use crate::render_ext::RenderExt;
use crate::to_peniko::BlendModeExt;
use bezier_rs::Subpath;
use dyn_any::DynAny;
use glam::{DAffine2, DVec2};
use graphene_core::blending::BlendMode;
use graphene_core::bounds::BoundingBox;
use graphene_core::color::Color;
use graphene_core::instances::Instance;
use graphene_core::math::quad::Quad;
use graphene_core::raster::Image;
use graphene_core::raster_types::{CPU, GPU, RasterDataTable};
use graphene_core::transform::{Footprint, Transform};
use graphene_core::uuid::{NodeId, generate_uuid};
use graphene_core::vector::VectorDataTable;
use graphene_core::vector::click_target::{ClickTarget, FreePoint};
use graphene_core::vector::style::{Fill, Stroke, StrokeAlign, ViewMode};
use graphene_core::{AlphaBlending, Artboard, ArtboardGroupTable, GraphicElement, GraphicGroupTable};
use num_traits::Zero;
use std::collections::{HashMap, HashSet};
use std::fmt::Write;
#[cfg(feature = "vello")]
use vello::*;

#[derive(Clone, Copy, Debug, PartialEq, serde::Serialize, serde::Deserialize)]
enum MaskType {
	Clip,
	Mask,
}

impl MaskType {
	fn to_attribute(self) -> String {
		match self {
			Self::Mask => "mask".to_string(),
			Self::Clip => "clip-path".to_string(),
		}
	}

	fn write_to_defs(self, svg_defs: &mut String, uuid: u64, svg_string: String) {
		let id = format!("mask-{}", uuid);
		match self {
			Self::Clip => write!(svg_defs, r##"<clipPath id="{id}">{}</clipPath>"##, svg_string).unwrap(),
			Self::Mask => write!(svg_defs, r##"<mask id="{id}" mask-type="alpha">{}</mask>"##, svg_string).unwrap(),
		}
	}
}

/// Mutable state used whilst rendering to an SVG
pub struct SvgRender {
	pub svg: Vec<SvgSegment>,
	pub svg_defs: String,
	pub transform: DAffine2,
	pub image_data: Vec<(u64, Image<Color>)>,
	indent: usize,
}

impl SvgRender {
	pub fn new() -> Self {
		Self {
			svg: Vec::default(),
			svg_defs: String::new(),
			transform: DAffine2::IDENTITY,
			image_data: Vec::new(),
			indent: 0,
		}
	}

	pub fn indent(&mut self) {
		self.svg.push("\n".into());
		self.svg.push("\t".repeat(self.indent).into());
	}

	/// Add an outer `<svg>...</svg>` tag with a `viewBox` and the `<defs />`
	pub fn format_svg(&mut self, bounds_min: DVec2, bounds_max: DVec2) {
		let (x, y) = bounds_min.into();
		let (size_x, size_y) = (bounds_max - bounds_min).into();
		let defs = &self.svg_defs;
		let svg_header = format!(r#"<svg xmlns="http://www.w3.org/2000/svg" viewBox="{x} {y} {size_x} {size_y}"><defs>{defs}</defs>"#,);
		self.svg.insert(0, svg_header.into());
		self.svg.push("</svg>".into());
	}

	/// Wraps the SVG with `<svg><g transform="...">...</g></svg>`, which allows for rotation
	pub fn wrap_with_transform(&mut self, transform: DAffine2, size: Option<DVec2>) {
		let defs = &self.svg_defs;
		let view_box = size
			.map(|size| format!("viewBox=\"0 0 {} {}\" width=\"{}\" height=\"{}\"", size.x, size.y, size.x, size.y))
			.unwrap_or_default();

		let matrix = format_transform_matrix(transform);
		let transform = if matrix.is_empty() { String::new() } else { format!(r#" transform="{}""#, matrix) };

		let svg_header = format!(r#"<svg xmlns="http://www.w3.org/2000/svg" {}><defs>{defs}</defs><g{transform}>"#, view_box);
		self.svg.insert(0, svg_header.into());
		self.svg.push("</g></svg>".into());
	}

	pub fn leaf_tag(&mut self, name: impl Into<SvgSegment>, attributes: impl FnOnce(&mut SvgRenderAttrs)) {
		self.indent();

		self.svg.push("<".into());
		self.svg.push(name.into());

		attributes(&mut SvgRenderAttrs(self));

		self.svg.push("/>".into());
	}

	pub fn leaf_node(&mut self, content: impl Into<SvgSegment>) {
		self.indent();
		self.svg.push(content.into());
	}

	pub fn parent_tag(&mut self, name: impl Into<SvgSegment>, attributes: impl FnOnce(&mut SvgRenderAttrs), inner: impl FnOnce(&mut Self)) {
		let name = name.into();
		self.indent();
		self.svg.push("<".into());
		self.svg.push(name.clone());
		// Wraps `self` in a newtype (1-tuple) which is then mutated by the `attributes` closure
		attributes(&mut SvgRenderAttrs(self));
		self.svg.push(">".into());
		let length = self.svg.len();
		self.indent += 1;
		inner(self);
		self.indent -= 1;
		if self.svg.len() != length {
			self.indent();
			self.svg.push("</".into());
			self.svg.push(name);
			self.svg.push(">".into());
		} else {
			self.svg.pop();
			self.svg.push("/>".into());
		}
	}
}

impl Default for SvgRender {
	fn default() -> Self {
		Self::new()
	}
}

#[derive(Clone, Debug, Default)]
pub struct RenderContext {
	#[cfg(feature = "vello")]
	pub resource_overrides: HashMap<u64, std::sync::Arc<wgpu::Texture>>,
}

/// Static state used whilst rendering
#[derive(Default)]
pub struct RenderParams {
	pub view_mode: ViewMode,
	pub culling_bounds: Option<[DVec2; 2]>,
	pub thumbnail: bool,
	/// Don't render the rectangle for an artboard to allow exporting with a transparent background.
	pub hide_artboards: bool,
	/// Are we exporting? Causes the text above an artboard to be hidden.
	pub for_export: bool,
	/// Are we generating a mask in this render pass? Used to see if fill should be multiplied with alpha.
	pub for_mask: bool,
	/// Are we generating a mask for alignment? Used to prevent unnecesary transforms in masks
	pub alignment_parent_transform: Option<DAffine2>,
}

impl RenderParams {
	pub fn for_clipper(&self) -> Self {
		Self { for_mask: true, ..*self }
	}

	pub fn for_alignment(&self, transform: DAffine2) -> Self {
		let alignment_parent_transform = Some(transform);
		Self { alignment_parent_transform, ..*self }
	}
}

pub fn format_transform_matrix(transform: DAffine2) -> String {
	if transform == DAffine2::IDENTITY {
		return String::new();
	}

	transform.to_cols_array().iter().enumerate().fold("matrix(".to_string(), |val, (i, num)| {
		let num = if num.abs() < 1_000_000_000. { (num * 1_000_000_000.).round() / 1_000_000_000. } else { *num };
		let num = if num.is_zero() { "0".to_string() } else { num.to_string() };
		let comma = if i == 5 { "" } else { "," };
		val + &(num + comma)
	}) + ")"
}

pub fn to_transform(transform: DAffine2) -> usvg::Transform {
	let cols = transform.to_cols_array();
	usvg::Transform::from_row(cols[0] as f32, cols[1] as f32, cols[2] as f32, cols[3] as f32, cols[4] as f32, cols[5] as f32)
}

// TODO: Click targets can be removed from the render output, since the vector data is available in the vector modify data from Monitor nodes.
// This will require that the transform for child layers into that layer space be calculated, or it could be returned from the RenderOutput instead of click targets.
#[derive(Debug, Default, Clone, PartialEq, DynAny, serde::Serialize, serde::Deserialize)]
pub struct RenderMetadata {
	pub upstream_footprints: HashMap<NodeId, Footprint>,
	pub local_transforms: HashMap<NodeId, DAffine2>,
	pub click_targets: HashMap<NodeId, Vec<ClickTarget>>,
	pub clip_targets: HashSet<NodeId>,
}

// TODO: Rename to "Graphical"
pub trait GraphicElementRendered: BoundingBox {
	fn render_svg(&self, render: &mut SvgRender, render_params: &RenderParams);

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, scene: &mut Scene, transform: DAffine2, context: &mut RenderContext, _render_params: &RenderParams);

	/// The upstream click targets for each layer are collected during the render so that they do not have to be calculated for each click detection.
	fn add_upstream_click_targets(&self, _click_targets: &mut Vec<ClickTarget>) {}

	// TODO: Store all click targets in a vec which contains the AABB, click target, and path
	// fn add_click_targets(&self, click_targets: &mut Vec<([DVec2; 2], ClickTarget, Vec<NodeId>)>, current_path: Option<NodeId>) {}

	/// Recursively iterate over data in the render (including groups upstream from vector data in the case of a boolean operation) to collect the footprints, click targets, and vector modify.
	fn collect_metadata(&self, _metadata: &mut RenderMetadata, _footprint: Footprint, _element_id: Option<NodeId>) {}

	fn contains_artboard(&self) -> bool {
		false
	}

	fn new_ids_from_hash(&mut self, _reference: Option<NodeId>) {}
}

impl GraphicElementRendered for GraphicGroupTable {
	fn render_svg(&self, render: &mut SvgRender, render_params: &RenderParams) {
		let mut iter = self.instance_ref_iter().peekable();
		let mut mask_state = None;

		while let Some(instance) = iter.next() {
			render.parent_tag(
				"g",
				|attributes| {
					let matrix = format_transform_matrix(*instance.transform);
					if !matrix.is_empty() {
						attributes.push("transform", matrix);
					}

					let factor = if render_params.for_mask { 1. } else { instance.alpha_blending.fill };
					let opacity = instance.alpha_blending.opacity * factor;
					if opacity < 1. {
						attributes.push("opacity", opacity.to_string());
					}

					if instance.alpha_blending.blend_mode != BlendMode::default() {
						attributes.push("style", instance.alpha_blending.blend_mode.render());
					}

					let next_clips = iter.peek().is_some_and(|next_instance| next_instance.instance.had_clip_enabled());

					if next_clips && mask_state.is_none() {
						let uuid = generate_uuid();
						let mask_type = if instance.instance.can_reduce_to_clip_path() { MaskType::Clip } else { MaskType::Mask };
						mask_state = Some((uuid, mask_type));
						let mut svg = SvgRender::new();
						instance.instance.render_svg(&mut svg, &render_params.for_clipper());

						write!(&mut attributes.0.svg_defs, r##"{}"##, svg.svg_defs).unwrap();
						mask_type.write_to_defs(&mut attributes.0.svg_defs, uuid, svg.svg.to_svg_string());
					} else if let Some((uuid, mask_type)) = mask_state {
						if !next_clips {
							mask_state = None;
						}

						let id = format!("mask-{}", uuid);
						let selector = format!("url(#{id})");

						attributes.push(mask_type.to_attribute(), selector);
					}
				},
				|render| {
					instance.instance.render_svg(render, render_params);
				},
			);
		}
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, scene: &mut Scene, transform: DAffine2, context: &mut RenderContext, render_params: &RenderParams) {
		let mut iter = self.instance_ref_iter().peekable();
		let mut mask_instance_state = None;

		while let Some(instance) = iter.next() {
			let transform = transform * *instance.transform;
			let alpha_blending = *instance.alpha_blending;

			let mut layer = false;

			let blend_mode = match render_params.view_mode {
				ViewMode::Outline => peniko::Mix::Normal,
				_ => alpha_blending.blend_mode.to_peniko(),
			};
			let mut bounds = None;

			let factor = if render_params.for_mask { 1. } else { alpha_blending.fill };
			let opacity = alpha_blending.opacity * factor;
			if opacity < 1. || (render_params.view_mode != ViewMode::Outline && alpha_blending.blend_mode != BlendMode::default()) {
				bounds = self
					.instance_ref_iter()
					.filter_map(|element| element.instance.bounding_box(transform, true))
					.reduce(Quad::combine_bounds);

				if let Some(bounds) = bounds {
					scene.push_layer(
						peniko::BlendMode::new(blend_mode, peniko::Compose::SrcOver),
						opacity,
						kurbo::Affine::IDENTITY,
						&kurbo::Rect::new(bounds[0].x, bounds[0].y, bounds[1].x, bounds[1].y),
					);
					layer = true;
				}
			}

			let next_clips = iter.peek().is_some_and(|next_instance| next_instance.instance.had_clip_enabled());
			if next_clips && mask_instance_state.is_none() {
				mask_instance_state = Some((instance.instance, transform));

				instance.instance.render_to_vello(scene, transform, context, render_params);
			} else if let Some((instance_mask, transform_mask)) = mask_instance_state {
				if !next_clips {
					mask_instance_state = None;
				}
				if !layer {
					bounds = self
						.instance_ref_iter()
						.filter_map(|element| element.instance.bounding_box(transform, true))
						.reduce(Quad::combine_bounds);
				}

				if let Some(bounds) = bounds {
					let rect = kurbo::Rect::new(bounds[0].x, bounds[0].y, bounds[1].x, bounds[1].y);

					scene.push_layer(peniko::Mix::Normal, 1., kurbo::Affine::IDENTITY, &rect);
					instance_mask.render_to_vello(scene, transform_mask, context, &render_params.for_clipper());
					scene.push_layer(peniko::BlendMode::new(peniko::Mix::Clip, peniko::Compose::SrcIn), 1., kurbo::Affine::IDENTITY, &rect);
				}

				instance.instance.render_to_vello(scene, transform, context, render_params);

				if bounds.is_some() {
					scene.pop_layer();
					scene.pop_layer();
				}
			} else {
				instance.instance.render_to_vello(scene, transform, context, render_params);
			}

			if layer {
				scene.pop_layer();
			}
		}
	}

	fn collect_metadata(&self, metadata: &mut RenderMetadata, footprint: Footprint, element_id: Option<NodeId>) {
		for instance in self.instance_ref_iter() {
			if let Some(element_id) = instance.source_node_id {
				let mut footprint = footprint;
				footprint.transform *= *instance.transform;

				instance.instance.collect_metadata(metadata, footprint, Some(*element_id));
			}
		}

		if let Some(graphic_group_id) = element_id {
			let mut all_upstream_click_targets = Vec::new();

			for instance in self.instance_ref_iter() {
				let mut new_click_targets = Vec::new();
				instance.instance.add_upstream_click_targets(&mut new_click_targets);

				for click_target in new_click_targets.iter_mut() {
					click_target.apply_transform(*instance.transform)
				}

				all_upstream_click_targets.extend(new_click_targets);
			}

			metadata.click_targets.insert(graphic_group_id, all_upstream_click_targets);
		}
	}

	fn add_upstream_click_targets(&self, click_targets: &mut Vec<ClickTarget>) {
		for instance in self.instance_ref_iter() {
			let mut new_click_targets = Vec::new();

			instance.instance.add_upstream_click_targets(&mut new_click_targets);

			for click_target in new_click_targets.iter_mut() {
				click_target.apply_transform(*instance.transform)
			}

			click_targets.extend(new_click_targets);
		}
	}

	fn contains_artboard(&self) -> bool {
		self.instance_ref_iter().any(|instance| instance.instance.contains_artboard())
	}

	fn new_ids_from_hash(&mut self, _reference: Option<NodeId>) {
		for instance in self.instance_mut_iter() {
			instance.instance.new_ids_from_hash(*instance.source_node_id);
		}
	}
}

impl GraphicElementRendered for VectorDataTable {
	fn render_svg(&self, render: &mut SvgRender, render_params: &RenderParams) {
		for instance in self.instance_ref_iter() {
			let multiplied_transform = *instance.transform;
			let vector_data = &instance.instance;
			// Only consider strokes with non-zero weight, since default strokes with zero weight would prevent assigning the correct stroke transform
			let has_real_stroke = vector_data.style.stroke().filter(|stroke| stroke.weight() > 0.);
			let set_stroke_transform = has_real_stroke.map(|stroke| stroke.transform).filter(|transform| transform.matrix2.determinant() != 0.);
			let applied_stroke_transform = set_stroke_transform.unwrap_or(*instance.transform);
			let applied_stroke_transform = render_params.alignment_parent_transform.unwrap_or(applied_stroke_transform);
			let element_transform = set_stroke_transform.map(|stroke_transform| multiplied_transform * stroke_transform.inverse());
			let element_transform = element_transform.unwrap_or(DAffine2::IDENTITY);
			let layer_bounds = vector_data.bounding_box().unwrap_or_default();
			let transformed_bounds = vector_data.bounding_box_with_transform(applied_stroke_transform).unwrap_or_default();

			let mut path = String::new();

			for subpath in instance.instance.stroke_bezier_paths() {
				let _ = subpath.subpath_to_svg(&mut path, applied_stroke_transform);
			}

			let connected = vector_data.stroke_bezier_paths().all(|path| path.closed());
			let can_draw_aligned_stroke = vector_data.style.stroke().is_some_and(|stroke| stroke.has_renderable_stroke() && stroke.align.is_not_centered()) && connected;
			let mut push_id = None;

			if can_draw_aligned_stroke {
				let mask_type = if vector_data.style.stroke().unwrap().align == StrokeAlign::Inside {
					MaskType::Clip
				} else {
					MaskType::Mask
				};

				let can_use_order = !instance.instance.style.fill().is_none() && mask_type == MaskType::Mask;
				if !can_use_order {
					let id = format!("alignment-{}", generate_uuid());
					let mut vector_row = VectorDataTable::default();
					let mut fill_instance = instance.instance.clone();

					fill_instance.style.clear_stroke();
					fill_instance.style.set_fill(Fill::solid(Color::BLACK));

					vector_row.push(Instance {
						instance: fill_instance,
						alpha_blending: *instance.alpha_blending,
						transform: *instance.transform,
						source_node_id: None,
					});
					push_id = Some((id, mask_type, vector_row));
				}
			}

			render.leaf_tag("path", |attributes| {
				attributes.push("d", path);
				let matrix = format_transform_matrix(element_transform);
				if !matrix.is_empty() {
					attributes.push("transform", matrix);
				}

				let defs = &mut attributes.0.svg_defs;
				if let Some((ref id, mask_type, ref vector_row)) = push_id {
					let mut svg = SvgRender::new();
					vector_row.render_svg(&mut svg, &render_params.for_alignment(applied_stroke_transform));

					let weight = instance.instance.style.stroke().unwrap().weight * instance.transform.matrix2.determinant();
					let quad = Quad::from_box(transformed_bounds).inflate(weight);
					let (x, y) = quad.top_left().into();
					let (width, height) = (quad.bottom_right() - quad.top_left()).into();
					write!(defs, r##"{}"##, svg.svg_defs).unwrap();
					let rect = format!(r##"<rect x="{}" y="{}" width="{width}" height="{height}" fill="white" />"##, x, y);
					match mask_type {
						MaskType::Clip => write!(defs, r##"<clipPath id="{id}">{}</clipPath>"##, svg.svg.to_svg_string()).unwrap(),
						MaskType::Mask => write!(defs, r##"<mask id="{id}">{}{}</mask>"##, rect, svg.svg.to_svg_string()).unwrap(),
					}
				}

				let fill_and_stroke = instance.instance.style.render(
					defs,
					element_transform,
					applied_stroke_transform,
					layer_bounds,
					transformed_bounds,
					can_draw_aligned_stroke,
					can_draw_aligned_stroke && push_id.is_none(),
					render_params,
				);

				if let Some((id, mask_type, _)) = push_id {
					let selector = format!("url(#{id})");
					attributes.push(mask_type.to_attribute(), selector);
				}
				attributes.push_val(fill_and_stroke);

				let factor = if render_params.for_mask { 1. } else { instance.alpha_blending.fill };
				let opacity = instance.alpha_blending.opacity * factor;
				if opacity < 1. {
					attributes.push("opacity", opacity.to_string());
				}

				if instance.alpha_blending.blend_mode != BlendMode::default() {
					attributes.push("style", instance.alpha_blending.blend_mode.render());
				}
			});
		}
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, scene: &mut Scene, parent_transform: DAffine2, _context: &mut RenderContext, render_params: &RenderParams) {
		use graphene_core::consts::{LAYER_OUTLINE_STROKE_COLOR, LAYER_OUTLINE_STROKE_WEIGHT};
		use graphene_core::vector::style::{GradientType, StrokeCap, StrokeJoin};
		use vello::kurbo::{Cap, Join};
		use vello::peniko;

		for instance in self.instance_ref_iter() {
			let multiplied_transform = parent_transform * *instance.transform;
			let has_real_stroke = instance.instance.style.stroke().filter(|stroke| stroke.weight() > 0.);
			let set_stroke_transform = has_real_stroke.map(|stroke| stroke.transform).filter(|transform| transform.matrix2.determinant() != 0.);
			let applied_stroke_transform = set_stroke_transform.unwrap_or(multiplied_transform);
			let applied_stroke_transform = render_params.alignment_parent_transform.unwrap_or(applied_stroke_transform);
			let element_transform = set_stroke_transform.map(|stroke_transform| multiplied_transform * stroke_transform.inverse());
			let element_transform = element_transform.unwrap_or(DAffine2::IDENTITY);
			let layer_bounds = instance.instance.bounding_box().unwrap_or_default();

			let to_point = |p: DVec2| kurbo::Point::new(p.x, p.y);
			let mut path = kurbo::BezPath::new();
			for subpath in instance.instance.stroke_bezier_paths() {
				subpath.to_vello_path(applied_stroke_transform, &mut path);
			}

			// If we're using opacity or a blend mode, we need to push a layer
			let blend_mode = match render_params.view_mode {
				ViewMode::Outline => peniko::Mix::Normal,
				_ => instance.alpha_blending.blend_mode.to_peniko(),
			};
			let mut layer = false;
			let factor = if render_params.for_mask { 1. } else { instance.alpha_blending.fill };
			let opacity = instance.alpha_blending.opacity * factor;
			if opacity < 1. || instance.alpha_blending.blend_mode != BlendMode::default() {
				layer = true;
				scene.push_layer(
					peniko::BlendMode::new(blend_mode, peniko::Compose::SrcOver),
					opacity,
					kurbo::Affine::new(multiplied_transform.to_cols_array()),
					&kurbo::Rect::new(layer_bounds[0].x, layer_bounds[0].y, layer_bounds[1].x, layer_bounds[1].y),
				);
			}

			let can_draw_aligned_stroke = instance.instance.style.stroke().is_some_and(|stroke| stroke.has_renderable_stroke() && stroke.align.is_not_centered())
				&& instance.instance.stroke_bezier_paths().all(|path| path.closed());

			let reorder_for_outside = instance
				.instance
				.style
				.stroke()
				.is_some_and(|stroke| stroke.align == StrokeAlign::Outside && !instance.instance.style.fill().is_none());
			if can_draw_aligned_stroke && !reorder_for_outside {
				let mut vector_data = VectorDataTable::default();

				let mut fill_instance = instance.instance.clone();
				fill_instance.style.clear_stroke();
				fill_instance.style.set_fill(Fill::solid(Color::BLACK));

				vector_data.push(Instance {
					instance: fill_instance,
					alpha_blending: *instance.alpha_blending,
					transform: *instance.transform,
					source_node_id: None,
				});

				let weight = instance.instance.style.stroke().unwrap().weight;
				let quad = Quad::from_box(layer_bounds).inflate(weight * element_transform.matrix2.determinant());
				let rect = kurbo::Rect::new(quad.top_left().x, quad.top_left().y, quad.bottom_right().x, quad.bottom_right().y);

				let inside = instance.instance.style.stroke().unwrap().align == StrokeAlign::Inside;
				let compose = if inside { peniko::Compose::SrcIn } else { peniko::Compose::SrcOut };
				scene.push_layer(peniko::Mix::Normal, 1., kurbo::Affine::IDENTITY, &rect);
				vector_data.render_to_vello(scene, parent_transform, _context, &render_params.for_alignment(applied_stroke_transform));
				scene.push_layer(peniko::BlendMode::new(peniko::Mix::Clip, compose), 1., kurbo::Affine::IDENTITY, &rect);
			}

			// Render the path
			match render_params.view_mode {
				ViewMode::Outline => {
					let outline_stroke = kurbo::Stroke {
						width: LAYER_OUTLINE_STROKE_WEIGHT,
						miter_limit: 4.,
						join: Join::Miter,
						start_cap: Cap::Butt,
						end_cap: Cap::Butt,
						dash_pattern: Default::default(),
						dash_offset: 0.,
					};
					let outline_color = peniko::Color::new([
						LAYER_OUTLINE_STROKE_COLOR.r(),
						LAYER_OUTLINE_STROKE_COLOR.g(),
						LAYER_OUTLINE_STROKE_COLOR.b(),
						LAYER_OUTLINE_STROKE_COLOR.a(),
					]);

					scene.stroke(&outline_stroke, kurbo::Affine::new(element_transform.to_cols_array()), outline_color, None, &path);
				}
				_ => {
					enum Op {
						Fill,
						Stroke,
					}

					let order = match instance.instance.style.stroke().is_some_and(|stroke| !stroke.paint_order.is_default()) || reorder_for_outside {
						true => [Op::Stroke, Op::Fill],
						false => [Op::Fill, Op::Stroke], // Default
					};
					for operation in order {
						match operation {
							Op::Fill => {
								match instance.instance.style.fill() {
									Fill::Solid(color) => {
										let fill = peniko::Brush::Solid(peniko::Color::new([color.r(), color.g(), color.b(), color.a()]));
										scene.fill(peniko::Fill::NonZero, kurbo::Affine::new(element_transform.to_cols_array()), &fill, None, &path);
									}
									Fill::Gradient(gradient) => {
										let mut stops = peniko::ColorStops::new();
										for &(offset, color) in &gradient.stops {
											stops.push(peniko::ColorStop {
												offset: offset as f32,
												color: peniko::color::DynamicColor::from_alpha_color(peniko::Color::new([color.r(), color.g(), color.b(), color.a()])),
											});
										}
										// Compute bounding box of the shape to determine the gradient start and end points
										let bounds = instance.instance.nonzero_bounding_box();
										let bound_transform = DAffine2::from_scale_angle_translation(bounds[1] - bounds[0], 0., bounds[0]);

										let inverse_parent_transform = (parent_transform.matrix2.determinant() != 0.).then(|| parent_transform.inverse()).unwrap_or_default();
										let mod_points = inverse_parent_transform * multiplied_transform * bound_transform;

										let start = mod_points.transform_point2(gradient.start);
										let end = mod_points.transform_point2(gradient.end);

										let fill = peniko::Brush::Gradient(peniko::Gradient {
											kind: match gradient.gradient_type {
												GradientType::Linear => peniko::GradientKind::Linear {
													start: to_point(start),
													end: to_point(end),
												},
												GradientType::Radial => {
													let radius = start.distance(end);
													peniko::GradientKind::Radial {
														start_center: to_point(start),
														start_radius: 0.,
														end_center: to_point(start),
														end_radius: radius as f32,
													}
												}
											},
											stops,
											..Default::default()
										});
										// Vello does `element_transform * brush_transform` internally. We don't want element_transform to have any impact so we need to left multiply by the inverse.
										// This makes the final internal brush transform equal to `parent_transform`, allowing you to stretch a gradient by transforming the parent folder.
										let inverse_element_transform = (element_transform.matrix2.determinant() != 0.).then(|| element_transform.inverse()).unwrap_or_default();
										let brush_transform = kurbo::Affine::new((inverse_element_transform * parent_transform).to_cols_array());
										scene.fill(peniko::Fill::NonZero, kurbo::Affine::new(element_transform.to_cols_array()), &fill, Some(brush_transform), &path);
									}
									Fill::None => {}
								};
							}
							Op::Stroke => {
								if let Some(stroke) = instance.instance.style.stroke() {
									let color = match stroke.color {
										Some(color) => peniko::Color::new([color.r(), color.g(), color.b(), color.a()]),
										None => peniko::Color::TRANSPARENT,
									};
									let cap = match stroke.cap {
										StrokeCap::Butt => Cap::Butt,
										StrokeCap::Round => Cap::Round,
										StrokeCap::Square => Cap::Square,
									};
									let join = match stroke.join {
										StrokeJoin::Miter => Join::Miter,
										StrokeJoin::Bevel => Join::Bevel,
										StrokeJoin::Round => Join::Round,
									};
									let stroke = kurbo::Stroke {
										width: stroke.weight * if can_draw_aligned_stroke { 2. } else { 1. },
										miter_limit: stroke.join_miter_limit,
										join,
										start_cap: cap,
										end_cap: cap,
										dash_pattern: stroke.dash_lengths.into(),
										dash_offset: stroke.dash_offset,
									};

									// Draw the stroke if it's visible
									if stroke.width > 0. {
										scene.stroke(&stroke, kurbo::Affine::new(element_transform.to_cols_array()), color, None, &path);
									}
								}
							}
						}
					}
				}
			}

			if can_draw_aligned_stroke {
				scene.pop_layer();
				scene.pop_layer();
			}

			// If we pushed a layer for opacity or a blend mode, we need to pop it
			if layer {
				scene.pop_layer();
			}
		}
	}

	fn collect_metadata(&self, metadata: &mut RenderMetadata, mut footprint: Footprint, element_id: Option<NodeId>) {
		for instance in self.instance_ref_iter() {
			let instance_transform = *instance.transform;
			let instance = instance.instance;

			if let Some(element_id) = element_id {
				let stroke_width = instance.style.stroke().as_ref().map_or(0., Stroke::weight);
				let filled = instance.style.fill() != &Fill::None;
				let fill = |mut subpath: Subpath<_>| {
					if filled {
						subpath.set_closed(true);
					}
					subpath
				};

				// For free-floating anchors, we need to add a click target for each
				let single_anchors_targets = instance.point_domain.ids().iter().filter_map(|&point_id| {
					if instance.connected_count(point_id) == 0 {
						let anchor = instance.point_domain.position_from_id(point_id).unwrap_or_default();
						let point = FreePoint::new(point_id, anchor);

						Some(ClickTarget::new_with_free_point(point))
					} else {
						None
					}
				});

				let click_targets = instance
					.stroke_bezier_paths()
					.map(fill)
					.map(|subpath| ClickTarget::new_with_subpath(subpath, stroke_width))
					.chain(single_anchors_targets.into_iter())
					.collect::<Vec<ClickTarget>>();

				metadata.click_targets.insert(element_id, click_targets);
			}

			if let Some(upstream_graphic_group) = &instance.upstream_graphic_group {
				footprint.transform *= instance_transform;
				upstream_graphic_group.collect_metadata(metadata, footprint, None);
			}
		}
	}

	fn add_upstream_click_targets(&self, click_targets: &mut Vec<ClickTarget>) {
		for instance in self.instance_ref_iter() {
			let stroke_width = instance.instance.style.stroke().as_ref().map_or(0., Stroke::weight);
			let filled = instance.instance.style.fill() != &Fill::None;
			let fill = |mut subpath: Subpath<_>| {
				if filled {
					subpath.set_closed(true);
				}
				subpath
			};
			click_targets.extend(instance.instance.stroke_bezier_paths().map(fill).map(|subpath| {
				let mut click_target = ClickTarget::new_with_subpath(subpath, stroke_width);
				click_target.apply_transform(*instance.transform);
				click_target
			}));

			// For free-floating anchors, we need to add a click target for each
			let single_anchors_targets = instance.instance.point_domain.ids().iter().filter_map(|&point_id| {
				if instance.instance.connected_count(point_id) > 0 {
					return None;
				}

				let anchor = instance.instance.point_domain.position_from_id(point_id).unwrap_or_default();
				let point = FreePoint::new(point_id, anchor);

				let mut click_target = ClickTarget::new_with_free_point(point);
				click_target.apply_transform(*instance.transform);
				Some(click_target)
			});
			click_targets.extend(single_anchors_targets);
		}
	}

	fn new_ids_from_hash(&mut self, reference: Option<NodeId>) {
		for instance in self.instance_mut_iter() {
			instance.instance.vector_new_ids_from_hash(reference.map(|id| id.0).unwrap_or_default());
		}
	}
}

impl GraphicElementRendered for Artboard {
	fn render_svg(&self, render: &mut SvgRender, render_params: &RenderParams) {
		if !render_params.hide_artboards {
			// Background
			render.leaf_tag("rect", |attributes| {
				attributes.push("fill", format!("#{}", self.background.to_rgb_hex_srgb_from_gamma()));
				if self.background.a() < 1. {
					attributes.push("fill-opacity", ((self.background.a() * 1000.).round() / 1000.).to_string());
				}
				attributes.push("x", self.location.x.min(self.location.x + self.dimensions.x).to_string());
				attributes.push("y", self.location.y.min(self.location.y + self.dimensions.y).to_string());
				attributes.push("width", self.dimensions.x.abs().to_string());
				attributes.push("height", self.dimensions.y.abs().to_string());
			});
		}

		// Contents group (includes the artwork but not the background)
		render.parent_tag(
			// SVG group tag
			"g",
			// Group tag attributes
			|attributes| {
				let matrix = format_transform_matrix(self.transform());
				if !matrix.is_empty() {
					attributes.push("transform", matrix);
				}

				if self.clip {
					let id = format!("artboard-{}", generate_uuid());
					let selector = format!("url(#{id})");

					write!(
						&mut attributes.0.svg_defs,
						r##"<clipPath id="{id}"><rect x="0" y="0" width="{}" height="{}"/></clipPath>"##,
						self.dimensions.x, self.dimensions.y,
					)
					.unwrap();
					attributes.push("clip-path", selector);
				}
			},
			// Artboard contents
			|render| {
				self.graphic_group.render_svg(render, render_params);
			},
		);
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, scene: &mut Scene, transform: DAffine2, context: &mut RenderContext, render_params: &RenderParams) {
		use vello::peniko;

		// Render background
		let color = peniko::Color::new([self.background.r(), self.background.g(), self.background.b(), self.background.a()]);
		let [a, b] = [self.location.as_dvec2(), self.location.as_dvec2() + self.dimensions.as_dvec2()];
		let rect = kurbo::Rect::new(a.x.min(b.x), a.y.min(b.y), a.x.max(b.x), a.y.max(b.y));

		scene.push_layer(peniko::Mix::Normal, 1., kurbo::Affine::new(transform.to_cols_array()), &rect);
		scene.fill(peniko::Fill::NonZero, kurbo::Affine::new(transform.to_cols_array()), color, None, &rect);
		scene.pop_layer();

		if self.clip {
			let blend_mode = peniko::BlendMode::new(peniko::Mix::Clip, peniko::Compose::SrcOver);
			scene.push_layer(blend_mode, 1., kurbo::Affine::new(transform.to_cols_array()), &rect);
		}
		// Since the graphic group's transform is right multiplied in when rendering the graphic group, we just need to right multiply by the offset here.
		let child_transform = transform * DAffine2::from_translation(self.location.as_dvec2());
		self.graphic_group.render_to_vello(scene, child_transform, context, render_params);
		if self.clip {
			scene.pop_layer();
		}
	}

	fn collect_metadata(&self, metadata: &mut RenderMetadata, mut footprint: Footprint, element_id: Option<NodeId>) {
		if let Some(element_id) = element_id {
			let subpath = Subpath::new_rect(DVec2::ZERO, self.dimensions.as_dvec2());
			metadata.click_targets.insert(element_id, vec![ClickTarget::new_with_subpath(subpath, 0.)]);
			metadata.upstream_footprints.insert(element_id, footprint);
			metadata.local_transforms.insert(element_id, DAffine2::from_translation(self.location.as_dvec2()));
			if self.clip {
				metadata.clip_targets.insert(element_id);
			}
		}
		footprint.transform *= self.transform();
		self.graphic_group.collect_metadata(metadata, footprint, None);
	}

	fn add_upstream_click_targets(&self, click_targets: &mut Vec<ClickTarget>) {
		let subpath_rectangle = Subpath::new_rect(DVec2::ZERO, self.dimensions.as_dvec2());
		click_targets.push(ClickTarget::new_with_subpath(subpath_rectangle, 0.));
	}

	fn contains_artboard(&self) -> bool {
		true
	}
}

impl GraphicElementRendered for ArtboardGroupTable {
	fn render_svg(&self, render: &mut SvgRender, render_params: &RenderParams) {
		for artboard in self.instance_ref_iter() {
			artboard.instance.render_svg(render, render_params);
		}
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, scene: &mut Scene, transform: DAffine2, context: &mut RenderContext, render_params: &RenderParams) {
		for instance in self.instance_ref_iter() {
			instance.instance.render_to_vello(scene, transform, context, render_params);
		}
	}

	fn collect_metadata(&self, metadata: &mut RenderMetadata, footprint: Footprint, _element_id: Option<NodeId>) {
		for instance in self.instance_ref_iter() {
			instance.instance.collect_metadata(metadata, footprint, *instance.source_node_id);
		}
	}

	fn add_upstream_click_targets(&self, click_targets: &mut Vec<ClickTarget>) {
		for instance in self.instance_ref_iter() {
			instance.instance.add_upstream_click_targets(click_targets);
		}
	}

	fn contains_artboard(&self) -> bool {
		self.instance_ref_iter().count() > 0
	}
}

impl GraphicElementRendered for RasterDataTable<CPU> {
	fn render_svg(&self, render: &mut SvgRender, render_params: &RenderParams) {
		for instance in self.instance_ref_iter() {
			let transform = *instance.transform;

			let image = &instance.instance;
			if image.data.is_empty() {
				return;
			}

			let base64_string = image.base64_string.clone().unwrap_or_else(|| {
				use base64::Engine;

				let output = image.to_png();
				let preamble = "data:image/png;base64,";
				let mut base64_string = String::with_capacity(preamble.len() + output.len() * 4);
				base64_string.push_str(preamble);
				base64::engine::general_purpose::STANDARD.encode_string(output, &mut base64_string);
				base64_string
			});
			render.leaf_tag("image", |attributes| {
				attributes.push("width", 1.to_string());
				attributes.push("height", 1.to_string());
				attributes.push("preserveAspectRatio", "none");
				attributes.push("href", base64_string);
				let matrix = format_transform_matrix(transform);
				if !matrix.is_empty() {
					attributes.push("transform", matrix);
				}
				let factor = if render_params.for_mask { 1. } else { instance.alpha_blending.fill };
				let opacity = instance.alpha_blending.opacity * factor;
				if opacity < 1. {
					attributes.push("opacity", opacity.to_string());
				}
				if instance.alpha_blending.blend_mode != BlendMode::default() {
					attributes.push("style", instance.alpha_blending.blend_mode.render());
				}
			});
		}
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, scene: &mut Scene, transform: DAffine2, _: &mut RenderContext, _render_params: &RenderParams) {
		use vello::peniko;

		for instance in self.instance_ref_iter() {
			let image = &instance.instance;
			if image.data.is_empty() {
				return;
			}
			let image = peniko::Image::new(image.to_flat_u8().0.into(), peniko::Format::Rgba8, image.width, image.height).with_extend(peniko::Extend::Repeat);
			let transform = transform * *instance.transform * DAffine2::from_scale(1. / DVec2::new(image.width as f64, image.height as f64));

			scene.draw_image(&image, kurbo::Affine::new(transform.to_cols_array()));
		}
	}

	fn collect_metadata(&self, metadata: &mut RenderMetadata, footprint: Footprint, element_id: Option<NodeId>) {
		let Some(element_id) = element_id else { return };
		let subpath = Subpath::new_rect(DVec2::ZERO, DVec2::ONE);

		metadata.click_targets.insert(element_id, vec![ClickTarget::new_with_subpath(subpath, 0.)]);
		metadata.upstream_footprints.insert(element_id, footprint);
		// TODO: Find a way to handle more than one row of the graphical data table
		if let Some(image) = self.instance_ref_iter().next() {
			metadata.local_transforms.insert(element_id, *image.transform);
		}
	}

	fn add_upstream_click_targets(&self, click_targets: &mut Vec<ClickTarget>) {
		let subpath = Subpath::new_rect(DVec2::ZERO, DVec2::ONE);
		click_targets.push(ClickTarget::new_with_subpath(subpath, 0.));
	}
}

impl GraphicElementRendered for RasterDataTable<GPU> {
	fn render_svg(&self, _render: &mut SvgRender, _render_params: &RenderParams) {
		log::warn!("tried to render texture as an svg");
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, scene: &mut Scene, transform: DAffine2, context: &mut RenderContext, _render_params: &RenderParams) {
		use vello::peniko;

		let mut render_stuff = |image: peniko::Image, instance_transform: DAffine2, blend_mode: AlphaBlending| {
			let image_transform = transform * instance_transform * DAffine2::from_scale(1. / DVec2::new(image.width as f64, image.height as f64));
			let layer = blend_mode != Default::default();

			let Some(bounds) = self.bounding_box(transform, true) else { return };
			let blending = peniko::BlendMode::new(blend_mode.blend_mode.to_peniko(), peniko::Compose::SrcOver);

			if layer {
				let rect = kurbo::Rect::new(bounds[0].x, bounds[0].y, bounds[1].x, bounds[1].y);
				scene.push_layer(blending, blend_mode.opacity, kurbo::Affine::IDENTITY, &rect);
			}
			scene.draw_image(&image, kurbo::Affine::new(image_transform.to_cols_array()));
			if layer {
				scene.pop_layer()
			}
		};

		for instance in self.instance_ref_iter() {
			let image = peniko::Image::new(vec![].into(), peniko::Format::Rgba8, instance.instance.data().width(), instance.instance.data().height()).with_extend(peniko::Extend::Repeat);

			let id = image.data.id();
			context.resource_overrides.insert(id, instance.instance.data_owned());

			render_stuff(image, *instance.transform, *instance.alpha_blending);
		}
	}

	fn collect_metadata(&self, metadata: &mut RenderMetadata, footprint: Footprint, element_id: Option<NodeId>) {
		let Some(element_id) = element_id else { return };
		let subpath = Subpath::new_rect(DVec2::ZERO, DVec2::ONE);

		metadata.click_targets.insert(element_id, vec![ClickTarget::new_with_subpath(subpath, 0.)]);
		metadata.upstream_footprints.insert(element_id, footprint);
		// TODO: Find a way to handle more than one row of the graphical data table
		if let Some(image) = self.instance_ref_iter().next() {
			metadata.local_transforms.insert(element_id, *image.transform);
		}
	}

	fn add_upstream_click_targets(&self, click_targets: &mut Vec<ClickTarget>) {
		let subpath = Subpath::new_rect(DVec2::ZERO, DVec2::ONE);
		click_targets.push(ClickTarget::new_with_subpath(subpath, 0.));
	}
}

impl GraphicElementRendered for GraphicElement {
	fn render_svg(&self, render: &mut SvgRender, render_params: &RenderParams) {
		match self {
			GraphicElement::VectorData(vector_data) => vector_data.render_svg(render, render_params),
			GraphicElement::RasterDataCPU(raster) => raster.render_svg(render, render_params),
			GraphicElement::RasterDataGPU(_raster) => (),
			GraphicElement::GraphicGroup(graphic_group) => graphic_group.render_svg(render, render_params),
		}
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, scene: &mut Scene, transform: DAffine2, context: &mut RenderContext, render_params: &RenderParams) {
		match self {
			GraphicElement::VectorData(vector_data) => vector_data.render_to_vello(scene, transform, context, render_params),
			GraphicElement::RasterDataCPU(raster) => raster.render_to_vello(scene, transform, context, render_params),
			GraphicElement::RasterDataGPU(raster) => raster.render_to_vello(scene, transform, context, render_params),
			GraphicElement::GraphicGroup(graphic_group) => graphic_group.render_to_vello(scene, transform, context, render_params),
		}
	}

	fn collect_metadata(&self, metadata: &mut RenderMetadata, footprint: Footprint, element_id: Option<NodeId>) {
		if let Some(element_id) = element_id {
			match self {
				GraphicElement::GraphicGroup(_) => {
					metadata.upstream_footprints.insert(element_id, footprint);
				}
				GraphicElement::VectorData(vector_data) => {
					metadata.upstream_footprints.insert(element_id, footprint);
					// TODO: Find a way to handle more than one row of the graphical data table
					if let Some(vector_data) = vector_data.instance_ref_iter().next() {
						metadata.local_transforms.insert(element_id, *vector_data.transform);
					}
				}
				GraphicElement::RasterDataCPU(raster_frame) => {
					metadata.upstream_footprints.insert(element_id, footprint);

					// TODO: Find a way to handle more than one row of images
					if let Some(image) = raster_frame.instance_ref_iter().next() {
						metadata.local_transforms.insert(element_id, *image.transform);
					}
				}
				GraphicElement::RasterDataGPU(raster_frame) => {
					metadata.upstream_footprints.insert(element_id, footprint);

					// TODO: Find a way to handle more than one row of images
					if let Some(image) = raster_frame.instance_ref_iter().next() {
						metadata.local_transforms.insert(element_id, *image.transform);
					}
				}
			}
		}

		match self {
			GraphicElement::VectorData(vector_data) => vector_data.collect_metadata(metadata, footprint, element_id),
			GraphicElement::RasterDataCPU(raster) => raster.collect_metadata(metadata, footprint, element_id),
			GraphicElement::RasterDataGPU(raster) => raster.collect_metadata(metadata, footprint, element_id),
			GraphicElement::GraphicGroup(graphic_group) => graphic_group.collect_metadata(metadata, footprint, element_id),
		}
	}

	fn add_upstream_click_targets(&self, click_targets: &mut Vec<ClickTarget>) {
		match self {
			GraphicElement::VectorData(vector_data) => vector_data.add_upstream_click_targets(click_targets),
			GraphicElement::RasterDataCPU(raster) => raster.add_upstream_click_targets(click_targets),
			GraphicElement::RasterDataGPU(raster) => raster.add_upstream_click_targets(click_targets),
			GraphicElement::GraphicGroup(graphic_group) => graphic_group.add_upstream_click_targets(click_targets),
		}
	}

	fn contains_artboard(&self) -> bool {
		match self {
			GraphicElement::VectorData(vector_data) => vector_data.contains_artboard(),
			GraphicElement::GraphicGroup(graphic_group) => graphic_group.contains_artboard(),
			GraphicElement::RasterDataCPU(raster) => raster.contains_artboard(),
			GraphicElement::RasterDataGPU(raster) => raster.contains_artboard(),
		}
	}

	fn new_ids_from_hash(&mut self, reference: Option<NodeId>) {
		match self {
			GraphicElement::VectorData(vector_data) => vector_data.new_ids_from_hash(reference),
			GraphicElement::GraphicGroup(graphic_group) => graphic_group.new_ids_from_hash(reference),
			GraphicElement::RasterDataCPU(_) => (),
			GraphicElement::RasterDataGPU(_) => (),
		}
	}
}

/// Used to stop rust complaining about upstream traits adding display implementations to `Option<Color>`. This would not be an issue as we control that crate.
trait Primitive: std::fmt::Display + BoundingBox {}
impl Primitive for String {}
impl Primitive for bool {}
impl Primitive for f32 {}
impl Primitive for f64 {}
impl Primitive for DVec2 {}

fn text_attributes(attributes: &mut SvgRenderAttrs) {
	attributes.push("fill", "white");
	attributes.push("y", "30");
	attributes.push("font-size", "30");
}

impl<P: Primitive> GraphicElementRendered for P {
	fn render_svg(&self, render: &mut SvgRender, _render_params: &RenderParams) {
		render.parent_tag("text", text_attributes, |render| render.leaf_node(format!("{self}")));
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, _scene: &mut Scene, _transform: DAffine2, _context: &mut RenderContext, _render_params: &RenderParams) {}
}

impl GraphicElementRendered for Option<Color> {
	fn render_svg(&self, render: &mut SvgRender, _render_params: &RenderParams) {
		let Some(color) = self else {
			render.parent_tag("text", |_| {}, |render| render.leaf_node("Empty color"));
			return;
		};
		let color_info = format!("{:?} #{} {:?}", color, color.to_rgba_hex_srgb(), color.to_rgba8_srgb());

		render.leaf_tag("rect", |attributes| {
			attributes.push("width", "100");
			attributes.push("height", "100");
			attributes.push("y", "40");
			attributes.push("fill", format!("#{}", color.to_rgb_hex_srgb_from_gamma()));
			if color.a() < 1. {
				attributes.push("fill-opacity", ((color.a() * 1000.).round() / 1000.).to_string());
			}
		});
		render.parent_tag("text", text_attributes, |render| render.leaf_node(color_info))
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, _scene: &mut Scene, _transform: DAffine2, _context: &mut RenderContext, _render_params: &RenderParams) {}
}

impl GraphicElementRendered for Vec<Color> {
	fn render_svg(&self, render: &mut SvgRender, _render_params: &RenderParams) {
		for (index, &color) in self.iter().enumerate() {
			render.leaf_tag("rect", |attributes| {
				attributes.push("width", "100");
				attributes.push("height", "100");
				attributes.push("x", (index * 120).to_string());
				attributes.push("y", "40");
				attributes.push("fill", format!("#{}", color.to_rgb_hex_srgb_from_gamma()));
				if color.a() < 1. {
					attributes.push("fill-opacity", ((color.a() * 1000.).round() / 1000.).to_string());
				}
			});
		}
	}

	#[cfg(feature = "vello")]
	fn render_to_vello(&self, _scene: &mut Scene, _transform: DAffine2, _context: &mut RenderContext, _render_params: &RenderParams) {}
}

#[derive(Debug, Clone, PartialEq, Eq)]
pub enum SvgSegment {
	Slice(&'static str),
	String(String),
}

impl From<String> for SvgSegment {
	fn from(value: String) -> Self {
		Self::String(value)
	}
}

impl From<&'static str> for SvgSegment {
	fn from(value: &'static str) -> Self {
		Self::Slice(value)
	}
}

pub trait RenderSvgSegmentList {
	fn to_svg_string(&self) -> String;
}

impl RenderSvgSegmentList for Vec<SvgSegment> {
	fn to_svg_string(&self) -> String {
		let mut result = String::new();
		for segment in self.iter() {
			result.push_str(match segment {
				SvgSegment::Slice(x) => x,
				SvgSegment::String(x) => x,
			});
		}
		result
	}
}

pub struct SvgRenderAttrs<'a>(&'a mut SvgRender);

impl SvgRenderAttrs<'_> {
	pub fn push_complex(&mut self, name: impl Into<SvgSegment>, value: impl FnOnce(&mut SvgRender)) {
		self.0.svg.push(" ".into());
		self.0.svg.push(name.into());
		self.0.svg.push("=\"".into());
		value(self.0);
		self.0.svg.push("\"".into());
	}
	pub fn push(&mut self, name: impl Into<SvgSegment>, value: impl Into<SvgSegment>) {
		self.push_complex(name, move |renderer| renderer.svg.push(value.into()));
	}
	pub fn push_val(&mut self, value: impl Into<SvgSegment>) {
		self.0.svg.push(value.into());
	}
}