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Separate queues for every render layer

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main
Cameron Murphy Reikes 2 years ago
parent 33a19ce611
commit c726237d31
1 changed files with 123 additions and 107 deletions
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230
main.c
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@ -1400,6 +1400,16 @@ void flush_quad_batch()
cur_batch_data_index = 0;
}
typedef enum
{
LAYER_TILEMAP,
LAYER_WORLD,
LAYER_UI,
LAYER_UI_FG,
LAYER_LAST
} Layer;
#define Y_COORD_IN_BACK (-1.0f)
#define Y_COORD_IN_FRONT (3.0f)
typedef struct DrawParams
@ -1415,11 +1425,9 @@ typedef struct DrawParams
float alpha_clip_threshold;
bool do_clipping;
Layer layer;
} DrawParams;
BUFF(DrawParams, 1024*5) rendering_queue = {0};
Vec2 into_clip_space(Vec2 screen_space_point)
{
Vec2 zero_to_one = DivV2(screen_space_point, screen_size());
@ -1427,6 +1435,9 @@ Vec2 into_clip_space(Vec2 screen_space_point)
return in_clip_space;
}
typedef BUFF(DrawParams, 1024*5) RenderingQueue;
RenderingQueue rendering_queues[LAYER_LAST] = {0};
// The image region is in pixel space of the image
void draw_quad(DrawParams d)
{
@ -1441,7 +1452,8 @@ void draw_quad(DrawParams d)
// we've aplied the world space transform
d.world_space = false;
BUFF_APPEND(&rendering_queue, d);
assert(d.layer >= 0 && d.layer < ARRLEN(rendering_queues));
BUFF_APPEND(&rendering_queues[(int)d.layer], d);
}
int rendering_compare(const void *a, const void *b)
@ -3910,127 +3922,131 @@ F cost: G + H
PROFILE_SCOPE("flush rendering")
{
qsort(&rendering_queue.data[0], rendering_queue.cur_index, sizeof(rendering_queue.data[0]), rendering_compare);
BUFF_ITER(DrawParams, &rendering_queue)
ARR_ITER(RenderingQueue, rendering_queues)
{
DrawParams d = *it;
PROFILE_SCOPE("Draw quad")
RenderingQueue *rendering_queue = it;
qsort(&rendering_queue->data[0], rendering_queue->cur_index, sizeof(rendering_queue->data[0]), rendering_compare);
BUFF_ITER(DrawParams, rendering_queue)
{
Vec2 *points = d.quad.points;
quad_fs_params_t params = {0};
params.tint[0] = d.tint.R;
params.tint[1] = d.tint.G;
params.tint[2] = d.tint.B;
params.tint[3] = d.tint.A;
params.alpha_clip_threshold = d.alpha_clip_threshold;
if(d.do_clipping &&
aabb_is_valid(d.clip_to) && LenV2(aabb_size(d.clip_to)) > 0.1)
DrawParams d = *it;
PROFILE_SCOPE("Draw quad")
{
if(d.world_space)
Vec2 *points = d.quad.points;
quad_fs_params_t params = {0};
params.tint[0] = d.tint.R;
params.tint[1] = d.tint.G;
params.tint[2] = d.tint.B;
params.tint[3] = d.tint.A;
params.alpha_clip_threshold = d.alpha_clip_threshold;
if(d.do_clipping &&
aabb_is_valid(d.clip_to) && LenV2(aabb_size(d.clip_to)) > 0.1)
{
d.clip_to.upper_left = world_to_screen(d.clip_to.upper_left);
d.clip_to.lower_right = world_to_screen(d.clip_to.lower_right);
if(d.world_space)
{
d.clip_to.upper_left = world_to_screen(d.clip_to.upper_left);
d.clip_to.lower_right = world_to_screen(d.clip_to.lower_right);
}
Vec2 aabb_clip_ul = into_clip_space(d.clip_to.upper_left);
Vec2 aabb_clip_lr = into_clip_space(d.clip_to.lower_right);
params.clip_ul[0] = aabb_clip_ul.x;
params.clip_ul[1] = aabb_clip_ul.y;
params.clip_lr[0] = aabb_clip_lr.x;
params.clip_lr[1] = aabb_clip_lr.y;
}
else
{
params.clip_ul[0] = -1.0;
params.clip_ul[1] = 1.0;
params.clip_lr[0] = 1.0;
params.clip_lr[1] = -1.0;
}
// if the rendering call is different, and the batch must be flushed
if(d.image.id != cur_batch_image.id || memcmp(&params,&cur_batch_params,sizeof(params)) != 0 )
{
flush_quad_batch();
cur_batch_image = d.image;
cur_batch_params = params;
}
Vec2 aabb_clip_ul = into_clip_space(d.clip_to.upper_left);
Vec2 aabb_clip_lr = into_clip_space(d.clip_to.lower_right);
params.clip_ul[0] = aabb_clip_ul.x;
params.clip_ul[1] = aabb_clip_ul.y;
params.clip_lr[0] = aabb_clip_lr.x;
params.clip_lr[1] = aabb_clip_lr.y;
}
else
{
params.clip_ul[0] = -1.0;
params.clip_ul[1] = 1.0;
params.clip_lr[0] = 1.0;
params.clip_lr[1] = -1.0;
}
// if the rendering call is different, and the batch must be flushed
if(d.image.id != cur_batch_image.id || memcmp(&params,&cur_batch_params,sizeof(params)) != 0 )
{
flush_quad_batch();
cur_batch_image = d.image;
cur_batch_params = params;
}
AABB cam_aabb = screen_cam_aabb();
AABB points_bounding_box = { .upper_left = V2(INFINITY, -INFINITY), .lower_right = V2(-INFINITY, INFINITY) };
AABB cam_aabb = screen_cam_aabb();
AABB points_bounding_box = { .upper_left = V2(INFINITY, -INFINITY), .lower_right = V2(-INFINITY, INFINITY) };
for(int i = 0; i < 4; i++)
{
points_bounding_box.upper_left.X = fminf(points_bounding_box.upper_left.X, points[i].X);
points_bounding_box.upper_left.Y = fmaxf(points_bounding_box.upper_left.Y, points[i].Y);
for(int i = 0; i < 4; i++)
{
points_bounding_box.upper_left.X = fminf(points_bounding_box.upper_left.X, points[i].X);
points_bounding_box.upper_left.Y = fmaxf(points_bounding_box.upper_left.Y, points[i].Y);
points_bounding_box.lower_right.X = fmaxf(points_bounding_box.lower_right.X, points[i].X);
points_bounding_box.lower_right.Y = fminf(points_bounding_box.lower_right.Y, points[i].Y);
}
if(!overlapping(cam_aabb, points_bounding_box))
{
//dbgprint("Out of screen, cam aabb %f %f %f %f\n", cam_aabb.upper_left.X, cam_aabb.upper_left.Y, cam_aabb.lower_right.X, cam_aabb.lower_right.Y);
//dbgprint("Points boundig box %f %f %f %f\n", points_bounding_box.upper_left.X, points_bounding_box.upper_left.Y, points_bounding_box.lower_right.X, points_bounding_box.lower_right.Y);
continue; // cull out of screen quads
}
points_bounding_box.lower_right.X = fmaxf(points_bounding_box.lower_right.X, points[i].X);
points_bounding_box.lower_right.Y = fminf(points_bounding_box.lower_right.Y, points[i].Y);
}
if(!overlapping(cam_aabb, points_bounding_box))
{
//dbgprint("Out of screen, cam aabb %f %f %f %f\n", cam_aabb.upper_left.X, cam_aabb.upper_left.Y, cam_aabb.lower_right.X, cam_aabb.lower_right.Y);
//dbgprint("Points boundig box %f %f %f %f\n", points_bounding_box.upper_left.X, points_bounding_box.upper_left.Y, points_bounding_box.lower_right.X, points_bounding_box.lower_right.Y);
continue; // cull out of screen quads
}
float new_vertices[ FLOATS_PER_VERTEX*4 ] = {0};
Vec2 region_size = SubV2(d.image_region.lower_right, d.image_region.upper_left);
assert(region_size.X > 0.0);
assert(region_size.Y > 0.0);
Vec2 tex_coords[4] =
{
AddV2(d.image_region.upper_left, V2(0.0, 0.0)),
AddV2(d.image_region.upper_left, V2(region_size.X, 0.0)),
AddV2(d.image_region.upper_left, V2(region_size.X, region_size.Y)),
AddV2(d.image_region.upper_left, V2(0.0, region_size.Y)),
};
// convert to uv space
sg_image_info info = sg_query_image_info(d.image);
for(int i = 0; i < 4; i++)
{
tex_coords[i] = DivV2(tex_coords[i], V2((float)info.width, (float)info.height));
}
for(int i = 0; i < 4; i++)
{
Vec2 in_clip_space = into_clip_space(points[i]);
new_vertices[i*FLOATS_PER_VERTEX + 0] = in_clip_space.X;
new_vertices[i*FLOATS_PER_VERTEX + 1] = in_clip_space.Y;
// update Y_COORD_IN_BACK, Y_COORD_IN_FRONT when this changes
float unmapped = (clampf(d.y_coord_sorting, -1.0f, 2.0f));
float mapped = (unmapped + 1.0f)/3.0f;
new_vertices[i*FLOATS_PER_VERTEX + 2] = 1.0f - (float)clamp(mapped, 0.0, 1.0);
new_vertices[i*FLOATS_PER_VERTEX + 3] = tex_coords[i].X;
new_vertices[i*FLOATS_PER_VERTEX + 4] = tex_coords[i].Y;
}
float new_vertices[ FLOATS_PER_VERTEX*4 ] = {0};
Vec2 region_size = SubV2(d.image_region.lower_right, d.image_region.upper_left);
assert(region_size.X > 0.0);
assert(region_size.Y > 0.0);
Vec2 tex_coords[4] =
{
AddV2(d.image_region.upper_left, V2(0.0, 0.0)),
AddV2(d.image_region.upper_left, V2(region_size.X, 0.0)),
AddV2(d.image_region.upper_left, V2(region_size.X, region_size.Y)),
AddV2(d.image_region.upper_left, V2(0.0, region_size.Y)),
};
// convert to uv space
sg_image_info info = sg_query_image_info(d.image);
for(int i = 0; i < 4; i++)
{
tex_coords[i] = DivV2(tex_coords[i], V2((float)info.width, (float)info.height));
}
for(int i = 0; i < 4; i++)
{
Vec2 in_clip_space = into_clip_space(points[i]);
new_vertices[i*FLOATS_PER_VERTEX + 0] = in_clip_space.X;
new_vertices[i*FLOATS_PER_VERTEX + 1] = in_clip_space.Y;
// update Y_COORD_IN_BACK, Y_COORD_IN_FRONT when this changes
float unmapped = (clampf(d.y_coord_sorting, -1.0f, 2.0f));
float mapped = (unmapped + 1.0f)/3.0f;
new_vertices[i*FLOATS_PER_VERTEX + 2] = 1.0f - (float)clamp(mapped, 0.0, 1.0);
new_vertices[i*FLOATS_PER_VERTEX + 3] = tex_coords[i].X;
new_vertices[i*FLOATS_PER_VERTEX + 4] = tex_coords[i].Y;
}
// two triangles drawn, six vertices
size_t total_size = 6*FLOATS_PER_VERTEX;
// two triangles drawn, six vertices
size_t total_size = 6*FLOATS_PER_VERTEX;
// batched a little too close to the sun
if(cur_batch_data_index + total_size >= ARRLEN(cur_batch_data))
{
flush_quad_batch();
cur_batch_image = d.image;
cur_batch_params = params;
}
// batched a little too close to the sun
if(cur_batch_data_index + total_size >= ARRLEN(cur_batch_data))
{
flush_quad_batch();
cur_batch_image = d.image;
cur_batch_params = params;
}
#define PUSH_VERTEX(vert) { memcpy(&cur_batch_data[cur_batch_data_index], &vert, FLOATS_PER_VERTEX*sizeof(float)); cur_batch_data_index += FLOATS_PER_VERTEX; }
PUSH_VERTEX(new_vertices[0*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[1*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[2*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[0*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[2*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[3*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[0*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[1*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[2*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[0*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[2*FLOATS_PER_VERTEX]);
PUSH_VERTEX(new_vertices[3*FLOATS_PER_VERTEX]);
#undef PUSH_VERTEX
}
}
}
BUFF_CLEAR(&rendering_queue);
BUFF_CLEAR(rendering_queue);
flush_quad_batch();
sg_end_pass();
sg_commit();
flush_quad_batch();
sg_end_pass();
sg_commit();
}
}
last_frame_processing_time = stm_sec(stm_diff(stm_now(),time_start_frame));

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