/* * Copyright (C) 2008 VMware, Inc. * Copyright (C) 2012 Rob Clark * Copyright (C) 2014-2017 Broadcom * Copyright (C) 2018-2019 Alyssa Rosenzweig * Copyright (C) 2019 Collabora, Ltd. * Copyright (C) 2023 Amazon.com, Inc. or its affiliates * * Permission is hereby granted, free of charge, to any person obtaining a * copy of this software and associated documentation files (the "Software"), * to deal in the Software without restriction, including without limitation * the rights to use, copy, modify, merge, publish, distribute, sublicense, * and/or sell copies of the Software, and to permit persons to whom the * Software is furnished to do so, subject to the following conditions: * * The above copyright notice and this permission notice (including the next * paragraph) shall be included in all copies or substantial portions of the * Software. * * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR * IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL * THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER * LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, * OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE * SOFTWARE. * * Authors (Collabora): * Tomeu Vizoso * Alyssa Rosenzweig * */ #include #include #include "drm-uapi/drm_fourcc.h" #include "frontend/winsys_handle.h" #include "util/format/u_format.h" #include "util/u_debug_image.h" #include "util/u_drm.h" #include "util/u_gen_mipmap.h" #include "util/u_memory.h" #include "util/u_resource.h" #include "util/u_surface.h" #include "util/u_transfer.h" #include "util/u_transfer_helper.h" #include "util/perf/cpu_trace.h" #include "util/streaming-load-memcpy.h" #include "decode.h" #include "pan_afbc.h" #include "pan_afrc.h" #include "pan_bo.h" #include "pan_context.h" #include "pan_resource.h" #include "pan_screen.h" #include "pan_tiling.h" #include "pan_util.h" static void panfrost_clear_depth_stencil(struct pipe_context *pipe, struct pipe_surface *dst, unsigned clear_flags, double depth, unsigned stencil, unsigned dstx, unsigned dsty, unsigned width, unsigned height, bool render_condition_enabled) { struct panfrost_context *ctx = pan_context(pipe); if (render_condition_enabled && !panfrost_render_condition_check(ctx)) return; /* Legalize here because it could trigger a recursive blit otherwise */ struct panfrost_resource *rdst = pan_resource(dst->texture); enum pipe_format dst_view_format = util_format_linear(dst->format); pan_legalize_format(ctx, rdst, dst_view_format, true, false); panfrost_blitter_save( ctx, render_condition_enabled ? PAN_RENDER_COND : PAN_RENDER_BASE); util_blitter_clear_depth_stencil(ctx->blitter, dst, clear_flags, depth, stencil, dstx, dsty, width, height); } static void panfrost_clear_render_target(struct pipe_context *pipe, struct pipe_surface *dst, const union pipe_color_union *color, unsigned dstx, unsigned dsty, unsigned width, unsigned height, bool render_condition_enabled) { struct panfrost_context *ctx = pan_context(pipe); if (render_condition_enabled && !panfrost_render_condition_check(ctx)) return; /* Legalize here because it could trigger a recursive blit otherwise */ struct panfrost_resource *rdst = pan_resource(dst->texture); enum pipe_format dst_view_format = util_format_linear(dst->format); pan_legalize_format(ctx, rdst, dst_view_format, true, false); panfrost_blitter_save( ctx, (render_condition_enabled ? PAN_RENDER_COND : PAN_RENDER_BASE) | PAN_SAVE_FRAGMENT_CONSTANT); util_blitter_clear_render_target(ctx->blitter, dst, color, dstx, dsty, width, height); } static bool panfrost_resource_init_image( struct pipe_screen *screen, struct panfrost_resource *rsc, const struct pan_image_props *iprops, unsigned plane_idx, const struct pan_image_layout_constraints *explicit_layout) { struct panfrost_device *dev = pan_device(screen); const unsigned format_plane_count = util_format_get_num_planes(iprops->format); /* Some planar formats are lowered by the frontend, assume each plane is * independent in that case. */ if (format_plane_count == 1) plane_idx = 0; rsc->image = (struct pan_image){ .mod_handler = pan_mod_get_handler(dev->arch, iprops->modifier), .props = *iprops, }; rsc->image.planes[plane_idx] = &rsc->plane; if (!pan_image_layout_init(dev->arch, &rsc->image, plane_idx, explicit_layout)) return false; /* The rest of the resource planes will be initialized when we hit the first * plane. */ if (plane_idx > 0 || format_plane_count == 1) return true; plane_idx = 1; for (struct panfrost_resource *plane = pan_resource(rsc->base.next); plane && plane_idx < ARRAY_SIZE(rsc->image.planes); plane = pan_resource(plane->base.next)) rsc->image.planes[plane_idx++] = &plane->plane; assert(plane_idx == util_format_get_num_planes(iprops->format)); plane_idx = 1; for (struct panfrost_resource *plane = pan_resource(rsc->base.next); plane; plane = pan_resource(plane->base.next)) { memcpy(plane->image.planes, rsc->image.planes, plane_idx * sizeof(plane->image.planes[0])); } return true; } static bool adjust_mtk_tiled_props(struct panfrost_resource *rsc, struct pan_image_props *iprops, unsigned plane_idx, struct pan_image_layout_constraints *explicit_layout) { bool is_uv_plane = iprops->format == PIPE_FORMAT_R8G8_UNORM || (iprops->format == PIPE_FORMAT_R8_G8B8_420_UNORM && plane_idx > 0); unsigned tile_w_px, tile_h_px, blksz_B; if (is_uv_plane) { tile_w_px = 8; tile_h_px = 16; blksz_B = 2; iprops->format = PIPE_FORMAT_R8G8_UNORM; } else { tile_w_px = 16; tile_h_px = 32; blksz_B = 1; iprops->format = PIPE_FORMAT_R8_UNORM; } /* SW detiling on MTK_TILED resources. This forces us to treat such * resources as linear images with: * width = tile_width * tile_height * height = (wsi_row_stride / (tile_width * blksize)) * (height / * tile_height) */ iprops->extent_px.width = tile_w_px * tile_h_px; iprops->extent_px.height = (explicit_layout->wsi_row_pitch_B / (blksz_B * tile_w_px)) * DIV_ROUND_UP(rsc->base.height0, tile_h_px); /* Reject the import if the pitch is not aligned on a tile or if it's not * covering the resource width. */ unsigned min_row_pitch_B = rsc->base.width0 * blksz_B; unsigned row_pitch_align_req_B = blksz_B * tile_w_px; if (explicit_layout->strict && (explicit_layout->wsi_row_pitch_B % row_pitch_align_req_B != 0 || explicit_layout->wsi_row_pitch_B < min_row_pitch_B)) return false; /* Now adjust the row pitch. */ explicit_layout->wsi_row_pitch_B = iprops->extent_px.width * blksz_B; return true; } static void pan_resource_afbcp_restart(struct panfrost_resource *prsrc) { assert(prsrc->base.array_size == 1); if (!prsrc->afbcp) { prsrc->afbcp = calloc(1, sizeof(struct pan_afbcp)); return; } if (prsrc->afbcp->layout_bo) { panfrost_bo_unreference(prsrc->afbcp->layout_bo); prsrc->afbcp->layout_bo = NULL; } if (prsrc->afbcp->packed_bo) { panfrost_bo_unreference(prsrc->afbcp->packed_bo); prsrc->afbcp->packed_bo = NULL; } prsrc->afbcp->size = 0; prsrc->afbcp->ratio = 0.0f; prsrc->afbcp->nr_consecutive_reads = 0; } static void pan_resource_afbcp_stop(struct panfrost_resource *prsrc) { if (!prsrc->afbcp) return; if (prsrc->afbcp->layout_bo) panfrost_bo_unreference(prsrc->afbcp->layout_bo); if (prsrc->afbcp->packed_bo) panfrost_bo_unreference(prsrc->afbcp->packed_bo); free(prsrc->afbcp); prsrc->afbcp = NULL; } static void panfrost_resource_destroy(struct pipe_screen *screen, struct pipe_resource *pt) { MESA_TRACE_FUNC(); struct panfrost_device *dev = pan_device(screen); struct panfrost_resource *rsrc = (struct panfrost_resource *)pt; if (rsrc->scanout) renderonly_scanout_destroy(rsrc->scanout, dev->ro); if (rsrc->shadow_image) pipe_resource_reference( (struct pipe_resource **)&rsrc->shadow_image, NULL); if (rsrc->bo) { if (rsrc->owns_label) { /* The resource owns the label, which it dynamically allocated, so * it is safe to discard the const qualifier */ char *rsrc_label = (char *)panfrost_bo_replace_label(rsrc->bo, "Destroyed resource", false); free(rsrc_label); } panfrost_bo_unreference(rsrc->bo); } pan_resource_afbcp_stop(rsrc); free(rsrc->index_cache); free(rsrc->damage.tile_map.data); util_range_destroy(&rsrc->valid_buffer_range); free(rsrc); } static int panfrost_resource_import_bo(struct panfrost_resource *rsc, struct panfrost_device *dev, int fd) { if (!rsc) return -1; rsc->owns_label = false; rsc->bo = panfrost_bo_import(dev, fd); if (!rsc->bo) return -1; return 0; } static const char * panfrost_resource_type_str(struct panfrost_resource *rsrc) { /* Guess a label based on the bind */ unsigned bind = rsrc->base.bind; const char *type = (bind & PIPE_BIND_INDEX_BUFFER) ? "Index buffer" : (bind & PIPE_BIND_SCANOUT) ? "Scanout" : (bind & PIPE_BIND_DISPLAY_TARGET) ? "Display target" : (bind & PIPE_BIND_SHARED) ? "Shared resource" : (bind & PIPE_BIND_RENDER_TARGET) ? "Render target" : (bind & PIPE_BIND_DEPTH_STENCIL) ? "Depth/stencil buffer" : (bind & PIPE_BIND_SAMPLER_VIEW) ? "Texture" : (bind & PIPE_BIND_VERTEX_BUFFER) ? "Vertex buffer" : (bind & PIPE_BIND_CONSTANT_BUFFER) ? "Constant buffer" : (bind & PIPE_BIND_GLOBAL) ? "Global memory" : (bind & PIPE_BIND_SHADER_BUFFER) ? "Shader buffer" : (bind & PIPE_BIND_SHADER_IMAGE) ? "Shader image" : "Other resource"; return type; } static char * panfrost_resource_new_label(struct panfrost_resource *rsrc, uint64_t modifier, const char *user_label) { char *new_label = NULL; asprintf(&new_label, "%s format=%s extent=%ux%ux%u array_size=%u mip_count=%u samples=%u modifier=0x%"PRIx64"%s%s", panfrost_resource_type_str(rsrc), util_format_short_name(rsrc->base.format), rsrc->base.width0, rsrc->base.height0, rsrc->base.depth0, rsrc->base.array_size, rsrc->base.last_level, rsrc->base.nr_storage_samples, modifier, user_label ? " user_label=" : "", user_label ? : ""); return new_label; } static bool strict_import(struct panfrost_device *dev, uint64_t mod, enum pipe_format format) { if (dev->debug & PAN_DBG_STRICT_IMPORT) return true; /* AFBC(YUV) has been introduced after the stricter import rules, let's * make them strict by default. */ if (drm_is_afbc(mod) && pan_format_is_yuv(format) && !dev->relaxed_afbc_yuv_imports) return true; /* Linear and u-tiled imports have always been strict. The only ones that * were lax are AFBC, AFRC and MTK_TILED. Make sure we encourage new * modifiers to enforce strict rules by default. */ return !(drm_is_afbc(mod) || drm_is_afrc(mod) || drm_is_mtk_tiled(mod)); } static struct pipe_resource * panfrost_resource_from_handle(struct pipe_screen *pscreen, const struct pipe_resource *templat, struct winsys_handle *whandle, unsigned usage) { struct panfrost_device *dev = pan_device(pscreen); struct panfrost_resource *rsc; struct pipe_resource *prsc; assert(whandle->type == WINSYS_HANDLE_TYPE_FD); rsc = CALLOC_STRUCT(panfrost_resource); if (!rsc) return NULL; prsc = &rsc->base; *prsc = *templat; pipe_reference_init(&prsc->reference, 1); util_range_init(&rsc->valid_buffer_range); prsc->screen = pscreen; uint64_t mod = whandle->modifier == DRM_FORMAT_MOD_INVALID ? DRM_FORMAT_MOD_LINEAR : whandle->modifier; enum mali_texture_dimension dim = panfrost_translate_texture_dimension(templat->target); struct pan_image_layout_constraints explicit_layout = { .offset_B = whandle->offset, .wsi_row_pitch_B = whandle->stride, .strict = strict_import(dev, mod, templat->format), }; rsc->modifier = mod; bool h_subsamp = util_format_get_plane_width(templat->format, whandle->plane, 2) == 1; bool v_subsamp = util_format_get_plane_height(templat->format, whandle->plane, 2) == 1; struct pan_image_props iprops = { /* pan_layout doesn't know about MTK modifiers, so make it * linear before calling pan_image_layout_init(). */ .modifier = panfrost_is_emulated_mod(mod) ? DRM_FORMAT_MOD_LINEAR : mod, .format = templat->format, .dim = dim, .extent_px = { /* pan_layout_init() wants the property of the full image, not the * plane, but pipe_resource encodes the properties of the plane. * We need to adjust the width/height according to the subsampling * properties. */ .width = prsc->width0 * (h_subsamp ? 2 : 1), .height = prsc->height0 * (v_subsamp ? 2 : 1), .depth = prsc->depth0, }, .array_size = prsc->array_size, .nr_samples = MAX2(prsc->nr_samples, 1), .nr_slices = 1, }; if (drm_is_mtk_tiled(mod) && !adjust_mtk_tiled_props(rsc, &iprops, whandle->plane, &explicit_layout)) { panfrost_resource_destroy(pscreen, &rsc->base); return NULL; } bool valid = panfrost_resource_init_image(pscreen, rsc, &iprops, whandle->plane, &explicit_layout); if (!valid) { panfrost_resource_destroy(pscreen, &rsc->base); return NULL; } int ret = panfrost_resource_import_bo(rsc, dev, whandle->handle); /* Sometimes an import can fail e.g. on an invalid buffer fd, out of * memory space to mmap it etc. */ if (ret) { panfrost_resource_destroy(pscreen, &rsc->base); return NULL; } rsc->plane.base = rsc->bo->ptr.gpu; rsc->modifier_constant = true; BITSET_SET(rsc->valid.data, 0); panfrost_resource_set_damage_region(pscreen, &rsc->base, 0, NULL); if (dev->ro) { rsc->scanout = renderonly_create_gpu_import_for_resource(prsc, dev->ro, NULL); /* failure is expected in some cases.. */ } return prsc; } static void panfrost_set_resource_label(UNUSED struct pipe_screen *pscreen, struct pipe_resource *presource, const char *user_label) { struct panfrost_resource *rsrc = pan_resource(presource); const char *new_label; /* We don't manage labels for resources with imported BOs */ if (!rsrc->owns_label) return; new_label = panfrost_resource_new_label(rsrc, rsrc->image.props.modifier, user_label); if (!new_label) return; char *old_label = (char *)panfrost_bo_set_label(rsrc->bo, new_label); if (old_label) free(old_label); } static bool panfrost_resource_get_handle(struct pipe_screen *pscreen, struct pipe_context *ctx, struct pipe_resource *pt, struct winsys_handle *handle, unsigned usage) { struct panfrost_device *dev = pan_device(pscreen); struct panfrost_resource *rsrc = pan_resource(pt); struct renderonly_scanout *scanout; if (handle->plane >= ARRAY_SIZE(rsrc->image.planes) || !rsrc->image.planes[handle->plane]) return false; scanout = rsrc->scanout; handle->modifier = rsrc->modifier; rsrc->modifier_constant = true; if (handle->type == WINSYS_HANDLE_TYPE_KMS && dev->ro) { return renderonly_get_handle(scanout, handle); } else if (handle->type == WINSYS_HANDLE_TYPE_KMS) { handle->handle = panfrost_bo_handle(rsrc->bo); } else if (handle->type == WINSYS_HANDLE_TYPE_FD) { int fd = panfrost_bo_export(rsrc->bo); if (fd < 0) return false; handle->handle = fd; } else { /* Other handle types not supported */ return false; } handle->stride = pan_image_get_wsi_row_pitch(&rsrc->image, handle->plane, 0); handle->offset = pan_image_get_wsi_offset(&rsrc->image, handle->plane, 0); /* SW detiling on MTK_TILED resources. This forces us to treat such * resources as linear images with: * width = tile_width * tile_height * height = (wsi_row_stride / (tile_width * blksize)) * (height / tile_height) * * We need to extract the original WSI row pitch from this. */ if (drm_is_mtk_tiled(rsrc->modifier)) { bool subsamp = handle->plane > 0 || rsrc->image.props.format == PIPE_FORMAT_R8G8_UNORM; unsigned blksz_B = subsamp ? 2 : 1; unsigned tile_w_px = 16 / (subsamp ? 2 : 1); unsigned tile_h_px = 32 / (subsamp ? 2 : 1); unsigned row_stride_tl = rsrc->image.props.extent_px.height / DIV_ROUND_UP(rsrc->base.height0, tile_h_px); handle->stride = row_stride_tl * tile_w_px * blksz_B; } return true; } static bool panfrost_resource_get_param(struct pipe_screen *pscreen, struct pipe_context *pctx, struct pipe_resource *prsc, unsigned plane, unsigned layer, unsigned level, enum pipe_resource_param param, unsigned usage, uint64_t *value) { struct panfrost_resource *rsrc = pan_resource(prsc); switch (param) { case PIPE_RESOURCE_PARAM_STRIDE: *value = pan_image_get_wsi_row_pitch(&rsrc->image, plane, level); return true; case PIPE_RESOURCE_PARAM_OFFSET: *value = pan_image_get_wsi_offset(&rsrc->image, plane, level); return true; case PIPE_RESOURCE_PARAM_MODIFIER: *value = rsrc->modifier; return true; case PIPE_RESOURCE_PARAM_NPLANES: *value = util_resource_num(prsc); return true; default: return false; } } static void panfrost_flush_resource(struct pipe_context *pctx, struct pipe_resource *prsc) { /* TODO */ } static inline bool panfrost_is_2d(const struct panfrost_resource *pres) { return (pres->base.target == PIPE_TEXTURE_2D) || (pres->base.target == PIPE_TEXTURE_RECT); } /* Based on the usage, determine if it makes sense to use u-inteleaved tiling. * We only have routines to tile 2D textures of sane bpps. On the hardware * level, not all usages are valid for tiling. Finally, if the app is hinting * that the contents frequently change, tiling will be a loss. * * On platforms where it is supported, AFBC is even better. */ static bool panfrost_should_afbc(struct panfrost_device *dev, const struct panfrost_resource *pres, enum pipe_format fmt) { /* AFBC resources may be rendered to, textured from, or shared across * processes, but may not be used as e.g buffers */ const unsigned valid_binding = PIPE_BIND_DEPTH_STENCIL | PIPE_BIND_RENDER_TARGET | PIPE_BIND_BLENDABLE | PIPE_BIND_SAMPLER_VIEW | PIPE_BIND_DISPLAY_TARGET | PIPE_BIND_SCANOUT | PIPE_BIND_SHARED; if (pres->base.bind & ~valid_binding) return false; /* AFBC support is optional */ if (!dev->has_afbc) return false; /* AFBC<-->staging is expensive */ if (pres->base.usage == PIPE_USAGE_STREAM) return false; /* If constant (non-data-dependent) format is requested, don't AFBC: */ if (pres->base.bind & PIPE_BIND_CONST_BW) return false; /* Only a small selection of formats are AFBC'able */ if (!pan_afbc_supports_format(dev->arch, fmt)) return false; /* AFBC does not support layered (GLES3 style) multisampling. Use * EXT_multisampled_render_to_texture instead */ if (pres->base.nr_samples > 1) return false; switch (pres->base.target) { case PIPE_TEXTURE_2D: case PIPE_TEXTURE_RECT: case PIPE_TEXTURE_2D_ARRAY: case PIPE_TEXTURE_CUBE: case PIPE_TEXTURE_CUBE_ARRAY: break; case PIPE_TEXTURE_3D: /* 3D AFBC is only supported on Bifrost v7+. It's supposed to * be supported on Midgard but it doesn't seem to work */ if (dev->arch < 7) return false; break; default: return false; } /* For one tile, AFBC is a loss compared to u-interleaved */ if (pres->base.width0 <= 16 && pres->base.height0 <= 16) return false; /* AFBC headers point to their tile with a 32-bit offset, so we can't * have a body size that's bigger than UINT32_MAX. */ uint64_t body_size = (uint64_t)pres->base.width0 * pres->base.height0 * pres->base.depth0 * util_format_get_blocksize(pres->base.format); if (body_size > UINT32_MAX) return false; /* Otherwise, we'd prefer AFBC as it is dramatically more efficient * than linear or usually even u-interleaved */ return true; } /* * For a resource we want to use AFBC with, should we use AFBC with tiled * headers? On GPUs that support it, this is believed to be beneficial for * images that are at least 128x128. */ static bool panfrost_should_tile_afbc(const struct panfrost_screen *screen, const struct panfrost_resource *pres) { return screen->afbc_tiled && pan_afbc_can_tile(screen->dev.arch) && pres->base.width0 >= 128 && pres->base.height0 >= 128; } bool panfrost_should_pack_afbc(struct panfrost_device *dev, const struct panfrost_resource *prsrc) { const unsigned valid_binding = PIPE_BIND_DEPTH_STENCIL | PIPE_BIND_RENDER_TARGET | PIPE_BIND_SAMPLER_VIEW; BITSET_WORD mask = BITSET_MASK(prsrc->base.last_level + 1); const bool mipmap_chain_valid = BITSET_EQUAL(prsrc->valid.data, &mask); return pan_afbc_can_pack(prsrc->base.format) && panfrost_is_2d(prsrc) && drm_is_afbc(prsrc->modifier) && (prsrc->modifier & AFBC_FORMAT_MOD_SPARSE) && !(prsrc->modifier & AFBC_FORMAT_MOD_SPLIT) && (prsrc->base.bind & ~valid_binding) == 0 && !prsrc->modifier_constant && prsrc->base.array_size == 1 && prsrc->base.width0 >= 32 && prsrc->base.height0 >= 32 && mipmap_chain_valid; } static bool panfrost_should_tile(struct panfrost_device *dev, const struct panfrost_resource *pres, enum pipe_format fmt) { const unsigned valid_binding = PIPE_BIND_DEPTH_STENCIL | PIPE_BIND_RENDER_TARGET | PIPE_BIND_BLENDABLE | PIPE_BIND_SAMPLER_VIEW | PIPE_BIND_DISPLAY_TARGET | PIPE_BIND_SCANOUT | PIPE_BIND_SHARED; /* The purpose of tiling is improving locality in both X- and * Y-directions. If there is only a single pixel in either direction, * tiling does not make sense; using a linear layout instead is optimal * for both memory usage and performance. */ if (MIN2(pres->base.width0, pres->base.height0) < 2) return false; bool can_tile = (pres->base.target != PIPE_BUFFER) && ((pres->base.bind & ~valid_binding) == 0); return can_tile && (pres->base.usage != PIPE_USAGE_STREAM); } static bool panfrost_should_afrc(struct panfrost_device *dev, const struct panfrost_resource *pres, enum pipe_format fmt) { const unsigned valid_binding = PIPE_BIND_RENDER_TARGET | PIPE_BIND_BLENDABLE | PIPE_BIND_SAMPLER_VIEW | PIPE_BIND_DISPLAY_TARGET | PIPE_BIND_SHARED; if (pres->base.bind & ~valid_binding) return false; /* AFRC support is optional */ if (!dev->has_afrc) return false; /* AFRC<-->staging is expensive */ if (pres->base.usage == PIPE_USAGE_STREAM) return false; /* Only a small selection of formats are AFRC'able */ if (!pan_afrc_supports_format(fmt)) return false; /* AFRC does not support layered (GLES3 style) multisampling. Use * EXT_multisampled_render_to_texture instead */ if (pres->base.nr_samples > 1) return false; switch (pres->base.target) { case PIPE_TEXTURE_2D: case PIPE_TEXTURE_RECT: case PIPE_TEXTURE_2D_ARRAY: case PIPE_TEXTURE_CUBE: case PIPE_TEXTURE_CUBE_ARRAY: case PIPE_TEXTURE_3D: break; default: return false; } return true; } static uint64_t panfrost_best_modifier(struct pipe_screen *pscreen, const struct panfrost_resource *pres, enum pipe_format fmt) { struct panfrost_screen *screen = pan_screen(pscreen); struct panfrost_device *dev = pan_device(pscreen); /* Force linear textures when debugging tiling/compression */ if (unlikely(dev->debug & PAN_DBG_LINEAR)) return DRM_FORMAT_MOD_LINEAR; int afrc_rate = screen->force_afrc_rate; if (afrc_rate < 0) afrc_rate = pres->base.compression_rate; if (afrc_rate > PIPE_COMPRESSION_FIXED_RATE_NONE && panfrost_should_afrc(dev, pres, fmt)) { /* It's not really possible to decide on a global AFRC-rate, * because the set of valid AFRC rates varies from format to * format. So instead, treat this as a minimum rate, and search * for the next valid one. */ for (int i = afrc_rate; i < 12; ++i) { if (pan_afrc_get_modifiers(fmt, i, 0, NULL)) { afrc_rate = i; break; } } } if (afrc_rate != PIPE_COMPRESSION_FIXED_RATE_NONE && panfrost_should_afrc(dev, pres, fmt)) { uint64_t mod; unsigned num_mods = 0; STATIC_ASSERT(PIPE_COMPRESSION_FIXED_RATE_DEFAULT == PAN_AFRC_RATE_DEFAULT); num_mods = pan_afrc_get_modifiers(fmt, afrc_rate, 1, &mod); if (num_mods > 0) { return mod; } } if (panfrost_should_afbc(dev, pres, fmt)) { uint64_t afbc = AFBC_FORMAT_MOD_BLOCK_SIZE_16x16 | AFBC_FORMAT_MOD_SPARSE; if (pan_afbc_can_ytr(pres->base.format)) afbc |= AFBC_FORMAT_MOD_YTR; if (panfrost_should_tile_afbc(screen, pres)) afbc |= AFBC_FORMAT_MOD_TILED | AFBC_FORMAT_MOD_SC; return DRM_FORMAT_MOD_ARM_AFBC(afbc); } else if (panfrost_should_tile(dev, pres, fmt)) return DRM_FORMAT_MOD_ARM_16X16_BLOCK_U_INTERLEAVED; else return DRM_FORMAT_MOD_LINEAR; } static bool panfrost_should_checksum(const struct panfrost_device *dev, const struct panfrost_resource *pres) { /* When checksumming is enabled, the tile data must fit in the * size of the writeback buffer, so don't checksum formats * that use too much space. */ unsigned bytes_per_pixel_max = (dev->arch == 6) ? 6 : 4; unsigned bytes_per_pixel = MAX2(pres->base.nr_samples, 1) * util_format_get_blocksize(pres->base.format); return pres->base.bind & PIPE_BIND_RENDER_TARGET && panfrost_is_2d(pres) && bytes_per_pixel <= bytes_per_pixel_max && pres->base.last_level == 0 && !(dev->debug & PAN_DBG_NO_CRC); } static bool panfrost_resource_try_setup(struct pipe_screen *screen, struct panfrost_resource *pres, uint64_t modifier, enum pipe_format fmt, unsigned plane_idx) { struct panfrost_device *dev = pan_device(screen); uint64_t chosen_mod = modifier != DRM_FORMAT_MOD_INVALID ? modifier : panfrost_best_modifier(screen, pres, fmt); enum mali_texture_dimension dim = panfrost_translate_texture_dimension(pres->base.target); /* We can only switch tiled->linear if the resource isn't already * linear and if we control the modifier */ pres->modifier_constant = !(chosen_mod != DRM_FORMAT_MOD_LINEAR && modifier == DRM_FORMAT_MOD_INVALID); /* Z32_S8X24 variants are actually stored in 2 planes (one per * component), we have to adjust the format on the first plane. */ if (fmt == PIPE_FORMAT_Z32_FLOAT_S8X24_UINT) fmt = PIPE_FORMAT_Z32_FLOAT; pres->modifier = chosen_mod; bool h_subsamp = util_format_get_plane_width(fmt, plane_idx, 2) == 1; bool v_subsamp = util_format_get_plane_height(fmt, plane_idx, 2) == 1; struct pan_image_props iprops = { .modifier = panfrost_is_emulated_mod(chosen_mod) ? DRM_FORMAT_MOD_LINEAR : chosen_mod, .format = fmt, .dim = dim, .extent_px = { /* pan_layout_init() wants the property of the full image, not the * plane, but pipe_resource encodes the properties of the plane. * We need to adjust the width/height according to the subsampling * properties. */ .width = pres->base.width0 * (h_subsamp ? 2 : 1), .height = pres->base.height0 * (v_subsamp ? 2 : 1), .depth = pres->base.depth0, }, .array_size = pres->base.array_size, .nr_samples = MAX2(pres->base.nr_samples, 1), .nr_slices = pres->base.last_level + 1, .crc = panfrost_should_checksum(dev, pres), }; /* Update the compression rate with the correct value as we * want the real bitrate and not DEFAULT */ pres->base.compression_rate = pan_afrc_get_rate(fmt, chosen_mod); return panfrost_resource_init_image(screen, pres, &iprops, plane_idx, NULL); } static void panfrost_resource_setup(struct pipe_screen *screen, struct panfrost_resource *pres, uint64_t modifier, enum pipe_format fmt, unsigned plane_idx) { ASSERTED bool valid = panfrost_resource_try_setup(screen, pres, modifier, fmt, plane_idx); assert(valid); } static int panfrost_resource_init_afbc_headers(struct panfrost_resource *pres) { if (panfrost_bo_mmap(pres->bo)) return -1; for (unsigned i = 0; i < pres->base.array_size; ++i) { for (unsigned l = 0; l <= pres->base.last_level; ++l) { struct pan_image_slice_layout *slice = &pres->plane.layout.slices[l]; unsigned z_slice_count = u_minify(pres->base.depth0, l); for (unsigned z = 0; z < z_slice_count; ++z) { void *ptr = pres->bo->ptr.cpu + (i * pres->plane.layout.array_stride_B) + slice->offset_B + (z * slice->afbc.surface_stride_B); /* Zero-ed AFBC headers seem to encode a plain * black. Let's use this pattern to keep the * initialization simple. */ memset(ptr, 0, slice->afbc.header.surface_size_B); } } } return 0; } void panfrost_resource_set_damage_region(struct pipe_screen *screen, struct pipe_resource *res, unsigned int nrects, const struct pipe_box *rects) { struct panfrost_device *dev = pan_device(screen); struct panfrost_resource *pres = pan_resource(res); struct pipe_scissor_state *damage_extent = &pres->damage.extent; unsigned int i; /* Partial updates are implemented with a tile enable map only on v5. * Later architectures have a more efficient method of implementing * partial updates (frame shaders), while earlier architectures lack * tile enable maps altogether. */ if (dev->arch == 5 && nrects > 1) { if (!pres->damage.tile_map.data) { pres->damage.tile_map.stride = ALIGN_POT(DIV_ROUND_UP(res->width0, 32 * 8), 64); pres->damage.tile_map.size = pres->damage.tile_map.stride * DIV_ROUND_UP(res->height0, 32); pres->damage.tile_map.data = malloc(pres->damage.tile_map.size); } memset(pres->damage.tile_map.data, 0, pres->damage.tile_map.size); pres->damage.tile_map.enable = true; } else { pres->damage.tile_map.enable = false; } /* Track the damage extent: the quad including all damage regions. Will * be used restrict the rendering area */ damage_extent->minx = 0xffff; damage_extent->miny = 0xffff; unsigned enable_count = 0; for (i = 0; i < nrects; i++) { int x = rects[i].x, w = rects[i].width, h = rects[i].height; int y = res->height0 - (rects[i].y + h); damage_extent->minx = MIN2(damage_extent->minx, x); damage_extent->miny = MIN2(damage_extent->miny, y); damage_extent->maxx = MAX2(damage_extent->maxx, MIN2(x + w, res->width0)); damage_extent->maxy = MAX2(damage_extent->maxy, MIN2(y + h, res->height0)); if (!pres->damage.tile_map.enable) continue; unsigned t_x_start = x / 32; unsigned t_x_end = (x + w - 1) / 32; unsigned t_y_start = y / 32; unsigned t_y_end = (y + h - 1) / 32; for (unsigned t_y = t_y_start; t_y <= t_y_end; t_y++) { for (unsigned t_x = t_x_start; t_x <= t_x_end; t_x++) { unsigned b = (t_y * pres->damage.tile_map.stride * 8) + t_x; if (BITSET_TEST(pres->damage.tile_map.data, b)) continue; BITSET_SET(pres->damage.tile_map.data, b); enable_count++; } } } if (nrects == 0) { damage_extent->minx = 0; damage_extent->miny = 0; damage_extent->maxx = res->width0; damage_extent->maxy = res->height0; } if (pres->damage.tile_map.enable) { unsigned t_x_start = damage_extent->minx / 32; unsigned t_x_end = damage_extent->maxx / 32; unsigned t_y_start = damage_extent->miny / 32; unsigned t_y_end = damage_extent->maxy / 32; unsigned tile_count = (t_x_end - t_x_start + 1) * (t_y_end - t_y_start + 1); /* Don't bother passing a tile-enable-map if the amount of * tiles to reload is to close to the total number of tiles. */ if (tile_count - enable_count < 10) pres->damage.tile_map.enable = false; } } static bool panfrost_can_create_resource(struct pipe_screen *screen, const struct pipe_resource *template) { struct panfrost_resource tmp; tmp.base = *template; if (!panfrost_resource_try_setup(screen, &tmp, DRM_FORMAT_MOD_INVALID, template->format, 0)) return false; uint64_t system_memory; if (!os_get_total_physical_memory(&system_memory)) return false; /* Limit maximum texture size to a quarter of the system memory, to avoid * allocating huge textures on systems with little memory. */ return tmp.plane.layout.data_size_B <= system_memory / 4; } static struct pipe_resource * panfrost_resource_create_with_modifier(struct pipe_screen *screen, const struct pipe_resource *template, uint64_t modifier, unsigned plane_idx) { MESA_TRACE_FUNC(); struct panfrost_device *dev = pan_device(screen); struct panfrost_resource *so = CALLOC_STRUCT(panfrost_resource); if (!so) return NULL; so->base = *template; so->base.screen = screen; pipe_reference_init(&so->base.reference, 1); util_range_init(&so->valid_buffer_range); if (template->bind & PAN_BIND_SHARED_MASK) { /* For compatibility with older consumers that may not be * modifiers aware, treat INVALID as LINEAR for shared * resources. */ if (modifier == DRM_FORMAT_MOD_INVALID) modifier = DRM_FORMAT_MOD_LINEAR; /* At any rate, we can't change the modifier later for shared * resources, since we have no way to propagate the modifier * change. */ so->modifier_constant = true; } panfrost_resource_setup(screen, so, modifier, template->format, plane_idx); if (dev->ro && (template->bind & PIPE_BIND_SCANOUT)) { struct winsys_handle handle; /* Block-based texture formats are only used for texture * compression (not framebuffer compression!), which doesn't * make sense to share across processes. */ assert(util_format_get_blockwidth(template->format) == 1); assert(util_format_get_blockheight(template->format) == 1); /* Present a resource with similar dimensions that, if allocated * as a linear image, is big enough to fit the resource in the * actual layout. For linear images, this is a no-op. For 16x16 * tiling, this aligns the dimensions to 16x16. * * For AFBC, this aligns the width to the superblock width (as * expected) and adds extra rows to account for the header. This * is a bit of a lie, but it's the best we can do with dumb * buffers, which are extremely not meant for AFBC. And yet this * has to work anyway... * * Moral of the story: if you're reading this comment, that * means you're working on WSI and so it's already too late for * you. I'm sorry. */ unsigned stride = pan_image_get_wsi_row_pitch(&so->image, plane_idx, 0); enum pipe_format plane_format = util_format_get_plane_format(template->format, plane_idx); unsigned width = stride / util_format_get_blocksize(plane_format); unsigned size = so->plane.layout.data_size_B; unsigned effective_rows = DIV_ROUND_UP(size, stride); struct pipe_resource scanout_tmpl = { .target = so->base.target, .format = template->format, .width0 = width, .height0 = effective_rows, .depth0 = 1, .array_size = 1, }; so->scanout = renderonly_scanout_for_resource(&scanout_tmpl, dev->ro, &handle); if (!so->scanout) { mesa_loge("Failed to create scanout resource\n"); panfrost_resource_destroy(screen, &so->base); return NULL; } assert(handle.type == WINSYS_HANDLE_TYPE_FD); int ret = panfrost_resource_import_bo(so, dev, handle.handle); close(handle.handle); if (ret) { panfrost_resource_destroy(screen, &so->base); return NULL; } so->plane.base = so->bo->ptr.gpu; } else { /* We create a BO immediately but don't bother mapping, since we don't * care to map e.g. FBOs which the CPU probably won't touch */ uint32_t flags = PAN_BO_DELAY_MMAP; /* If the resource is never exported, we can make the BO private. */ if (template->bind & PIPE_BIND_SHARED) flags |= PAN_BO_SHAREABLE; char *res_label = panfrost_resource_new_label(so, so->image.props.modifier , NULL); so->bo = panfrost_bo_create(dev, so->plane.layout.data_size_B, flags, res_label); if (!so->bo) { panfrost_resource_destroy(screen, &so->base); return NULL; } so->plane.base = so->bo->ptr.gpu; so->constant_stencil = true; so->owns_label = true; } if (drm_is_afbc(so->modifier)) { if (panfrost_resource_init_afbc_headers(so)) { panfrost_resource_destroy(screen, &so->base); return NULL; } } panfrost_resource_set_damage_region(screen, &so->base, 0, NULL); if (template->bind & PIPE_BIND_INDEX_BUFFER) so->index_cache = CALLOC_STRUCT(pan_minmax_cache); return (struct pipe_resource *)so; } /* Default is to create a resource as don't care */ static struct pipe_resource * panfrost_resource_create(struct pipe_screen *screen, const struct pipe_resource *template) { return panfrost_resource_create_with_modifier(screen, template, DRM_FORMAT_MOD_INVALID, 0); } /* If no modifier is specified, we'll choose. Otherwise, the order of * preference is compressed, tiled, linear. */ static struct pipe_resource * panfrost_resource_create_with_modifiers(struct pipe_screen *screen, const struct pipe_resource *template, const uint64_t *modifiers, int count) { PANFROST_EMULATED_MODIFIERS(emulated_mods); PAN_SUPPORTED_MODIFIERS(native_mods); for (unsigned i = 0; i < ARRAY_SIZE(native_mods); ++i) { if (drm_find_modifier(native_mods[i], modifiers, count)) { return panfrost_resource_create_with_modifier(screen, template, native_mods[i], 0); } } for (unsigned i = 0; i < ARRAY_SIZE(emulated_mods); ++i) { if (drm_find_modifier(emulated_mods[i], modifiers, count)) { return panfrost_resource_create_with_modifier(screen, template, emulated_mods[i], 0); } } /* If we didn't find one, app specified invalid */ assert(count == 1 && modifiers[0] == DRM_FORMAT_MOD_INVALID); return panfrost_resource_create(screen, template); } void panfrost_resource_change_format(struct panfrost_resource *rsrc, enum pipe_format new_format, struct panfrost_resource *save) { if (!rsrc) return; assert(rsrc->image.props.modifier == DRM_FORMAT_MOD_LINEAR); assert(util_format_get_num_planes(new_format) == 1); assert(util_format_get_blockwidth(new_format) == 1 && util_format_get_blockheight(new_format) == 1); assert(util_format_get_blockwidth(rsrc->image.props.format) == 1 && util_format_get_blockheight(rsrc->image.props.format) == 1); if (new_format == rsrc->image.props.format) return; *save = *rsrc; unsigned old_res_plane_idx = pan_resource_plane_index(rsrc); enum pipe_format old_format = util_format_get_plane_format(rsrc->image.props.format, old_res_plane_idx); unsigned old_width = util_format_get_plane_width(rsrc->image.props.format, old_res_plane_idx, rsrc->image.props.extent_px.width); unsigned old_fmt_blksize = util_format_get_blocksize(old_format); unsigned new_fmt_blksize = util_format_get_blocksize(new_format); if (old_fmt_blksize != new_fmt_blksize) { assert((old_fmt_blksize * rsrc->base.width0) % new_fmt_blksize == 0); rsrc->base.width0 = (old_fmt_blksize * rsrc->base.width0) / new_fmt_blksize; rsrc->image.props.extent_px.width = (old_fmt_blksize * old_width) / new_fmt_blksize; rsrc->image.props.extent_px.height = util_format_get_plane_height(rsrc->image.props.format, old_res_plane_idx, rsrc->image.props.extent_px.height); } rsrc->base.next = NULL; rsrc->base.format = new_format; rsrc->image.props.format = new_format; rsrc->image.planes[0] = &rsrc->plane; rsrc->image.planes[1] = NULL; rsrc->image.planes[2] = NULL; } void panfrost_resource_restore_format(struct panfrost_resource *rsrc, const struct panfrost_resource *saved) { if (!rsrc) return; rsrc->base.next = saved->base.next; memcpy(rsrc->image.planes, saved->image.planes, sizeof(rsrc->image.planes)); rsrc->base.format = saved->base.format; rsrc->image.props.format = saved->image.props.format; rsrc->base.width0 = saved->base.width0; rsrc->image.props.extent_px.width = saved->image.props.extent_px.width; rsrc->image.props.extent_px.height = saved->image.props.extent_px.height; } /* Most of the time we can do CPU-side transfers, but sometimes we need to use * the 3D pipe for this. Let's wrap u_blitter to blit to/from staging textures. * Code adapted from freedreno */ static struct panfrost_resource * pan_alloc_staging(struct panfrost_context *ctx, struct panfrost_resource *rsc, unsigned level, const struct pipe_box *box) { struct pipe_context *pctx = &ctx->base; struct pipe_resource tmpl = rsc->base; tmpl.width0 = box->width; tmpl.height0 = box->height; /* for array textures, box->depth is the array_size, otherwise * for 3d textures, it is the depth: */ if (tmpl.array_size > 1) { if (tmpl.target == PIPE_TEXTURE_CUBE) tmpl.target = PIPE_TEXTURE_2D_ARRAY; tmpl.array_size = box->depth; tmpl.depth0 = 1; } else { tmpl.array_size = 1; tmpl.depth0 = box->depth; } tmpl.last_level = 0; tmpl.bind |= PIPE_BIND_LINEAR; tmpl.bind &= ~PAN_BIND_SHARED_MASK; tmpl.compression_rate = PIPE_COMPRESSION_FIXED_RATE_NONE; struct pipe_resource *pstaging = pctx->screen->resource_create(pctx->screen, &tmpl); if (!pstaging) return NULL; return pan_resource(pstaging); } static void pan_blit_from_staging(struct pipe_context *pctx, struct panfrost_transfer *trans) { struct pipe_resource *dst = trans->base.resource; struct pipe_blit_info blit = {0}; blit.dst.resource = dst; blit.dst.format = dst->format; blit.dst.level = trans->base.level; blit.dst.box = trans->base.box; blit.src.resource = trans->staging.rsrc; blit.src.format = trans->staging.rsrc->format; blit.src.level = 0; blit.src.box = trans->staging.box; blit.mask = util_format_get_mask(blit.src.format); blit.filter = PIPE_TEX_FILTER_NEAREST; panfrost_blit_no_afbc_legalization(pctx, &blit); } static void pan_blit_to_staging(struct pipe_context *pctx, struct panfrost_transfer *trans) { struct pipe_resource *src = trans->base.resource; struct pipe_blit_info blit = {0}; blit.src.resource = src; blit.src.format = src->format; blit.src.level = trans->base.level; blit.src.box = trans->base.box; blit.dst.resource = trans->staging.rsrc; blit.dst.format = trans->staging.rsrc->format; blit.dst.level = 0; blit.dst.box = trans->staging.box; blit.mask = util_format_get_mask(blit.dst.format); blit.filter = PIPE_TEX_FILTER_NEAREST; panfrost_blit_no_afbc_legalization(pctx, &blit); } static void panfrost_load_tiled_images(struct panfrost_transfer *transfer, struct panfrost_resource *rsrc) { struct pipe_transfer *ptrans = &transfer->base; unsigned level = ptrans->level; /* If the requested level of the image is uninitialized, it's not * necessary to copy it. Leave the result unintiialized too. */ if (!BITSET_TEST(rsrc->valid.data, level)) return; struct panfrost_bo *bo = rsrc->bo; unsigned stride = rsrc->image.props.dim == MALI_TEXTURE_DIMENSION_3D ? rsrc->plane.layout.slices[level].tiled_or_linear.surface_stride_B : rsrc->plane.layout.array_stride_B; /* Otherwise, load each layer separately, required to load from 3D and * array textures. */ for (unsigned z = 0; z < ptrans->box.depth; ++z) { void *dst = transfer->map + (ptrans->layer_stride * z); uint8_t *map = bo->ptr.cpu + rsrc->plane.layout.slices[level].offset_B + (z + ptrans->box.z) * stride; pan_load_tiled_image( dst, map, ptrans->box.x, ptrans->box.y, ptrans->box.width, ptrans->box.height, ptrans->stride, rsrc->plane.layout.slices[level].tiled_or_linear.row_stride_B, rsrc->image.props.format, PAN_INTERLEAVE_NONE); } } #if MESA_DEBUG static void dump_headerblock(struct panfrost_resource *rsrc, uint32_t idx) { panfrost_bo_wait(rsrc->bo, INT64_MAX, false); uint8_t *ptr = rsrc->bo->ptr.cpu; struct pan_afbc_headerblock *header = (struct pan_afbc_headerblock *) (ptr + (idx * AFBC_HEADER_BYTES_PER_TILE)); uint32_t *header_u32 = (uint32_t *)header; uint32_t *body = (uint32_t *)(ptr + header->payload.offset); struct pan_image_block_size block_sz = pan_afbc_subblock_size(rsrc->modifier); unsigned pixel_sz = util_format_get_blocksize(rsrc->base.format); unsigned uncompressed_size = pixel_sz * block_sz.width * block_sz.height; uint32_t size = pan_afbc_payload_size(7, *header, uncompressed_size); fprintf(stderr, " Header: %08x %08x %08x %08x (size: %u bytes)\n", header_u32[0], header_u32[1], header_u32[2], header_u32[3], size); if (size > 0) { fprintf(stderr, " Body: %08x %08x %08x %08x\n", body[0], body[1], body[2], body[3]); } else { fprintf(stderr, " Color: 0x%02x%02x%02x%02x\n", header->color.rgba8888.r, header->color.rgba8888.g, header->color.rgba8888.b, header->color.rgba8888.a); } fprintf(stderr, "\n"); } void pan_dump_resource(struct panfrost_context *ctx, struct panfrost_resource *rsc) { struct pipe_context *pctx = &ctx->base; struct pipe_resource tmpl = rsc->base; struct pipe_resource *plinear = NULL; struct panfrost_resource *linear = rsc; struct pipe_blit_info blit = {0}; struct pipe_box box; char buffer[1024]; if (rsc->modifier != DRM_FORMAT_MOD_LINEAR) { tmpl.bind |= PIPE_BIND_LINEAR; tmpl.bind &= ~PAN_BIND_SHARED_MASK; plinear = pctx->screen->resource_create(pctx->screen, &tmpl); u_box_2d(0, 0, rsc->base.width0, rsc->base.height0, &box); blit.src.resource = &rsc->base; blit.src.format = rsc->base.format; blit.src.level = 0; blit.src.box = box; blit.dst.resource = plinear; blit.dst.format = rsc->base.format; blit.dst.level = 0; blit.dst.box = box; blit.mask = util_format_get_mask(blit.dst.format); blit.filter = PIPE_TEX_FILTER_NEAREST; panfrost_blit(pctx, &blit); linear = pan_resource(plinear); } panfrost_flush_writer(ctx, linear, "dump image"); panfrost_bo_wait(linear->bo, INT64_MAX, false); if (!panfrost_bo_mmap(linear->bo)) { static unsigned frame_count = 0; frame_count++; snprintf(buffer, sizeof(buffer), "dump_image.%04d", frame_count); debug_dump_image( buffer, rsc->base.format, 0 /* UNUSED */, rsc->base.width0, rsc->base.height0, linear->plane.layout.slices[0].tiled_or_linear.row_stride_B, linear->bo->ptr.cpu); } else { mesa_loge("failed to mmap, not dumping resource"); } if (plinear) pipe_resource_reference(&plinear, NULL); } #endif static void panfrost_store_tiled_images(struct panfrost_transfer *transfer, struct panfrost_resource *rsrc) { struct panfrost_bo *bo = rsrc->bo; struct pipe_transfer *ptrans = &transfer->base; unsigned level = ptrans->level; unsigned stride = rsrc->image.props.dim == MALI_TEXTURE_DIMENSION_3D ? rsrc->plane.layout.slices[level].tiled_or_linear.surface_stride_B : rsrc->plane.layout.array_stride_B; /* Otherwise, store each layer separately, required to store to 3D and * array textures. */ for (unsigned z = 0; z < ptrans->box.depth; ++z) { void *src = transfer->map + (ptrans->layer_stride * z); uint8_t *map = bo->ptr.cpu + rsrc->plane.layout.slices[level].offset_B + (z + ptrans->box.z) * stride; pan_store_tiled_image( map, src, ptrans->box.x, ptrans->box.y, ptrans->box.width, ptrans->box.height, rsrc->plane.layout.slices[level].tiled_or_linear.row_stride_B, ptrans->stride, rsrc->image.props.format, PAN_INTERLEAVE_NONE); } } static bool panfrost_box_covers_resource(const struct pipe_resource *resource, const struct pipe_box *box) { return resource->last_level == 0 && util_texrange_covers_whole_level(resource, 0, box->x, box->y, box->z, box->width, box->height, box->depth); } static bool panfrost_can_discard(struct pipe_resource *resource, const struct pipe_box *box, unsigned usage) { struct panfrost_resource *rsrc = pan_resource(resource); return ((usage & PIPE_MAP_DISCARD_RANGE) && !(usage & PIPE_MAP_UNSYNCHRONIZED) && !(resource->flags & PIPE_RESOURCE_FLAG_MAP_PERSISTENT) && panfrost_box_covers_resource(resource, box) && !(rsrc->bo->flags & PAN_BO_SHARED)); } static void * panfrost_ptr_map(struct pipe_context *pctx, struct pipe_resource *resource, unsigned level, unsigned usage, /* a combination of PIPE_MAP_x */ const struct pipe_box *box, struct pipe_transfer **out_transfer) { MESA_TRACE_FUNC(); struct panfrost_context *ctx = pan_context(pctx); struct panfrost_device *dev = pan_device(pctx->screen); struct panfrost_resource *rsrc = pan_resource(resource); enum pipe_format format = rsrc->image.props.format; int bytes_per_block = util_format_get_blocksize(format); struct panfrost_bo *bo = rsrc->bo; /* Can't map tiled/compressed directly */ if ((usage & PIPE_MAP_DIRECTLY) && rsrc->modifier != DRM_FORMAT_MOD_LINEAR) return NULL; struct panfrost_transfer *transfer = rzalloc(pctx, struct panfrost_transfer); transfer->base.level = level; transfer->base.usage = usage; transfer->base.box = *box; pipe_resource_reference(&transfer->base.resource, resource); *out_transfer = &transfer->base; if (usage & PIPE_MAP_WRITE) rsrc->constant_stencil = false; /* We don't have s/w routines for AFBC/AFRC, so use a staging texture */ if (drm_is_afbc(rsrc->modifier) || drm_is_afrc(rsrc->modifier)) { struct panfrost_resource *staging = pan_alloc_staging(ctx, rsrc, level, box); assert(staging); /* Staging resources have one LOD: level 0. Query the strides * on this LOD. */ transfer->base.stride = staging->plane.layout.slices[0].tiled_or_linear.row_stride_B; transfer->base.layer_stride = staging->image.props.dim == MALI_TEXTURE_DIMENSION_3D ? staging->plane.layout.slices[0].tiled_or_linear.surface_stride_B : staging->plane.layout.array_stride_B; transfer->staging.rsrc = &staging->base; transfer->staging.box = *box; transfer->staging.box.x = 0; transfer->staging.box.y = 0; transfer->staging.box.z = 0; assert(transfer->staging.rsrc != NULL); bool valid = BITSET_TEST(rsrc->valid.data, level); if ((usage & PIPE_MAP_READ) && (valid || panfrost_any_batch_writes_rsrc(ctx, rsrc))) { pan_blit_to_staging(pctx, transfer); panfrost_flush_writer(ctx, staging, "AFBC/AFRC tex read staging blit"); panfrost_bo_wait(staging->bo, INT64_MAX, false); } if (panfrost_bo_mmap(staging->bo)) return NULL; return staging->bo->ptr.cpu; } bool already_mapped = bo->ptr.cpu != NULL; /* If we haven't already mmaped, now's the time */ if (panfrost_bo_mmap(bo)) return NULL; if (dev->debug & (PAN_DBG_TRACE | PAN_DBG_SYNC)) { pandecode_inject_mmap(dev->decode_ctx, bo->ptr.gpu, bo->ptr.cpu, panfrost_bo_size(bo), NULL); } /* Upgrade writes to uninitialized ranges to UNSYNCHRONIZED */ if ((usage & PIPE_MAP_WRITE) && resource->target == PIPE_BUFFER && !util_ranges_intersect(&rsrc->valid_buffer_range, box->x, box->x + box->width)) { usage |= PIPE_MAP_UNSYNCHRONIZED; } /* Upgrade DISCARD_RANGE to WHOLE_RESOURCE if the whole resource is * being mapped. */ if (panfrost_can_discard(resource, box, usage)) { usage |= PIPE_MAP_DISCARD_WHOLE_RESOURCE; } bool create_new_bo = usage & PIPE_MAP_DISCARD_WHOLE_RESOURCE; bool copy_resource = false; if (!(usage & PIPE_MAP_UNSYNCHRONIZED) && !(resource->flags & PIPE_RESOURCE_FLAG_MAP_PERSISTENT) && (usage & PIPE_MAP_WRITE) && panfrost_any_batch_reads_rsrc(ctx, rsrc)) { /* When a resource to be modified is already being used by a * pending batch, it is often faster to copy the whole BO than * to flush and split the frame in two. */ panfrost_flush_writer(ctx, rsrc, "Shadow resource creation"); panfrost_bo_wait(bo, INT64_MAX, false); create_new_bo = true; copy_resource = !(usage & PIPE_MAP_DISCARD_WHOLE_RESOURCE); } /* Shadowing with separate stencil may require additional accounting. * Bail in these exotic cases. */ if (rsrc->separate_stencil || rsrc->shadow_image) { create_new_bo = false; copy_resource = false; } if (create_new_bo && (!(resource->flags & PIPE_RESOURCE_FLAG_MAP_PERSISTENT) || !already_mapped)) { /* Make sure we re-emit any descriptors using this resource */ panfrost_dirty_state_all(ctx); /* If the BO is used by one of the pending batches or if it's * not ready yet (still accessed by one of the already flushed * batches), we try to allocate a new one to avoid waiting. */ if (panfrost_any_batch_reads_rsrc(ctx, rsrc) || !panfrost_bo_wait(bo, 0, true)) { /* We want the BO to be MMAPed. */ uint32_t flags = bo->flags & ~PAN_BO_DELAY_MMAP; struct panfrost_bo *newbo = NULL; /* When the BO has been imported/exported, we can't * replace it by another one, otherwise the * importer/exporter wouldn't see the change we're * doing to it. */ if (!(bo->flags & PAN_BO_SHARED)) { newbo = panfrost_bo_create(dev, panfrost_bo_size(bo), flags, bo->label); } if (newbo) { if (copy_resource) { memcpy(newbo->ptr.cpu, rsrc->bo->ptr.cpu, panfrost_bo_size(bo)); } /* Swap the pointers, dropping a reference to * the old BO which is no long referenced from * the resource. */ panfrost_bo_unreference(rsrc->bo); rsrc->bo = newbo; rsrc->plane.base = newbo->ptr.gpu; if (!copy_resource && drm_is_afbc(rsrc->modifier)) { if (panfrost_resource_init_afbc_headers(rsrc)) return NULL; } bo = newbo; } else { /* Allocation failed or was impossible, let's * fall back on a flush+wait. */ panfrost_flush_batches_accessing_rsrc( ctx, rsrc, "Resource access with high memory pressure"); panfrost_bo_wait(bo, INT64_MAX, true); } } } else if (!(usage & PIPE_MAP_UNSYNCHRONIZED)) { if (usage & PIPE_MAP_WRITE) { panfrost_flush_batches_accessing_rsrc(ctx, rsrc, "Synchronized write"); panfrost_bo_wait(bo, INT64_MAX, true); } else if (usage & PIPE_MAP_READ) { panfrost_flush_writer(ctx, rsrc, "Synchronized read"); panfrost_bo_wait(bo, INT64_MAX, false); } } /* For access to compressed textures, we want the (x, y, w, h) * region-of-interest in blocks, not pixels. Then we compute the stride * between rows of blocks as the width in blocks times the width per * block, etc. */ struct pipe_box box_blocks; u_box_pixels_to_blocks(&box_blocks, box, format); switch(rsrc->modifier) { case DRM_FORMAT_MOD_ARM_16X16_BLOCK_U_INTERLEAVED: case DRM_FORMAT_MOD_MTK_16L_32S_TILE: transfer->base.stride = box_blocks.width * bytes_per_block; transfer->base.layer_stride = transfer->base.stride * box_blocks.height; transfer->map = ralloc_size(transfer, transfer->base.layer_stride * box->depth); if (usage & PIPE_MAP_READ) panfrost_load_tiled_images(transfer, rsrc); return transfer->map; default: assert(rsrc->modifier == DRM_FORMAT_MOD_LINEAR); /* Direct, persistent writes create holes in time for * caching... I don't know if this is actually possible but we * should still get it right */ unsigned dpw = PIPE_MAP_DIRECTLY | PIPE_MAP_WRITE | PIPE_MAP_PERSISTENT; if ((usage & dpw) == dpw && rsrc->index_cache) return NULL; transfer->base.stride = rsrc->plane.layout.slices[level].tiled_or_linear.row_stride_B; transfer->base.layer_stride = rsrc->image.props.dim == MALI_TEXTURE_DIMENSION_3D ? rsrc->plane.layout.slices[level].tiled_or_linear.surface_stride_B : rsrc->plane.layout.array_stride_B; /* By mapping direct-write, we're implicitly already * initialized (maybe), so be conservative */ if (usage & PIPE_MAP_WRITE) { BITSET_SET(rsrc->valid.data, level); pan_minmax_cache_invalidate( rsrc->index_cache, util_format_get_blocksize(rsrc->base.format), transfer->base.box.x, transfer->base.box.width); } return bo->ptr.cpu + rsrc->plane.layout.slices[level].offset_B + box->z * transfer->base.layer_stride + box_blocks.y * rsrc->plane.layout.slices[level].tiled_or_linear.row_stride_B + box_blocks.x * bytes_per_block; } } void pan_resource_modifier_convert(struct panfrost_context *ctx, struct panfrost_resource *rsrc, uint64_t modifier, bool copy_resource, const char *reason) { MESA_TRACE_FUNC(); bool need_shadow = rsrc->modifier_constant; assert(!rsrc->modifier_constant || copy_resource); struct pipe_resource templates[MAX_IMAGE_PLANES] = {0}; unsigned plane_count; pan_resource_afbcp_stop(rsrc); templates[0] = rsrc->base; for (plane_count = 1; templates[plane_count - 1].next && plane_count < ARRAY_SIZE(templates); plane_count++) templates[plane_count] = *(templates[plane_count - 1].next); struct panfrost_resource *tmp_rsrc = NULL; for (int i = plane_count - 1; i >= 0; i--) { if (tmp_rsrc) templates[i].next = &tmp_rsrc->base; struct pipe_resource *new_prsrc = panfrost_resource_create_with_modifier(ctx->base.screen, &templates[i], modifier, i); tmp_rsrc = pan_resource(new_prsrc); } if (need_shadow && rsrc->shadow_image) { /* free the old shadow image */ pipe_resource_reference( (struct pipe_resource **)&rsrc->shadow_image, NULL); } if (copy_resource) { struct pipe_blit_info blit = { .dst.resource = &tmp_rsrc->base, .dst.format = tmp_rsrc->base.format, .src.resource = &rsrc->base, .src.format = rsrc->base.format, .mask = util_format_get_mask(tmp_rsrc->base.format), .filter = PIPE_TEX_FILTER_NEAREST, }; struct panfrost_screen *screen = pan_screen(ctx->base.screen); /* data_valid is not valid until flushed */ panfrost_flush_writer(ctx, rsrc, "AFBC/AFRC decompressing blit"); for (int i = 0; i <= rsrc->base.last_level; i++) { if (BITSET_TEST(rsrc->valid.data, i)) { blit.dst.level = blit.src.level = i; u_box_3d(0, 0, 0, u_minify(rsrc->base.width0, i), u_minify(rsrc->base.height0, i), util_num_layers(&rsrc->base, i), &blit.dst.box); blit.src.box = blit.dst.box; if (drm_is_mtk_tiled(rsrc->modifier)) screen->vtbl.mtk_detile(ctx, &blit); else panfrost_blit_no_afbc_legalization(&ctx->base, &blit); } } /* we lose track of tmp_rsrc after this point, and the BO migration * (from tmp_rsrc to rsrc) doesn't transfer the last_writer to rsrc */ panfrost_flush_writer(ctx, tmp_rsrc, "AFBC/AFRC decompressing blit"); } if (need_shadow) { panfrost_resource_setup(ctx->base.screen, tmp_rsrc, modifier, tmp_rsrc->base.format, 0); rsrc->shadow_image = tmp_rsrc; } else { if (rsrc->owns_label) { char *old_label = (char *)panfrost_bo_replace_label(rsrc->bo, "Disposed old modifier BO", false); free(old_label); } panfrost_bo_unreference(rsrc->bo); rsrc->bo = tmp_rsrc->bo; rsrc->plane.base = rsrc->bo->ptr.gpu; panfrost_bo_reference(rsrc->bo); rsrc->owns_label = tmp_rsrc->owns_label; tmp_rsrc->owns_label = false; panfrost_resource_setup(ctx->base.screen, rsrc, modifier, tmp_rsrc->base.format, 0); /* panfrost_resource_setup will force the modifier to stay constant when * called with a specific modifier. We don't want that here, we want to * be able to convert back to another modifier if needed */ rsrc->modifier_constant = false; struct pipe_resource *tmp_prsrc = &tmp_rsrc->base; pipe_resource_reference(&tmp_prsrc, NULL); perf_debug(ctx, "resource_modifier_convert required due to: %s", reason); } } /* Validate that an AFBC/AFRC resource may be used as a particular format. If it * may not, decompress it on the fly. Failure to do so can produce wrong results * or invalid data faults when sampling or rendering to AFBC */ void pan_legalize_format(struct panfrost_context *ctx, struct panfrost_resource *rsrc, enum pipe_format format, bool write, bool discard) { struct panfrost_device *dev = pan_device(ctx->base.screen); enum pipe_format old_format = rsrc->base.format; enum pipe_format new_format = format; bool compatible = true; uint64_t dest_modifier = DRM_FORMAT_MOD_ARM_16X16_BLOCK_U_INTERLEAVED; if (!drm_is_afbc(rsrc->modifier) && !drm_is_afrc(rsrc->modifier) && !drm_is_mtk_tiled(rsrc->modifier)) return; if (drm_is_afbc(rsrc->modifier)) { compatible = (pan_afbc_format(dev->arch, old_format, 0) == pan_afbc_format(dev->arch, new_format, 0)); } else if (drm_is_afrc(rsrc->modifier)) { struct pan_afrc_format_info old_info = pan_afrc_get_format_info(old_format); struct pan_afrc_format_info new_info = pan_afrc_get_format_info(new_format); compatible = !memcmp(&old_info, &new_info, sizeof(old_info)); } else if (drm_is_mtk_tiled(rsrc->modifier)) { compatible = false; dest_modifier = DRM_FORMAT_MOD_LINEAR; } if (!compatible) { pan_resource_modifier_convert( ctx, rsrc, dest_modifier, !discard, drm_is_afbc(rsrc->modifier) ? "Reinterpreting AFBC surface as incompatible format" : "Reinterpreting tiled surface as incompatible format"); return; } /* Can't write to AFBC-P resources */ if (write && drm_is_afbc(rsrc->modifier) && (rsrc->modifier & AFBC_FORMAT_MOD_SPARSE) == 0) { pan_resource_modifier_convert( ctx, rsrc, rsrc->modifier | AFBC_FORMAT_MOD_SPARSE, !discard, "Legalizing resource to allow writing"); } } static bool panfrost_should_linear_convert(struct panfrost_context *ctx, struct panfrost_resource *prsrc, struct pipe_transfer *transfer) { if (prsrc->modifier_constant) return false; /* Overwriting the entire resource indicates streaming, for which * linear layout is most efficient due to the lack of expensive * conversion. * * For now we just switch to linear after a number of complete * overwrites to keep things simple, but we could do better. * * This mechanism is only implemented for 2D resources. This suffices * for video players, its intended use case. */ bool entire_overwrite = panfrost_is_2d(prsrc) && prsrc->base.last_level == 0 && transfer->box.width == prsrc->base.width0 && transfer->box.height == prsrc->base.height0 && transfer->box.x == 0 && transfer->box.y == 0; if (entire_overwrite) ++prsrc->modifier_updates; if (prsrc->modifier_updates >= LAYOUT_CONVERT_THRESHOLD) { perf_debug(ctx, "Transitioning to linear due to streaming usage"); return true; } else { return false; } } /* Queue a CS modifier conversion job to calculate and store the payload sizes * of the current AFBC BO into a new AFBC-P payload layout BO. Returns true on * success. */ static bool pan_resource_afbcp_get_payload_sizes(struct panfrost_context *ctx, struct panfrost_resource *prsrc) { MESA_TRACE_FUNC(); afbcp_debug(ctx, "AFBC-P prsrc=%p: Get payload sizes (reads=%u bo_size=%zu, gpu=%s)", prsrc, prsrc->afbcp->nr_consecutive_reads, panfrost_bo_size(prsrc->bo), pan_screen(ctx->base.screen)->afbcp_gpu_payload_sizes ? "true" : "false"); struct panfrost_screen *screen = pan_screen(ctx->base.screen); struct panfrost_device *dev = pan_device(ctx->base.screen); uint64_t modifier = prsrc->modifier; unsigned last_level = prsrc->base.last_level; unsigned layout_size = 0; for (unsigned level = 0; level <= last_level; ++level) { struct pan_image_slice_layout *slice = &prsrc->plane.layout.slices[level]; unsigned nr_blocks = pan_afbc_stride_blocks( modifier, slice->afbc.header.row_stride_B) * pan_afbc_height_blocks( modifier, u_minify(prsrc->image.props.extent_px.height, level)); prsrc->afbcp->layout_offsets[level] = layout_size; layout_size += nr_blocks * sizeof(struct pan_afbc_payload_extent); } prsrc->afbcp->layout_bo = panfrost_bo_create( dev, layout_size, 0, "AFBC-P payload layout"); if (!prsrc->afbcp->layout_bo) { mesa_loge("pan_resource_afbcp_get_payload_sizes: failed to create " "AFBC-P payload layout BO"); return false; } if (!pan_screen(ctx->base.screen)->afbcp_gpu_payload_sizes) return true; prsrc->afbcp->skip_access_updates = true; struct panfrost_batch *batch = panfrost_get_batch_for_fbo(ctx); for (unsigned level = 0; level <= last_level; ++level) screen->vtbl.afbc_size(batch, prsrc, prsrc->afbcp->layout_bo, prsrc->afbcp->layout_offsets[level], level); prsrc->afbcp->skip_access_updates = false; return true; } static uint32_t pan_resource_afbcp_get_payload_layout(struct panfrost_context *ctx, struct panfrost_resource *prsrc, struct pan_afbc_payload_extent *layout, uint32_t nr_blocks_total, uint32_t header_offset) { if (!pan_screen(ctx->base.screen)->afbcp_gpu_payload_sizes) { /* The CPU version sets both the payload sizes and offsets at once. */ struct panfrost_device *dev = pan_device(ctx->base.screen); struct pan_afbc_headerblock *headers = (struct pan_afbc_headerblock *) ((uint8_t *)prsrc->bo->ptr.cpu + header_offset); return pan_afbc_payload_layout_packed( dev->arch, headers, layout, nr_blocks_total, prsrc->base.format, prsrc->modifier); } /* Stack allocated chunk used to copy the AFBC-P payload layout from * non-cacheable memory to cacheable memory. Each iteration of the offset * computation loop below otherwise forces a flush of the write combining * buffer because of the 32-bit read interleaved with the 32-bit write. A * tile is composed of 8x8 header blocks. A chunk is made of 16 tiles so * that at most 8 kB can be copied at each iteration (smaller values tend * to increase latency). */ alignas(16) struct pan_afbc_payload_extent layout_chunk[64 * 16]; unsigned nr_blocks_per_chunk = ARRAY_SIZE(layout_chunk); uint32_t body_size_B = 0; for (unsigned i = 0; i < nr_blocks_total; i += nr_blocks_per_chunk) { unsigned nr_blocks = MIN2(nr_blocks_per_chunk, nr_blocks_total - i); util_streaming_load_memcpy( layout_chunk, &layout[i], nr_blocks * sizeof(struct pan_afbc_payload_extent)); for (unsigned j = 0; j < nr_blocks; j++) { layout[i + j].offset = body_size_B; body_size_B += layout_chunk[j].size; } } return body_size_B; } /* Calculate and store the packed payload offsets into the AFBC-P payload * layout BO and store the total packed size. */ static void pan_resource_afbcp_get_payload_offsets(struct panfrost_context *ctx, struct panfrost_resource *prsrc) { MESA_TRACE_FUNC(); afbcp_debug(ctx, "AFBC-P prsrc=%p: Get payload offsets (reads=%u bo_size=%zu)", prsrc, prsrc->afbcp->nr_consecutive_reads, panfrost_bo_size(prsrc->bo)); struct panfrost_device *dev = pan_device(ctx->base.screen); uint64_t modifier = prsrc->modifier; unsigned last_level = prsrc->base.last_level; unsigned total_size = 0; for (unsigned level = 0; level <= last_level; ++level) { struct pan_image_slice_layout *src_slice = &prsrc->plane.layout.slices[level]; struct pan_image_slice_layout *dst_slice = &prsrc->afbcp->plane.layout.slices[level]; unsigned nr_blocks_total = pan_afbc_stride_blocks( modifier, src_slice->afbc.header.row_stride_B) * pan_afbc_height_blocks( modifier, u_minify(prsrc->image.props.extent_px.height, level)); uint32_t body_offset_B = pan_afbc_body_offset( dev->arch, modifier, src_slice->afbc.header.surface_size_B); struct pan_afbc_payload_extent *layout = prsrc->afbcp->layout_bo->ptr.cpu + prsrc->afbcp->layout_offsets[level]; uint32_t body_size_B = pan_resource_afbcp_get_payload_layout( ctx, prsrc, layout, nr_blocks_total, src_slice->offset_B); /* Header layout is exactly the same, only the body is shrunk. */ unsigned size_B = body_offset_B + body_size_B; dst_slice->afbc.header = src_slice->afbc.header; dst_slice->afbc.surface_stride_B = size_B; dst_slice->size_B = size_B; dst_slice->offset_B = total_size; /* We can't write to AFBC-packed resource, so there is no reason to * keep CRC data around */ dst_slice->crc.offset_B = 0; dst_slice->crc.size_B = 0; total_size = ALIGN_POT(total_size + size_B, pan_afbc_header_align(dev->arch, modifier)); } prsrc->afbcp->size = ALIGN_POT(total_size, 4096); // FIXME } /* Queue a CS modifier conversion job to pack the current sparse AFBC BO into * a new packed BO using the AFBC-P payload layout BO. Returns true on * success. */ static bool pan_resource_afbcp_pack(struct panfrost_context *ctx, struct panfrost_resource *prsrc) { MESA_TRACE_FUNC(); afbcp_debug(ctx, "AFBC-P prsrc=%p: Pack (reads=%u bo_size=%zu ratio=%.2f)", prsrc, prsrc->afbcp->nr_consecutive_reads, panfrost_bo_size(prsrc->bo), prsrc->afbcp->ratio); struct panfrost_screen *screen = pan_screen(ctx->base.screen); struct panfrost_device *dev = pan_device(ctx->base.screen); uint64_t modifier = prsrc->modifier & ~AFBC_FORMAT_MOD_SPARSE; unsigned last_level = prsrc->base.last_level; const char *old_user_label = NULL; if (prsrc->bo->label) { old_user_label = strstr(prsrc->bo->label, "user_label="); if (old_user_label) old_user_label += strlen("user_label="); } char *new_label = panfrost_resource_new_label( prsrc, modifier, old_user_label); prsrc->afbcp->packed_bo = panfrost_bo_create( dev, prsrc->afbcp->size, 0, new_label); if (!prsrc->afbcp->packed_bo) { mesa_loge("pan_resource_afbcp_pack: failed to create AFBC-P BO"); free(new_label); return false; } prsrc->afbcp->skip_access_updates = true; struct panfrost_batch *batch = panfrost_get_batch_for_fbo(ctx); for (unsigned level = 0; level <= last_level; ++level) screen->vtbl.afbc_pack(batch, prsrc, prsrc->afbcp->packed_bo, &prsrc->afbcp->plane.layout.slices[level], prsrc->afbcp->layout_bo, prsrc->afbcp->layout_offsets[level], level); prsrc->afbcp->skip_access_updates = false; return true; } /* Replace the current sparse BO by the newly packed BO. */ static void pan_resource_afbcp_commit(struct panfrost_context *ctx, struct panfrost_resource *prsrc) { MESA_TRACE_FUNC(); afbcp_debug(ctx, "AFBC-P prsrc=%p: Commit (reads=%u bo_size=%zu ratio=%.2f)", prsrc, prsrc->afbcp->nr_consecutive_reads, panfrost_bo_size(prsrc->bo), prsrc->afbcp->ratio); uint64_t modifier = prsrc->modifier & ~AFBC_FORMAT_MOD_SPARSE; assert(!panfrost_is_emulated_mod(modifier)); prsrc->image.props.modifier = modifier; prsrc->modifier = modifier; prsrc->plane.layout.array_stride_B = prsrc->afbcp->size; prsrc->plane.layout.data_size_B = prsrc->afbcp->size; prsrc->plane.base = prsrc->afbcp->packed_bo->ptr.gpu; prsrc->image.props.crc = false; prsrc->valid.crc = false; for (unsigned level = 0; level <= prsrc->base.last_level; ++level) prsrc->plane.layout.slices[level] = prsrc->afbcp->plane.layout.slices[level]; if (prsrc->owns_label) free((char *)panfrost_bo_replace_label( prsrc->bo, "Disposed pre AFBC-P BO", false)); panfrost_bo_unreference(prsrc->bo); prsrc->bo = prsrc->afbcp->packed_bo; prsrc->afbcp->packed_bo = NULL; pan_resource_afbcp_stop(prsrc); } /* Progressively pack AFBC resources. */ void pan_resource_afbcp_update(struct panfrost_context *ctx, struct panfrost_resource *prsrc, bool write) { struct panfrost_screen *screen = pan_screen(ctx->base.screen); if (prsrc->afbcp->skip_access_updates) return; if (write) { pan_resource_afbcp_restart(prsrc); return; } if (++prsrc->afbcp->nr_consecutive_reads < screen->afbcp_reads_threshold) return; /* Don't bother if there's a write in the queue. */ if (panfrost_any_batch_writes_rsrc(ctx, prsrc)) return; /* 1st async AFBC-P step: get payload sizes. */ if (!prsrc->afbcp->layout_bo) { if (!panfrost_bo_wait(prsrc->bo, 0, false)) return; if (!pan_resource_afbcp_get_payload_sizes(ctx, prsrc)) goto stop_packing; return; } /* 2nd async AFBC-P step: get payload offsets. */ if (prsrc->afbcp->size == 0) { if (!panfrost_bo_wait(prsrc->afbcp->layout_bo, 0, false)) return; pan_resource_afbcp_get_payload_offsets(ctx, prsrc); return; } /* Validate compression ratio. */ if (prsrc->afbcp->ratio == 0.0f) { prsrc->afbcp->ratio = (float)panfrost_bo_size(prsrc->bo) / prsrc->afbcp->size; if (100.0f / prsrc->afbcp->ratio > screen->max_afbc_packing_ratio) goto stop_packing; } /* 3rd async AFBC-P step: pack. */ if (!prsrc->afbcp->packed_bo) { if (!panfrost_bo_wait(prsrc->bo, 0, false) || !panfrost_bo_wait(prsrc->afbcp->layout_bo, 0, false)) return; if (!pan_resource_afbcp_pack(ctx, prsrc)) goto stop_packing; return; } /* 4th async AFBC-P step: commit. */ if (!panfrost_bo_wait(prsrc->afbcp->packed_bo, 0, false)) return; pan_resource_afbcp_commit(ctx, prsrc); return; stop_packing: pan_resource_afbcp_stop(prsrc); } static void panfrost_ptr_unmap(struct pipe_context *pctx, struct pipe_transfer *transfer) { MESA_TRACE_FUNC(); /* Gallium expects writeback here, so we tile */ struct panfrost_context *ctx = pan_context(pctx); struct pipe_screen *screen = ctx->base.screen; struct panfrost_transfer *trans = pan_transfer(transfer); struct panfrost_resource *prsrc = (struct panfrost_resource *)transfer->resource; struct panfrost_device *dev = pan_device(pctx->screen); if (transfer->usage & PIPE_MAP_WRITE) prsrc->valid.crc = false; /* AFBC/AFRC will use a staging resource. `initialized` will be set when * the fragment job is created; this is deferred to prevent useless surface * reloads that can cascade into DATA_INVALID_FAULTs due to reading * malformed AFBC/AFRC data if uninitialized */ if (trans->staging.rsrc) { if (transfer->usage & PIPE_MAP_WRITE) { if (panfrost_should_linear_convert(ctx, prsrc, transfer)) { if (prsrc->owns_label) { char *old_label = (char *)panfrost_bo_replace_label(prsrc->bo, "Discarded ptr-unmap BO", false); free(old_label); } panfrost_bo_unreference(prsrc->bo); pan_resource_afbcp_stop(prsrc); panfrost_resource_setup(screen, prsrc, DRM_FORMAT_MOD_LINEAR, prsrc->image.props.format, 0); prsrc->bo = pan_resource(trans->staging.rsrc)->bo; prsrc->plane.base = prsrc->bo->ptr.gpu; panfrost_bo_reference(prsrc->bo); prsrc->owns_label = pan_resource(trans->staging.rsrc)->owns_label; pan_resource(trans->staging.rsrc)->owns_label = false; } else { bool discard = panfrost_can_discard(&prsrc->base, &transfer->box, transfer->usage); pan_legalize_format(ctx, prsrc, prsrc->image.props.format, true, discard); pan_blit_from_staging(pctx, trans); panfrost_flush_batches_accessing_rsrc( ctx, pan_resource(trans->staging.rsrc), "AFBC write staging blit"); if (pan_screen(pctx->screen)->force_afbc_packing) { if (panfrost_should_pack_afbc(dev, prsrc)) pan_resource_afbcp_restart(prsrc); } } } pipe_resource_reference(&trans->staging.rsrc, NULL); } /* Tiling will occur in software from a staging cpu buffer */ if (trans->map) { struct panfrost_bo *bo = prsrc->bo; if (transfer->usage & PIPE_MAP_WRITE) { BITSET_SET(prsrc->valid.data, transfer->level); if (prsrc->modifier == DRM_FORMAT_MOD_ARM_16X16_BLOCK_U_INTERLEAVED) { if (panfrost_should_linear_convert(ctx, prsrc, transfer)) { pan_resource_afbcp_stop(prsrc); panfrost_resource_setup(screen, prsrc, DRM_FORMAT_MOD_LINEAR, prsrc->image.props.format, 0); /* converting the resource from tiled to linear and back * shouldn't increase memory usage... */ assert(prsrc->plane.layout.data_size_B <= panfrost_bo_size(bo)); util_copy_rect( bo->ptr.cpu + prsrc->plane.layout.slices[0].offset_B, prsrc->base.format, prsrc->plane.layout.slices[0].tiled_or_linear.row_stride_B, 0, 0, transfer->box.width, transfer->box.height, trans->map, transfer->stride, 0, 0); } else { panfrost_store_tiled_images(trans, prsrc); } } } } util_range_add(&prsrc->base, &prsrc->valid_buffer_range, transfer->box.x, transfer->box.x + transfer->box.width); if (transfer->usage & PIPE_MAP_WRITE) { pan_minmax_cache_invalidate(prsrc->index_cache, util_format_get_blocksize(prsrc->base.format), transfer->box.x, transfer->box.width); } /* Derefence the resource */ pipe_resource_reference(&transfer->resource, NULL); /* Transfer itself is RALLOCed at the moment */ ralloc_free(transfer); } static void panfrost_ptr_flush_region(struct pipe_context *pctx, struct pipe_transfer *transfer, const struct pipe_box *box) { struct panfrost_resource *rsc = pan_resource(transfer->resource); if (transfer->resource->target == PIPE_BUFFER) { util_range_add(&rsc->base, &rsc->valid_buffer_range, transfer->box.x + box->x, transfer->box.x + box->x + box->width); } else { BITSET_SET(rsc->valid.data, transfer->level); } } static void panfrost_invalidate_resource(struct pipe_context *pctx, struct pipe_resource *prsrc) { struct panfrost_context *ctx = pan_context(pctx); struct panfrost_batch *batch = panfrost_get_batch_for_fbo(ctx); struct panfrost_resource *rsrc = pan_resource(prsrc); if (!batch) { mesa_loge("panfrost_invalidate_resource failed"); return; } rsrc->constant_stencil = true; /* Handle the glInvalidateFramebuffer case */ if (batch->key.zsbuf.texture == prsrc) batch->resolve &= ~PIPE_CLEAR_DEPTHSTENCIL; for (unsigned i = 0; i < batch->key.nr_cbufs; ++i) { struct pipe_surface *surf = &batch->key.cbufs[i]; if (surf->texture == prsrc) batch->resolve &= ~(PIPE_CLEAR_COLOR0 << i); } } static enum pipe_format panfrost_resource_get_internal_format(struct pipe_resource *rsrc) { struct panfrost_resource *prsrc = (struct panfrost_resource *)rsrc; return prsrc->image.props.format; } void panfrost_set_image_view_planes(struct pan_image_view *iview, struct pipe_resource *texture) { struct panfrost_resource *prsrc_plane = (struct panfrost_resource *)texture; unsigned view_nplanes = util_format_get_num_planes(iview->format); struct pan_image_plane_ref pref = { .image = &prsrc_plane->image, .plane_idx = pan_resource_plane_index(prsrc_plane), }; if (view_nplanes > 1) { assert(pref.plane_idx == 0); assert(view_nplanes == util_format_get_num_planes(prsrc_plane->image.props.format)); for (int i = 0; i < view_nplanes; i++) { iview->planes[i] = pref; pref.plane_idx++; prsrc_plane = (struct panfrost_resource *)prsrc_plane->base.next; } } else { assert(pref.plane_idx < util_format_get_num_planes(prsrc_plane->image.props.format)); iview->planes[0] = pref; } } static bool panfrost_generate_mipmap(struct pipe_context *pctx, struct pipe_resource *prsrc, enum pipe_format format, unsigned base_level, unsigned last_level, unsigned first_layer, unsigned last_layer) { struct panfrost_resource *rsrc = pan_resource(prsrc); perf_debug(pan_context(pctx), "Unoptimized mipmap generation"); /* Generating a mipmap invalidates the written levels, so make that * explicit so we don't try to wallpaper them back and end up with * u_blitter recursion */ assert(rsrc->bo); for (unsigned l = base_level + 1; l <= last_level; ++l) BITSET_CLEAR(rsrc->valid.data, l); /* Beyond that, we just delegate the hard stuff. */ bool blit_res = util_gen_mipmap(pctx, prsrc, format, base_level, last_level, first_layer, last_layer, PIPE_TEX_FILTER_LINEAR); return blit_res; } static void panfrost_resource_set_stencil(struct pipe_resource *prsrc, struct pipe_resource *stencil) { pan_resource(prsrc)->separate_stencil = pan_resource(stencil); } static struct pipe_resource * panfrost_resource_get_stencil(struct pipe_resource *prsrc) { if (!pan_resource(prsrc)->separate_stencil) return NULL; return &pan_resource(prsrc)->separate_stencil->base; } static const struct u_transfer_vtbl transfer_vtbl = { .resource_create = panfrost_resource_create, .resource_destroy = panfrost_resource_destroy, .transfer_map = panfrost_ptr_map, .transfer_unmap = panfrost_ptr_unmap, .transfer_flush_region = panfrost_ptr_flush_region, .get_internal_format = panfrost_resource_get_internal_format, .set_stencil = panfrost_resource_set_stencil, .get_stencil = panfrost_resource_get_stencil, }; void panfrost_resource_screen_init(struct pipe_screen *pscreen) { pscreen->can_create_resource = panfrost_can_create_resource; pscreen->resource_create_with_modifiers = panfrost_resource_create_with_modifiers; pscreen->resource_create = u_transfer_helper_resource_create; pscreen->resource_destroy = u_transfer_helper_resource_destroy; pscreen->resource_from_handle = panfrost_resource_from_handle; pscreen->resource_get_handle = panfrost_resource_get_handle; pscreen->set_resource_label = panfrost_set_resource_label; pscreen->resource_get_param = panfrost_resource_get_param; pscreen->transfer_helper = u_transfer_helper_create( &transfer_vtbl, U_TRANSFER_HELPER_SEPARATE_Z32S8 | U_TRANSFER_HELPER_MSAA_MAP); } void panfrost_resource_screen_destroy(struct pipe_screen *pscreen) { u_transfer_helper_destroy(pscreen->transfer_helper); } void panfrost_resource_context_init(struct pipe_context *pctx) { pctx->buffer_map = u_transfer_helper_transfer_map; pctx->buffer_unmap = u_transfer_helper_transfer_unmap; pctx->texture_map = u_transfer_helper_transfer_map; pctx->texture_unmap = u_transfer_helper_transfer_unmap; pctx->resource_copy_region = util_resource_copy_region; pctx->blit = panfrost_blit; pctx->generate_mipmap = panfrost_generate_mipmap; pctx->flush_resource = panfrost_flush_resource; pctx->invalidate_resource = panfrost_invalidate_resource; pctx->transfer_flush_region = u_transfer_helper_transfer_flush_region; pctx->buffer_subdata = u_default_buffer_subdata; pctx->texture_subdata = u_default_texture_subdata; pctx->clear_buffer = u_default_clear_buffer; pctx->clear_render_target = panfrost_clear_render_target; pctx->clear_depth_stencil = panfrost_clear_depth_stencil; }