'_>) -> std::fmt::Result {
f.debug_struct("PhysicalCopyDevice").finish_non_exhaustive()
}
}
impl Debug for CopyDevice {
fn fmt(&self, f: &mut Formatter<'_>) -> std::fmt::Result {
f.debug_struct("CopyDevice").finish_non_exhaustive()
}
}
impl Debug for CopyDeviceCopy {
fn fmt(&self, f: &mut Formatter<'_>) -> std::fmt::Result {
f.debug_struct("CopyDeviceCopy").finish_non_exhaustive()
}
}
impl Drop for VulkanBuffer {
fn drop(&mut self) {
let dev = &self.dev.dev;
unsafe {
dev.destroy_buffer(self.buf, None);
dev.free_memory(self.mem, None);
}
}
}
impl Drop for VulkanImage {
fn drop(&mut self) {
let dev = &self.dev.dev;
unsafe {
dev.destroy_image(self.img, None);
for &mem in &self.mem {
dev.free_memory(mem, None);
}
}
}
}
impl Deref for CopyDevice {
type Target = Rc<PhysicalCopyDevice>;
fn deref(&self) -> &Self::Target {
&self.dev.phy
}
}
type QueueInfo = (u32, (u32, u32), u32);
fn allocate_queues(
gfx: QueueInfo,
compute_only: Option<QueueInfo>,
transfer_only: Option<QueueInfo>,
) -> (Vec<QueueToAllocate>, KeyedCopy<QueueIndex>) {
let intra = compute_only.unwrap_or(gfx);
let cross = transfer_only.unwrap_or(intra);
let mut distinct_families = AHashSet::default();
distinct_families.insert(cross);
distinct_families.insert(intra);
distinct_families.insert(gfx);
let mut queues_to_allocate = vec![];
macro_rules! index {
($qi:expr, $within:expr) => {
QueueIndex {
allocate_idx: queues_to_allocate.len(),
family: $qi.0,
idx_within_family: $within as u32,
transfer_granularity_mask: $qi.1,
}
};
}
macro_rules! alloc {
($qi:expr, $num:expr) => {
QueueToAllocate {
family: $qi.0,
num: $num as usize,
}
};
}
let (blit, intra_idx, download, upload);
if distinct_families.len() == 3 {
let num_cross = cross.2.min(2) as usize;
blit = index!(gfx, 0);
queues_to_allocate.push(alloc!(gfx, 1));
intra_idx = index!(intra, 0);
queues_to_allocate.push(alloc!(intra, 1));
download = index!(cross, 0);
upload = index!(cross, num_cross - 1);
queues_to_allocate.push(alloc!(cross, num_cross));
} else if distinct_families.len() == 1 {
let qi = cross;
let num = qi.2.min(4);
match num {
1 => {
blit = index!(qi, 0);
intra_idx = index!(qi, 0);
download = index!(qi, 0);
upload = index!(qi, 0);
}
2 => {
blit = index!(qi, 0);
intra_idx = index!(qi, 0);
download = index!(qi, 0);
upload = index!(qi, 1);
}
3 => {
blit = index!(qi, 0);
intra_idx = index!(qi, 0);
download = index!(qi, 1);
upload = index!(qi, 2);
}
4 => {
blit = index!(qi, 0);
intra_idx = index!(qi, 1);
download = index!(qi, 2);
upload = index!(qi, 3);
}
_ => unreachable!(),
}
queues_to_allocate.push(alloc!(qi, num));
} else {
if gfx == intra {
let num_gfx = gfx.2.min(2);
blit = index!(gfx, 0);
intra_idx = index!(gfx, num_gfx - 1);
queues_to_allocate.push(alloc!(gfx, num_gfx));
let num_cross = cross.2.min(2);
download = index!(cross, 0);
upload = index!(cross, num_cross - 1);
queues_to_allocate.push(alloc!(cross, num_cross));
} else {
// if cross == gfx then intra == gfx
assert_eq!(intra, cross);
blit = index!(gfx, 0);
queues_to_allocate.push(alloc!(gfx, 1));
let num_intra = intra.2.min(3);
match num_intra {
1 => {
intra_idx = index!(intra, 0);
download = index!(intra, 0);
upload = index!(intra, 0);
}
2 => {
intra_idx = index!(intra, 0);
download = index!(intra, 0);
upload = index!(intra, 1);
}
3 => {
intra_idx = index!(intra, 0);
download = index!(intra, 1);
upload = index!(intra, 2);
}
_ => unreachable!(),
}
queues_to_allocate.push(alloc!(intra, num_intra));
}
}
let queue_indices = static_copy_map! {
TransferType::Blit => blit,
TransferType::Intra => intra_idx,
TransferType::Download => download,
TransferType::Upload => upload,
};
(queues_to_allocate, queue_indices)
}
impl VulkanDeviceInf for CopyDeviceInner {
fn instance(&self) -> &VulkanCoreInstance {
&self.phy.instance
}
fn device(&self) -> &Device {
&self.dev
}
fn external_fence_fd(&self) -> &external_fence_fd::Device {
&self.external_fence_fd
}
fn external_semaphore_fd(&self) -> &external_semaphore_fd::Device {
&self.external_semaphore_fd
}
fn supports_timeline_opaque_export(&self) -> bool {
self.phy.supports_timeline_opaque_export
}
fn sync_ctx(&self) -> &Rc<SyncobjCtx> {
&self.phy.sync_ctx
}
fn eventfd_cache(&self) -> &Rc<EventfdCache> {
&self.phy.eventfd_cache
}
}