/* render_load.c Vulkan render manager loading/creation Copyright (C) 2023 Bill Currie This program is free software; you can redistribute it and/or modify it under the terms of the GNU General Public License as published by the Free Software Foundation; either version 2 of the License, or (at your option) any later version. This program is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for more details. You should have received a copy of the GNU General Public License along with this program; if not, write to: Free Software Foundation, Inc. 59 Temple Place - Suite 330 Boston, MA 02111-1307, USA */ #ifdef HAVE_CONFIG_H # include "config.h" #endif #ifdef HAVE_MATH_H # include #endif #ifdef HAVE_STRING_H # include #endif #ifdef HAVE_STRINGS_H # include #endif #include "QF/cmem.h" #include "QF/hash.h" #include "QF/va.h" #include "QF/Vulkan/command.h" #include "QF/Vulkan/debug.h" #include "QF/Vulkan/device.h" #include "QF/Vulkan/pipeline.h" #include "QF/Vulkan/render.h" #include "QF/Vulkan/resource.h" #include "QF/Vulkan/swapchain.h" #include "vid_vulkan.h" #include "vkparse.h" static qfv_output_t get_output (vulkan_ctx_t *ctx, plitem_t *item) { qfv_output_t output = {}; Vulkan_ConfigOutput (ctx, &output); plitem_t *output_def = PL_ObjectForKey (item, "output"); if (output_def) { // QFV_ParseOutput clears the structure, but extent and frames need to // be preserved qfv_output_t o = output; QFV_ParseOutput (ctx, &o, output_def, item); output.format = o.format; output.finalLayout = o.finalLayout; } return output; } void QFV_LoadRenderInfo (vulkan_ctx_t *ctx) { __auto_type rctx = ctx->render_context; plitem_t *item = Vulkan_GetConfig (ctx, "main_def"); __auto_type output = get_output (ctx, item); Vulkan_Script_SetOutput (ctx, &output); rctx->jobinfo = QFV_ParseJobInfo (ctx, item, rctx); if (rctx->jobinfo) { rctx->jobinfo->plitem = item; } } typedef struct { uint32_t num_images; uint32_t num_imageviews; uint32_t num_buffers; uint32_t num_bufferviews; uint32_t num_layouts; uint32_t num_steps; uint32_t num_render; uint32_t num_compute; uint32_t num_process; uint32_t num_tasks; uint32_t num_renderpasses; uint32_t num_attachments; uint32_t num_subpasses; uint32_t num_dependencies; uint32_t num_attachmentrefs; uint32_t num_colorblend; uint32_t num_preserve; uint32_t num_graph_pipelines; uint32_t num_comp_pipelines; uint32_t num_descriptorsets; } objcount_t; static void count_as_stuff (qfv_attachmentsetinfo_t *as, objcount_t *counts) { counts->num_attachmentrefs += as->num_input; counts->num_attachmentrefs += as->num_color; counts->num_colorblend += as->num_color; if (as->resolve) { counts->num_attachmentrefs += as->num_color; } if (as->depth) { counts->num_attachmentrefs += 1; } counts->num_preserve += as->num_preserve; } static void count_sp_stuff (qfv_subpassinfo_t *spi, objcount_t *counts) { counts->num_dependencies += spi->num_dependencies; if (spi->attachments) { count_as_stuff (spi->attachments, counts); } for (uint32_t i = 0; i < spi->num_pipelines; i++) { __auto_type pli = &spi->pipelines[i]; if (pli->num_graph_stages && !pli->compute_stage) { counts->num_graph_pipelines++; counts->num_tasks += pli->num_tasks; } else { Sys_Error ("%s:%s: invalid graphics pipeline", spi->name, pli->name); } } } static void count_rp_stuff (qfv_renderpassinfo_t *rpi, objcount_t *counts) { counts->num_attachments += rpi->framebuffer.num_attachments; counts->num_subpasses += rpi->num_subpasses; for (uint32_t i = 0; i < rpi->num_subpasses; i++) { count_sp_stuff (&rpi->subpasses[i], counts); } } static void count_comp_stuff (qfv_computeinfo_t *ci, objcount_t *counts) { for (uint32_t i = 0; i < ci->num_pipelines; i++) { __auto_type pli = &ci->pipelines[i]; if (!pli->num_graph_stages && pli->compute_stage) { counts->num_comp_pipelines++; counts->num_tasks += pli->num_tasks; } else { Sys_Error ("%s:%s: invalid compute pipeline", ci->name, pli->name); } } } static void count_step_stuff (qfv_stepinfo_t *step, objcount_t *counts) { if ((step->render && step->compute) || (step->render && step->process) || (step->compute && step->process)) { Sys_Error ("%s: invalid step: must be one of render/compute/process", step->name); } if (step->render) { __auto_type rinfo = step->render; counts->num_renderpasses += rinfo->num_renderpasses; for (uint32_t i = 0; i < rinfo->num_renderpasses; i++) { count_rp_stuff (&rinfo->renderpasses[i], counts); } counts->num_render++; } if (step->compute) { count_comp_stuff (step->compute, counts); counts->num_compute++; } if (step->process) { counts->num_process++; counts->num_tasks += step->process->num_tasks; } counts->num_steps++; } static void count_stuff (qfv_jobinfo_t *jobinfo, objcount_t *counts) { counts->num_images += jobinfo->num_images; counts->num_imageviews += jobinfo->num_imageviews; counts->num_buffers += jobinfo->num_buffers; counts->num_bufferviews += jobinfo->num_bufferviews; for (uint32_t i = 0; i < jobinfo->num_steps; i++) { count_step_stuff (&jobinfo->steps[i], counts); } } static void create_resources (vulkan_ctx_t *ctx, objcount_t *counts) { auto rctx = ctx->render_context; auto jinfo = rctx->jobinfo; auto job = rctx->job; size_t size = sizeof (qfv_resource_t); size += sizeof (qfv_resobj_t [counts->num_images]); size += sizeof (qfv_resobj_t [counts->num_imageviews]); job->resources = malloc (size); job->images = (qfv_resobj_t *) &job->resources[1]; job->image_views = &job->images[counts->num_images]; job->resources[0] = (qfv_resource_t) { .name = "render", .va_ctx = ctx->va_ctx, .memory_properties = VK_MEMORY_PROPERTY_DEVICE_LOCAL_BIT, .num_objects = counts->num_images + counts->num_imageviews, .objects = job->images, }; for (uint32_t i = 0; i < counts->num_images; i++) { __auto_type img = &jinfo->images[i]; job->images[i] = (qfv_resobj_t) { .name = img->name, .type = qfv_res_image, .image = { .flags = img->flags, .type = img->imageType, .format = img->format, .extent = img->extent, .num_mipmaps = img->mipLevels, .num_layers = img->arrayLayers, .samples = img->samples, .tiling = img->tiling, .usage = img->usage, .initialLayout = img->initialLayout, }, }; } int error = 0; for (uint32_t i = 0; i < counts->num_imageviews; i++) { __auto_type view = &jinfo->imageviews[i]; job->image_views[i] = (qfv_resobj_t) { .name = view->name, .type = qfv_res_image_view, .image_view = { .flags = view->flags, .type = view->viewType, .format = view->format, .components = view->components, .subresourceRange = view->subresourceRange, }, }; if (strcmp (view->image.name, "$output.image") == 0) { //__auto_type image = jinfo->output.image; //job->image_views[i].image_view.external_image = image; //job->image_views[i].image_view.image = -1; } else { qfv_resobj_t *img = 0; for (uint32_t j = 0; j < jinfo->num_images; j++) { if (strcmp (view->image.name, jinfo->images[j].name) == 0) { img = &job->images[j]; } } if (img) { uint32_t ind = img - job->resources->objects; job->image_views[i].image_view.image = ind; } else { Sys_Printf ("%d: unknown image reference: %s\n", view->image.line, view->image.name); error = 1; } } } if (error) { free (job->resources); job->resources = 0; return; } QFV_CreateResource (ctx->device, job->resources); } typedef struct { VkRenderPassCreateInfo *rpCreate; VkAttachmentDescription *attach; VkClearValue *clear; VkSubpassDescription *subpass; VkSubpassDependency *depend; VkAttachmentReference *attachref; VkPipelineColorBlendAttachmentState *cbAttach; uint32_t *preserve; const char **rpName; const char **plName; VkComputePipelineCreateInfo *cplCreate; VkGraphicsPipelineCreateInfo *gplCreate; VkPipelineColorBlendStateCreateInfo *cbState; qfv_layoutinfo_t *layouts; uint32_t *pl_counts; VkPipeline *gpl; VkPipeline *cpl; VkRenderPass *rp; } objptr_t; typedef struct { objcount_t inds; objptr_t ptr; vulkan_ctx_t *ctx; qfv_jobinfo_t *jinfo; exprtab_t *symtab; qfv_renderpassinfo_t *rpi; VkRenderPassCreateInfo *rpc; qfv_subpassinfo_t *spi; VkSubpassDescription *spc; qfv_pipelineinfo_t *pli; VkGraphicsPipelineCreateInfo *plc; } objstate_t; static uint32_t __attribute__((pure)) find_subpass (qfv_dependencyinfo_t *d, uint32_t spind, qfv_subpassinfo_t *subpasses) { if (strcmp (d->name, "$external") == 0) { return VK_SUBPASS_EXTERNAL; } for (uint32_t i = 0; i <= spind; i++) { __auto_type s = &subpasses[i]; if (strcmp (d->name, s->name) == 0) { return i; } } Sys_Error ("invalid dependency: [%d] %s", spind, d->name); } static VkDescriptorSetLayout find_descriptorSet (const qfv_reference_t *ref, objstate_t *s) { for (uint32_t i = 0; i < s->jinfo->num_descriptorsetlayouts; i++) { __auto_type ds = &s->jinfo->descriptorsetlayouts[i]; if (strcmp (ds->name, ref->name) == 0) { if (!ds->setLayout) { VkDescriptorSetLayoutCreateInfo cInfo = { .sType=VK_STRUCTURE_TYPE_DESCRIPTOR_SET_LAYOUT_CREATE_INFO, .flags = ds->flags, .bindingCount = ds->num_bindings, .pBindings = ds->bindings, }; qfv_device_t *device = s->ctx->device; qfv_devfuncs_t *dfunc = device->funcs; dfunc->vkCreateDescriptorSetLayout (device->dev, &cInfo, 0, &ds->setLayout); QFV_duSetObjectName (device, VK_OBJECT_TYPE_DESCRIPTOR_SET_LAYOUT, ds->setLayout, va (s->ctx->va_ctx, "descriptorSet:%s", ds->name)); } return ds->setLayout; } } Sys_Error ("%s.%s:%d: invalid descriptor set layout: %s", s->rpi->name, s->spi->name, ref->line, ref->name); } #define RUP(x,a) (((x) + ((a) - 1)) & ~((a) - 1)) static uint32_t parse_pushconstantrange (VkPushConstantRange *range, qfv_pushconstantrangeinfo_t *pushconstantrange, uint32_t offset, objstate_t *s) { uint32_t range_offset = ~0u; for (uint32_t i = 0; i < pushconstantrange->num_pushconstants; i++) { __auto_type pushconstant = & pushconstantrange->pushconstants[i]; uint32_t size = 0; if (pushconstant->offset != ~0u) { offset = pushconstant->offset; } if (pushconstant->size != ~0u) { size = pushconstant->size; } else { switch (pushconstant->type) { case qfv_float: case qfv_int: case qfv_uint: size = sizeof (int32_t); offset = RUP (offset, sizeof (int32_t)); break; case qfv_vec3: size = sizeof (vec3_t); offset = RUP (offset, sizeof (vec4f_t)); break; case qfv_vec4: size = sizeof (vec4f_t); offset = RUP (offset, sizeof (vec4f_t)); break; case qfv_mat4: size = sizeof (mat4f_t); offset = RUP (offset, sizeof (vec4f_t)); break; default: Sys_Error ("%s.%s:%s:%d invalid type: %d", s->rpi->name, s->spi->name, pushconstant->name, pushconstant->line, pushconstant->type); } } if (range_offset == ~0u) { range_offset = offset; } offset += size; } *range = (VkPushConstantRange) { .stageFlags = pushconstantrange->stageFlags, .offset = range_offset, .size = offset - range_offset, }; return offset; } static qfv_layoutinfo_t * find_layout (const qfv_reference_t *ref, objstate_t *s) { for (uint32_t i = 0; i < s->inds.num_layouts; i++) { if (strcmp (s->ptr.layouts[i].name, ref->name) == 0) { return &s->ptr.layouts[i]; } } if (!QFV_ParseLayoutInfo (s->ctx, s->jinfo->memsuper, s->symtab, ref->name, &s->ptr.layouts[s->inds.num_layouts])) { Sys_Error ("%s.%s:%d: invalid layout: %s", s->rpi->name, s->spi->name, ref->line, ref->name); } __auto_type li = &s->ptr.layouts[s->inds.num_layouts++]; li->name = ref->name; VkDescriptorSetLayout sets[li->num_sets]; for (uint32_t i = 0; i < li->num_sets; i++) { sets[i] = find_descriptorSet (&li->sets[i], s); } VkPushConstantRange ranges[li->num_pushconstantranges]; uint32_t offset = 0; for (uint32_t i = 0; i < li->num_pushconstantranges; i++) { offset = parse_pushconstantrange (&ranges[i], &li->pushconstantranges[i], offset, s); } VkPipelineLayoutCreateInfo cInfo = { .sType = VK_STRUCTURE_TYPE_PIPELINE_LAYOUT_CREATE_INFO, .setLayoutCount = li->num_sets, .pSetLayouts = sets, .pushConstantRangeCount = li->num_pushconstantranges, .pPushConstantRanges = ranges, }; qfv_device_t *device = s->ctx->device; qfv_devfuncs_t *dfunc = device->funcs; dfunc->vkCreatePipelineLayout (device->dev, &cInfo, 0, &li->layout); QFV_duSetObjectName (device, VK_OBJECT_TYPE_PIPELINE_LAYOUT, li->layout, va (s->ctx->va_ctx, "layout:%s", li->name)); return li; } static void init_plCreate (VkGraphicsPipelineCreateInfo *plc, const qfv_pipelineinfo_t *pli, objstate_t *s) { if (pli->num_graph_stages) { plc->stageCount = pli->num_graph_stages; } if (pli->graph_stages) { plc->pStages = pli->graph_stages; } if (pli->vertexInput) { plc->pVertexInputState = pli->vertexInput; } if (pli->inputAssembly) { plc->pInputAssemblyState = pli->inputAssembly; } if (pli->tessellation) { plc->pTessellationState = pli->tessellation; } if (pli->viewport) { plc->pViewportState = pli->viewport; } if (pli->rasterization) { plc->pRasterizationState = pli->rasterization; } if (pli->multisample) { plc->pMultisampleState = pli->multisample; } if (pli->depthStencil) { plc->pDepthStencilState = pli->depthStencil; } if (pli->colorBlend) { VkPipelineColorBlendStateCreateInfo *cb; cb = (VkPipelineColorBlendStateCreateInfo *) plc->pColorBlendState; *cb = *pli->colorBlend; } if (pli->dynamic) { plc->pDynamicState = pli->dynamic; } if (pli->layout.name) { __auto_type li = find_layout (&pli->layout, s); plc->layout = li->layout; s->inds.num_descriptorsets += li->num_sets; } } static uint32_t __attribute__((pure)) find_attachment (qfv_reference_t *ref, objstate_t *s) { for (uint32_t i = 0; i < s->rpi->framebuffer.num_attachments; i++) { __auto_type a = &s->rpi->framebuffer.attachments[i]; if (strcmp (ref->name, a->name) == 0) { return i; } } Sys_Error ("%s.%s:%d: invalid attachment: %s", s->rpi->name, s->spi->name, ref->line, ref->name); } static void init_arCreate (const qfv_attachmentrefinfo_t *ari, objstate_t *s) { __auto_type arc = &s->ptr.attachref[s->inds.num_attachmentrefs]; qfv_reference_t ref = { .name = ari->name, .line = ari->line, }; *arc = (VkAttachmentReference) { .attachment = find_attachment (&ref, s), .layout = ari->layout, }; } static void init_cbCreate (const qfv_attachmentrefinfo_t *ari, objstate_t *s) { __auto_type cbc = &s->ptr.cbAttach[s->inds.num_colorblend]; *cbc = ari->blend; } static void init_spCreate (uint32_t index, qfv_subpassinfo_t *sub, objstate_t *s) { s->spi = &sub[index]; s->plc = &s->ptr.gplCreate[s->inds.num_graph_pipelines]; s->spc = &s->ptr.subpass[s->inds.num_subpasses]; __auto_type pln = &s->ptr.plName[s->inds.num_graph_pipelines]; __auto_type cbs = &s->ptr.cbState[s->inds.num_graph_pipelines]; s->ptr.pl_counts[s->inds.num_renderpasses] += s->spi->num_pipelines; *s->spc = (VkSubpassDescription) { .pipelineBindPoint = VK_PIPELINE_BIND_POINT_GRAPHICS, }; for (uint32_t i = 0; i < s->spi->num_dependencies; i++) { __auto_type d = &s->spi->dependencies[i]; __auto_type dep = &s->ptr.depend[s->inds.num_dependencies++]; *dep = (VkSubpassDependency) { .srcSubpass = find_subpass (d, index, s->rpi->subpasses), .dstSubpass = index, .srcStageMask = d->src.stage, .dstStageMask = d->dst.stage, .srcAccessMask = d->src.access, .dstAccessMask = d->dst.access, .dependencyFlags = d->flags, }; } for (uint32_t i = 0; i < s->spi->num_pipelines; i++) { s->plc[i] = (VkGraphicsPipelineCreateInfo) { .sType = VK_STRUCTURE_TYPE_GRAPHICS_PIPELINE_CREATE_INFO, .pColorBlendState = &cbs[i], .subpass = index, }; if (s->spi->base_pipeline) { init_plCreate (&s->plc[i], s->spi->base_pipeline, s); } init_plCreate (&s->plc[i], &s->spi->pipelines[i], s); pln[i] = s->spi->name; s->inds.num_graph_pipelines++; } __auto_type att = s->spi->attachments; if (!att) { return; } for (uint32_t i = 0; i < s->spi->num_pipelines; i++) { cbs[i].attachmentCount = att->num_color; cbs[i].pAttachments = &s->ptr.cbAttach[s->inds.num_colorblend]; } s->spc->inputAttachmentCount = att->num_input; s->spc->pInputAttachments = &s->ptr.attachref[s->inds.num_attachmentrefs]; for (uint32_t i = 0; i < att->num_input; i++) { init_arCreate (&att->input[i], s); s->inds.num_attachmentrefs++; } s->spc->colorAttachmentCount = att->num_color; s->spc->pColorAttachments = &s->ptr.attachref[s->inds.num_attachmentrefs]; for (uint32_t i = 0; i < att->num_color; i++) { init_arCreate (&att->color[i], s); s->inds.num_attachmentrefs++; init_cbCreate (&att->color[i], s); s->inds.num_colorblend++; } if (att->resolve) { s->spc->pResolveAttachments = &s->ptr.attachref[s->inds.num_attachmentrefs]; for (uint32_t i = 0; i < att->num_color; i++) { init_arCreate (&att->resolve[i], s); s->inds.num_attachmentrefs++; } } if (att->depth) { s->spc->pDepthStencilAttachment = &s->ptr.attachref[s->inds.num_attachmentrefs]; init_arCreate (att->depth, s); s->inds.num_attachmentrefs++; } s->spc->preserveAttachmentCount = att->num_preserve; s->spc->pPreserveAttachments = &s->ptr.preserve[s->inds.num_preserve]; for (uint32_t i = 0; i < att->num_preserve; i++) { s->ptr.preserve[s->inds.num_preserve] = find_attachment (&att->preserve[i], s); s->inds.num_preserve++; } } static void init_atCreate (uint32_t index, qfv_attachmentinfo_t *attachments, objstate_t *s) { __auto_type ati = &attachments[index]; __auto_type atc = &s->ptr.attach[s->inds.num_attachments]; __auto_type cvc = &s->ptr.clear[s->inds.num_attachments]; if (ati->external) { if (!strcmp (ati->external, "$swapchain")) { *atc = (VkAttachmentDescription) { .format = s->ctx->swapchain->format, .samples = 1, .loadOp = VK_ATTACHMENT_LOAD_OP_CLEAR, .storeOp = VK_ATTACHMENT_STORE_OP_STORE, .stencilLoadOp = VK_ATTACHMENT_LOAD_OP_DONT_CARE, .stencilStoreOp = VK_ATTACHMENT_STORE_OP_DONT_CARE, .initialLayout = VK_IMAGE_LAYOUT_UNDEFINED, .finalLayout = VK_IMAGE_LAYOUT_PRESENT_SRC_KHR, }; } } else { *atc = (VkAttachmentDescription) { .flags = ati->flags, .format = ati->format, .samples = ati->samples, .loadOp = ati->loadOp, .storeOp = ati->storeOp, .stencilLoadOp = ati->stencilLoadOp, .stencilStoreOp = ati->stencilStoreOp, .initialLayout = ati->initialLayout, .finalLayout = ati->finalLayout, }; } *cvc = ati->clearValue; } static void init_rpCreate (uint32_t index, const qfv_renderinfo_t *rinfo, objstate_t *s) { s->rpi = &rinfo->renderpasses[index]; s->rpc = &s->ptr.rpCreate[s->inds.num_renderpasses]; s->ptr.rpName[s->inds.num_renderpasses] = s->rpi->name; __auto_type attachments = &s->ptr.attach[s->inds.num_attachments]; __auto_type subpasses = &s->ptr.subpass[s->inds.num_subpasses]; __auto_type dependencies = &s->ptr.depend[s->inds.num_dependencies]; for (uint32_t i = 0; i < s->rpi->framebuffer.num_attachments; i++) { init_atCreate (i, s->rpi->framebuffer.attachments, s); s->inds.num_attachments++; } uint32_t num_dependencies = s->inds.num_dependencies; for (uint32_t i = 0; i < s->rpi->num_subpasses; i++) { init_spCreate (i, s->rpi->subpasses, s); s->inds.num_subpasses++; } num_dependencies = s->inds.num_dependencies - num_dependencies; *s->rpc = (VkRenderPassCreateInfo) { .sType = VK_STRUCTURE_TYPE_RENDER_PASS_CREATE_INFO, .attachmentCount = s->rpi->framebuffer.num_attachments, .pAttachments = attachments, .subpassCount = s->rpi->num_subpasses, .pSubpasses = subpasses, .dependencyCount = num_dependencies, .pDependencies = dependencies, }; } typedef struct { qfv_step_t *steps; qfv_render_t *renders; qfv_compute_t *computes; qfv_process_t *processes; qfv_renderpass_t *renderpasses; VkClearValue *clearvalues; qfv_subpass_t *subpasses; qfv_pipeline_t *pipelines; qfv_taskinfo_t *tasks; VkDescriptorSet *descriptorsets; } jobptr_t; static void init_pipeline (qfv_pipeline_t *pl, qfv_pipelineinfo_t *plinfo, jobptr_t *jp, objstate_t *s, int is_compute) { __auto_type li = find_layout (&plinfo->layout, s); *pl = (qfv_pipeline_t) { .label = { .name = plinfo->name, .color = plinfo->color, }, .bindPoint = is_compute ? VK_PIPELINE_BIND_POINT_COMPUTE : VK_PIPELINE_BIND_POINT_GRAPHICS, .pipeline = is_compute ? s->ptr.cpl[s->inds.num_comp_pipelines] : s->ptr.gpl[s->inds.num_graph_pipelines], .layout = li->layout, .task_count = plinfo->num_tasks, .tasks = &jp->tasks[s->inds.num_tasks], .descriptorsets = &jp->descriptorsets[s->inds.num_descriptorsets], }; s->inds.num_tasks += plinfo->num_tasks; s->inds.num_descriptorsets += li->num_sets; for (uint32_t i = 0; i < li->num_sets; i++) { pl->descriptorsets[i] = 0; } for (uint32_t i = 0; i < pl->task_count; i++) { pl->tasks[i] = plinfo->tasks[i]; } } static void init_subpass (qfv_subpass_t *sp, qfv_subpassinfo_t *isp, jobptr_t *jp, objstate_t *s) { uint32_t np = s->inds.num_graph_pipelines + s->inds.num_comp_pipelines; *sp = (qfv_subpass_t) { .label = { .name = isp->name, .color = isp->color, }, .inherit = { .sType = VK_STRUCTURE_TYPE_COMMAND_BUFFER_INHERITANCE_INFO, }, .beginInfo = { .sType = VK_STRUCTURE_TYPE_COMMAND_BUFFER_BEGIN_INFO, .flags = VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT | VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT, .pInheritanceInfo = &sp->inherit, }, .pipeline_count = isp->num_pipelines, .pipelines = &jp->pipelines[np], }; for (uint32_t i = 0; i < isp->num_pipelines; i++) { init_pipeline (&sp->pipelines[i], &isp->pipelines[i], jp, s, 0); s->inds.num_graph_pipelines++; } } static void init_renderpass (qfv_renderpass_t *rp, qfv_renderpassinfo_t *rpinfo, jobptr_t *jp, objstate_t *s) { *rp = (qfv_renderpass_t) { .vulkan_ctx = s->ctx, .label.name = rpinfo->name, .label.color = rpinfo->color, .beginInfo = (VkRenderPassBeginInfo) { .sType = VK_STRUCTURE_TYPE_RENDER_PASS_BEGIN_INFO, .renderPass = s->ptr.rp[s->inds.num_renderpasses], .clearValueCount = rpinfo->framebuffer.num_attachments, .pClearValues = &jp->clearvalues[s->inds.num_attachments], }, .framebufferinfo = &rpinfo->framebuffer, .subpassContents = VK_SUBPASS_CONTENTS_SECONDARY_COMMAND_BUFFERS, .subpass_count = rpinfo->num_subpasses, .subpasses = &jp->subpasses[s->inds.num_subpasses], }; s->inds.num_attachments += rpinfo->framebuffer.num_attachments; for (uint32_t i = 0; i < rpinfo->num_subpasses; i++) { init_subpass (&rp->subpasses[i], &rpinfo->subpasses[i], jp, s); rp->subpasses[i].inherit.renderPass = rp->beginInfo.renderPass; rp->subpasses[i].inherit.subpass = i; s->inds.num_subpasses++; } } static void init_render (qfv_render_t *rend, qfv_renderinfo_t *rinfo, jobptr_t *jp, objstate_t *s) { *rend = (qfv_render_t) { .label.color = rinfo->color, .label.name = rinfo->name, .num_renderpasses = rinfo->num_renderpasses, .renderpasses = &jp->renderpasses[s->inds.num_renderpasses], }; for (uint32_t i = 0; i < rend->num_renderpasses; i++) { init_renderpass (&rend->renderpasses[i], &rinfo->renderpasses[i], jp, s); s->inds.num_renderpasses++; } rend->active = &rend->renderpasses[0]; } static void init_compute (qfv_compute_t *comp, qfv_computeinfo_t *cinfo, jobptr_t *jp, objstate_t *s) { uint32_t np = s->inds.num_graph_pipelines + s->inds.num_comp_pipelines; *comp = (qfv_compute_t) { .label.color = cinfo->color, .label.name = cinfo->name, .pipelines = &jp->pipelines[np], .pipeline_count = cinfo->num_pipelines, }; for (uint32_t i = 0; i < cinfo->num_pipelines; i++) { init_pipeline (&comp->pipelines[i], &cinfo->pipelines[i], jp, s, 1); s->inds.num_comp_pipelines++; } } static void init_process (qfv_process_t *proc, qfv_processinfo_t *pinfo, jobptr_t *jp, objstate_t *s) { *proc = (qfv_process_t) { .label.color = pinfo->color, .label.name = pinfo->name, .tasks = &jp->tasks[s->inds.num_tasks], .task_count = pinfo->num_tasks, }; s->inds.num_tasks += pinfo->num_tasks; for (uint32_t i = 0; i < proc->task_count; i++) { proc->tasks[i] = pinfo->tasks[i]; } } static void init_step (uint32_t ind, jobptr_t *jp, objstate_t *s) { __auto_type step = &jp->steps[s->inds.num_steps++]; __auto_type sinfo = &s->jinfo->steps[ind]; *step = (qfv_step_t) { .label.name = sinfo->name, .label.color = sinfo->color, }; if (sinfo->render) { step->render = &jp->renders[s->inds.num_render++]; init_render (step->render, sinfo->render, jp, s); } if (sinfo->compute) { step->compute = &jp->computes[s->inds.num_compute++]; init_compute (step->compute, sinfo->compute, jp, s); } if (sinfo->process) { step->process = &jp->processes[s->inds.num_process++]; init_process (step->process, sinfo->process, jp, s); } } static void init_job (vulkan_ctx_t *ctx, objcount_t *counts, objstate_t s) { __auto_type rctx = ctx->render_context; size_t size = sizeof (qfv_job_t); size += sizeof (qfv_step_t [counts->num_steps]); size += sizeof (qfv_render_t [counts->num_render]); size += sizeof (qfv_compute_t [counts->num_compute]); size += sizeof (qfv_process_t [counts->num_process]); size += sizeof (qfv_renderpass_t [counts->num_renderpasses]); size += sizeof (qfv_subpass_t [counts->num_subpasses]); size += sizeof (qfv_pipeline_t [counts->num_graph_pipelines]); size += sizeof (qfv_pipeline_t [counts->num_comp_pipelines]); size += sizeof (qfv_taskinfo_t [counts->num_tasks]); size += sizeof (VkClearValue [counts->num_attachments]); size += sizeof (VkRenderPass [counts->num_renderpasses]); size += sizeof (VkPipeline [counts->num_graph_pipelines]); size += sizeof (VkPipeline [counts->num_comp_pipelines]); size += sizeof (VkPipelineLayout [s.inds.num_layouts]); size += sizeof (VkDescriptorSet [counts->num_descriptorsets]); rctx->job = malloc (size); auto job = rctx->job; *job = (qfv_job_t) { .num_renderpasses = counts->num_renderpasses, .num_pipelines = counts->num_graph_pipelines + counts->num_comp_pipelines, .num_layouts = s.inds.num_layouts, .num_steps = counts->num_steps, .commands = DARRAY_STATIC_INIT (16), }; job->steps = (qfv_step_t *) &job[1]; auto rn = (qfv_render_t *) &job->steps[job->num_steps]; auto cp = (qfv_compute_t *) &rn[counts->num_render]; auto pr = (qfv_process_t *) &cp[counts->num_compute]; auto rp = (qfv_renderpass_t *) &pr[counts->num_process]; auto sp = (qfv_subpass_t *) &rp[counts->num_renderpasses]; auto pl = (qfv_pipeline_t *) &sp[counts->num_subpasses]; auto ti = (qfv_taskinfo_t *) &pl[job->num_pipelines]; auto cv = (VkClearValue *) &ti[counts->num_tasks]; job->renderpasses = (VkRenderPass *) &cv[counts->num_attachments]; job->pipelines = (VkPipeline *) &job->renderpasses[job->num_renderpasses]; job->layouts = (VkPipelineLayout *) &job->pipelines[job->num_pipelines]; auto ds = (VkDescriptorSet *) &job->layouts[job->num_layouts]; jobptr_t jp = { .steps = job->steps, .renders = rn, .computes = cp, .processes = pr, .renderpasses = rp, .clearvalues = cv, .subpasses = sp, .pipelines = pl, .tasks = ti, .descriptorsets = ds, }; for (uint32_t i = 0; i < job->num_renderpasses; i++) { job->renderpasses[i] = s.ptr.rp[i]; } for (uint32_t i = 0; i < job->num_pipelines; i++) { // compute pipelines come immediately after the graphics pipelines job->pipelines[i] = s.ptr.gpl[i]; } for (uint32_t i = 0; i < s.inds.num_layouts; i++) { job->layouts[i] = s.ptr.layouts[i].layout; } memcpy (cv, s.ptr.clear, sizeof (VkClearValue [counts->num_attachments ])); uint32_t num_layouts = s.inds.num_layouts; s.inds = (objcount_t) {}; s.inds.num_layouts = num_layouts; for (uint32_t i = 0; i < job->num_steps; i++) { init_step (i, &jp, &s); } } static void create_step_render_objects (uint32_t index, const qfv_stepinfo_t *step, objstate_t *s) { __auto_type rinfo = step->render; if (!rinfo) { return; } for (uint32_t i = 0; i < rinfo->num_renderpasses; i++) { s->ptr.pl_counts[s->inds.num_renderpasses] = 0; init_rpCreate (i, rinfo, s); s->inds.num_renderpasses++; } } static void create_step_compute_objects (uint32_t index, const qfv_stepinfo_t *step, objstate_t *s) { __auto_type cinfo = step->compute; if (!cinfo) { return; } uint32_t base = s->inds.num_graph_pipelines; for (uint32_t i = 0; i < cinfo->num_pipelines; i++) { __auto_type pli = &cinfo->pipelines[i]; __auto_type plc = &s->ptr.cplCreate[s->inds.num_comp_pipelines]; __auto_type li = find_layout (&pli->layout, s); s->ptr.plName[base + s->inds.num_comp_pipelines] = pli->name; *plc = (VkComputePipelineCreateInfo) { .sType = VK_STRUCTURE_TYPE_COMPUTE_PIPELINE_CREATE_INFO, .flags = pli->flags, .stage = *pli->compute_stage, .layout = li->layout, }; plc->stage.stage = VK_SHADER_STAGE_COMPUTE_BIT; s->inds.num_comp_pipelines++; s->inds.num_descriptorsets += li->num_sets; } } static void create_step_process_objects (uint32_t index, const qfv_stepinfo_t *step, objstate_t *s) { __auto_type pinfo = step->process; if (!pinfo) { return; } // nothing to create at this stage } static void create_objects (vulkan_ctx_t *ctx, objcount_t *counts) { __auto_type rctx = ctx->render_context; __auto_type jinfo = rctx->jobinfo; VkRenderPass renderpasses[counts->num_renderpasses]; VkPipeline pipelines[counts->num_graph_pipelines + counts->num_comp_pipelines]; VkRenderPassCreateInfo rpCreate[counts->num_renderpasses]; VkAttachmentDescription attach[counts->num_attachments]; VkClearValue clear[counts->num_attachments]; VkSubpassDescription subpass[counts->num_subpasses]; VkSubpassDependency depend[counts->num_dependencies]; VkAttachmentReference attachref[counts->num_attachmentrefs]; VkPipelineColorBlendAttachmentState cbAttach[counts->num_colorblend]; uint32_t preserve[counts->num_preserve]; const char *rpName[counts->num_renderpasses]; const char *plName[counts->num_graph_pipelines + counts->num_comp_pipelines]; VkComputePipelineCreateInfo cplCreate[counts->num_comp_pipelines]; VkGraphicsPipelineCreateInfo gplCreate[counts->num_graph_pipelines]; VkPipelineColorBlendStateCreateInfo cbState[counts->num_graph_pipelines]; qfv_layoutinfo_t layouts[counts->num_graph_pipelines + counts->num_comp_pipelines]; uint32_t pl_counts[counts->num_renderpasses]; exprctx_t ectx = { .hashctx = &ctx->script_context->hashctx }; objstate_t s = { .ptr = { .rpCreate = rpCreate, .attach = attach, .clear = clear, .subpass = subpass, .depend = depend, .attachref = attachref, .cbAttach = cbAttach, .preserve = preserve, .rpName = rpName, .plName = plName, .cplCreate = cplCreate, .gplCreate = gplCreate, .cbState = cbState, .layouts = layouts, .pl_counts = pl_counts, .rp = renderpasses, .gpl = pipelines, .cpl = pipelines + counts->num_graph_pipelines, }, .ctx = ctx, .jinfo = jinfo, .symtab = QFV_CreateSymtab (jinfo->plitem, "properties", 0, 0, &ectx), }; for (uint32_t i = 0; i < jinfo->num_steps; i++) { create_step_render_objects (i, &jinfo->steps[i], &s); } for (uint32_t i = 0; i < jinfo->num_steps; i++) { create_step_compute_objects (i, &jinfo->steps[i], &s); } for (uint32_t i = 0; i < jinfo->num_steps; i++) { create_step_process_objects (i, &jinfo->steps[i], &s); } if (s.inds.num_renderpasses != counts->num_renderpasses || s.inds.num_attachments != counts->num_attachments || s.inds.num_subpasses != counts->num_subpasses || s.inds.num_dependencies != counts->num_dependencies || s.inds.num_attachmentrefs != counts->num_attachmentrefs || s.inds.num_colorblend != counts->num_colorblend || s.inds.num_preserve != counts->num_preserve || s.inds.num_graph_pipelines != counts->num_graph_pipelines || s.inds.num_comp_pipelines != counts->num_comp_pipelines) { Sys_Error ("create_objects: something was missed"); } qfv_device_t *device = ctx->device; qfv_devfuncs_t *dfunc = device->funcs; uint32_t plInd = 0; for (uint32_t i = 0; i < counts->num_renderpasses; i++) { dfunc->vkCreateRenderPass (device->dev, &s.ptr.rpCreate[i], 0, &renderpasses[i]); QFV_duSetObjectName (device, VK_OBJECT_TYPE_RENDER_PASS, renderpasses[i], va (ctx->va_ctx, "renderpass:%s", rpName[i])); for (uint32_t j = 0; j < pl_counts[i]; j++) { s.ptr.gplCreate[plInd++].renderPass = renderpasses[i]; } } if (s.inds.num_graph_pipelines) { dfunc->vkCreateGraphicsPipelines (device->dev, 0, s.inds.num_graph_pipelines, s.ptr.gplCreate, 0, pipelines); } if (s.inds.num_comp_pipelines) { __auto_type p = &pipelines[s.inds.num_graph_pipelines]; dfunc->vkCreateComputePipelines (device->dev, 0, s.inds.num_comp_pipelines, s.ptr.cplCreate, 0, p); } for (uint32_t i = 0; i < s.inds.num_graph_pipelines + s.inds.num_comp_pipelines; i++) { QFV_duSetObjectName (device, VK_OBJECT_TYPE_PIPELINE, pipelines[i], va (ctx->va_ctx, "pipeline:%s", plName[i])); } counts->num_descriptorsets = s.inds.num_descriptorsets; init_job (ctx, counts, s); for (uint32_t i = 0; i < ctx->frames.size; i++) { VkCommandPoolCreateInfo poolCInfo = { .sType = VK_STRUCTURE_TYPE_COMMAND_POOL_CREATE_INFO, .flags = VK_COMMAND_POOL_CREATE_TRANSIENT_BIT, .queueFamilyIndex = device->queue.queueFamily, }; auto frame = &ctx->frames.a[i]; dfunc->vkCreateCommandPool (device->dev, &poolCInfo, 0, &frame->command_pool); } } void QFV_BuildRender (vulkan_ctx_t *ctx) { __auto_type rctx = ctx->render_context; objcount_t counts = {}; count_stuff (rctx->jobinfo, &counts); create_objects (ctx, &counts); create_resources (ctx, &counts); }