17506959295

Committed 05 Sep 2025 11:49PM UTC coverage: 31.007% (-0.2%) from 31.246%

Build # 17506959295

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github

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Xevion

Commit Message

feat: re-implement CustomFormatter to clone Full formatterr

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/src/systems/debug.rs

//! Debug rendering system
use std::cmp::Ordering;

use crate::constants::{self, BOARD_PIXEL_OFFSET};
use crate::map::builder::Map;
use crate::systems::{Collider, CursorPosition, NodeId, Position, SystemTimings};
use crate::texture::ttf::{TtfAtlas, TtfRenderer};
use bevy_ecs::resource::Resource;
use bevy_ecs::system::{Query, Res};
use glam::{IVec2, Vec2};
use sdl2::pixels::Color;
use sdl2::rect::{Point, Rect};
use sdl2::render::{Canvas, Texture};
use sdl2::video::Window;
use smallvec::SmallVec;
use std::collections::{HashMap, HashSet};
use tracing::warn;

#[derive(Resource, Default, Debug, Copy, Clone)]
pub struct DebugState {
    pub enabled: bool,
}

fn f32_to_u8(value: f32) -> u8 {
    (value * 255.0) as u8
}

/// Resource to hold the debug texture for persistent rendering
pub struct DebugTextureResource(pub Texture);

/// Resource to hold the TTF text atlas
pub struct TtfAtlasResource(pub TtfAtlas);

/// Resource to hold pre-computed batched line segments
#[derive(Resource, Default, Debug, Clone)]
pub struct BatchedLinesResource {
    horizontal_lines: Vec<(i32, i32, i32)>, // (y, x_start, x_end)
    vertical_lines: Vec<(i32, i32, i32)>,   // (x, y_start, y_end)
}

impl BatchedLinesResource {
    /// Computes and caches batched line segments for the map graph
    pub fn new(map: &Map, scale: f32) -> Self {
        let mut horizontal_segments: HashMap<i32, Vec<(i32, i32)>> = HashMap::new();
        let mut vertical_segments: HashMap<i32, Vec<(i32, i32)>> = HashMap::new();
        let mut processed_edges: HashSet<(u16, u16)> = HashSet::new();

        // Process all edges and group them by axis
        for (start_node_id, edge) in map.graph.edges() {
            // Acquire a stable key for the edge (from < to)
            let edge_key = (start_node_id.min(edge.target), start_node_id.max(edge.target));

            // Skip if we've already processed this edge in the reverse direction
            if processed_edges.contains(&edge_key) {
                continue;
            }
            processed_edges.insert(edge_key);

            let start_pos = map.graph.get_node(start_node_id).unwrap().position;
            let end_pos = map.graph.get_node(edge.target).unwrap().position;

            let start = transform_position_with_offset(start_pos, scale);
            let end = transform_position_with_offset(end_pos, scale);

            // Determine if this is a horizontal or vertical line
            if (start.y - end.y).abs() < 2 {
                // Horizontal line (allowing for slight vertical variance)
                let y = start.y;
                let x_min = start.x.min(end.x);
                let x_max = start.x.max(end.x);
                horizontal_segments.entry(y).or_default().push((x_min, x_max));
            } else if (start.x - end.x).abs() < 2 {
                // Vertical line (allowing for slight horizontal variance)
                let x = start.x;
                let y_min = start.y.min(end.y);
                let y_max = start.y.max(end.y);
                vertical_segments.entry(x).or_default().push((y_min, y_max));
            }
        }

        /// Merges overlapping or adjacent segments into continuous lines
        fn merge_segments(segments: Vec<(i32, i32)>) -> Vec<(i32, i32)> {
            if segments.is_empty() {
                return Vec::new();
            }

            let mut merged = Vec::new();
            let mut current_start = segments[0].0;
            let mut current_end = segments[0].1;

            for &(start, end) in segments.iter().skip(1) {
                if start <= current_end + 1 {
                    // Adjacent or overlapping
                    current_end = current_end.max(end);
                } else {
                    merged.push((current_start, current_end));
                    current_start = start;
                    current_end = end;
                }
            }

            merged.push((current_start, current_end));
            merged
        }

        // Convert to flat vectors for fast iteration during rendering
        let horizontal_lines = horizontal_segments
            .into_iter()
            .flat_map(|(y, mut segments)| {
                segments.sort_unstable_by_key(|(start, _)| *start);
                let merged = merge_segments(segments);
                merged.into_iter().map(move |(x_start, x_end)| (y, x_start, x_end))
            })
            .collect::<Vec<_>>();

        let vertical_lines = vertical_segments
            .into_iter()
            .flat_map(|(x, mut segments)| {
                segments.sort_unstable_by_key(|(start, _)| *start);
                let merged = merge_segments(segments);
                merged.into_iter().map(move |(y_start, y_end)| (x, y_start, y_end))
            })
            .collect::<Vec<_>>();

        Self {
            horizontal_lines,
            vertical_lines,
        }
    }

    pub fn render(&self, canvas: &mut Canvas<Window>) {
        // Render horizontal lines
        for &(y, x_start, x_end) in &self.horizontal_lines {
            let points = [Point::new(x_start, y), Point::new(x_end, y)];
            let _ = canvas.draw_lines(&points[..]);
        }

        // Render vertical lines
        for &(x, y_start, y_end) in &self.vertical_lines {
            let points = [Point::new(x, y_start), Point::new(x, y_end)];
            let _ = canvas.draw_lines(&points[..]);
        }
    }
}

/// Transforms a position from logical canvas coordinates to output canvas coordinates (with board offset)
fn transform_position_with_offset(pos: Vec2, scale: f32) -> IVec2 {
    ((pos + BOARD_PIXEL_OFFSET.as_vec2()) * scale).as_ivec2()
}

/// Renders timing information in the top-left corner of the screen using the debug text atlas
fn render_timing_display(
    canvas: &mut Canvas<Window>,
    timings: &SystemTimings,
    current_tick: u64,
    text_renderer: &TtfRenderer,
    atlas: &mut TtfAtlas,
) {
    // Format timing information using the formatting module
    let lines = timings.format_timing_display(current_tick);
    let line_height = text_renderer.text_height(atlas) as i32 + 2; // Add 2px line spacing
    let padding = 10;

    // Calculate background dimensions
    let max_width = lines
        .iter()
        .filter(|l| !l.is_empty()) // Don't consider empty lines for width
        .map(|line| text_renderer.text_width(atlas, line))
        .max()
        .unwrap_or(0);

    // Only draw background if there is text to display
    let total_height = (lines.len() as u32) * line_height as u32;
    if max_width > 0 && total_height > 0 {
        let bg_padding = 5;

        // Draw background
        let bg_rect = Rect::new(
            padding - bg_padding,
            padding - bg_padding,
            max_width + (bg_padding * 2) as u32,
            total_height + bg_padding as u32,
        );
        canvas.set_blend_mode(sdl2::render::BlendMode::Blend);
        canvas.set_draw_color(Color::RGBA(40, 40, 40, 180));
        canvas.fill_rect(bg_rect).unwrap();
    }

    for (i, line) in lines.iter().enumerate() {
        if line.is_empty() {
            continue;
        }

        // Position each line below the previous one
        let y_pos = padding + (i as i32 * line_height);
        let position = Vec2::new(padding as f32, y_pos as f32);

        // Render the line using the debug text renderer
        text_renderer
            .render_text(canvas, atlas, line, position, Color::RGBA(255, 255, 255, 200))
            .unwrap();
    }
}

#[allow(clippy::too_many_arguments)]
pub fn debug_render_system(
    canvas: &mut Canvas<Window>,
    ttf_atlas: &mut TtfAtlasResource,
    batched_lines: &Res<BatchedLinesResource>,
    debug_state: &Res<DebugState>,
    timings: &Res<SystemTimings>,
    timing: &Res<crate::systems::profiling::Timing>,
    map: &Res<Map>,
    colliders: &Query<(&Collider, &Position)>,
    cursor: &Res<CursorPosition>,
) {
    if !debug_state.enabled {
        return;
    }
    // Create debug text renderer
    let text_renderer = TtfRenderer::new(1.0);

    let cursor_world_pos = match &**cursor {
        CursorPosition::None => None,
        CursorPosition::Some { position, .. } => Some(position - BOARD_PIXEL_OFFSET.as_vec2()),
    };

    // Clear the debug canvas
    canvas.set_draw_color(Color::RGBA(0, 0, 0, 0));
    canvas.clear();

    // Find the closest node to the cursor
    let closest_node = if let Some(cursor_world_pos) = cursor_world_pos {
        map.graph
            .nodes()
            .map(|node| node.position.distance(cursor_world_pos))
            .enumerate()
            .min_by(|(_, a), (_, b)| a.partial_cmp(b).unwrap_or(Ordering::Less))
            .map(|(id, _)| id)
    } else {
        None
    };

    canvas.set_draw_color(Color::GREEN);
    {
        let rects = colliders
            .iter()
            .map(|(collider, position)| {
                let pos = position.get_pixel_position(&map.graph).unwrap();

                // Transform position and size using common methods
                let pos = (pos * constants::LARGE_SCALE).as_ivec2();
                let size = (collider.size * constants::LARGE_SCALE) as u32;

                Rect::from_center(Point::from((pos.x, pos.y)), size, size)
            })
            .collect::<SmallVec<[Rect; 100]>>();
        if rects.len() > rects.capacity() {
            warn!(
                capacity = rects.capacity(),
                count = rects.len(),
                "Collider rects capacity exceeded"
            );
        }
        canvas.draw_rects(&rects).unwrap();
    }

    canvas.set_draw_color(Color {
        a: f32_to_u8(0.6),
        ..Color::RED
    });
    canvas.set_blend_mode(sdl2::render::BlendMode::Blend);

    // Use cached batched line segments
    batched_lines.render(canvas);

    {
        let rects: Vec<_> = map
            .graph
            .nodes()
            .enumerate()
            .filter_map(|(id, node)| {
                let pos = transform_position_with_offset(node.position, constants::LARGE_SCALE);
                let size = (2.0 * constants::LARGE_SCALE) as u32;
                let rect = Rect::new(pos.x - (size as i32 / 2), pos.y - (size as i32 / 2), size, size);

                // If the node is the one closest to the cursor, draw it immediately
                if closest_node == Some(id) {
                    canvas.set_draw_color(Color::YELLOW);
                    canvas.fill_rect(rect).unwrap();
                    return None;
                }

                Some(rect)
            })
            .collect();

        if rects.len() > rects.capacity() {
            warn!(
                capacity = rects.capacity(),
                count = rects.len(),
                "Node rects capacity exceeded"
            );
        }

        // Draw the non-closest nodes all at once in blue
        canvas.set_draw_color(Color::BLUE);
        canvas.fill_rects(&rects).unwrap();
    }

    // Render node ID if a node is highlighted
    if let Some(closest_node_id) = closest_node {
        let node = map.graph.get_node(closest_node_id as NodeId).unwrap();
        let pos = transform_position_with_offset(node.position, constants::LARGE_SCALE);

        let node_id_text = closest_node_id.to_string();
        let text_pos = Vec2::new((pos.x + 10) as f32, (pos.y - 5) as f32);

        text_renderer
            .render_text(
                canvas,
                &mut ttf_atlas.0,
                &node_id_text,
                text_pos,
                Color {
                    a: f32_to_u8(0.9),
                    ..Color::WHITE
                },
            )
            .unwrap();
    }

    // Render timing information in the top-left corner
    // Use previous tick since current tick is incomplete (frame is still running)
    let current_tick = timing.get_current_tick();
    let previous_tick = current_tick.saturating_sub(1);
    render_timing_display(canvas, timings, previous_tick, &text_renderer, &mut ttf_atlas.0);
}

1	//! Debug rendering system
2	use std::cmp::Ordering;
3
4	use crate::constants::{self, BOARD_PIXEL_OFFSET};
5	use crate::map::builder::Map;
6	use crate::systems::{Collider, CursorPosition, NodeId, Position, SystemTimings};
7	use crate::texture::ttf::{TtfAtlas, TtfRenderer};
8	use bevy_ecs::resource::Resource;
9	use bevy_ecs::system::{Query, Res};
10	use glam::{IVec2, Vec2};
11	use sdl2::pixels::Color;
12	use sdl2::rect::{Point, Rect};
13	use sdl2::render::{Canvas, Texture};
14	use sdl2::video::Window;
15	use smallvec::SmallVec;
16	use std::collections::{HashMap, HashSet};
17	use tracing::warn;
18
19	#[derive(Resource, Default, Debug, Copy, Clone)]
20	pub struct DebugState {
21	pub enabled: bool,
22	}
23
24	fn f32_to_u8(value: f32) -> u8 {	×
25	(value * 255.0) as u8	×
26	}	×
27
28	/// Resource to hold the debug texture for persistent rendering
29	pub struct DebugTextureResource(pub Texture);
30
31	/// Resource to hold the TTF text atlas
32	pub struct TtfAtlasResource(pub TtfAtlas);
33
34	/// Resource to hold pre-computed batched line segments
35	#[derive(Resource, Default, Debug, Clone)]
36	pub struct BatchedLinesResource {
37	horizontal_lines: Vec<(i32, i32, i32)>, // (y, x_start, x_end)
38	vertical_lines: Vec<(i32, i32, i32)>, // (x, y_start, y_end)
39	}
40
41	impl BatchedLinesResource {
42	/// Computes and caches batched line segments for the map graph
43	pub fn new(map: &Map, scale: f32) -> Self {	×
44	let mut horizontal_segments: HashMap<i32, Vec<(i32, i32)>> = HashMap::new();	×
45	let mut vertical_segments: HashMap<i32, Vec<(i32, i32)>> = HashMap::new();	×
46	let mut processed_edges: HashSet<(u16, u16)> = HashSet::new();	×
47
48	// Process all edges and group them by axis
49	for (start_node_id, edge) in map.graph.edges() {	×
50	// Acquire a stable key for the edge (from < to)
51	let edge_key = (start_node_id.min(edge.target), start_node_id.max(edge.target));	×
52		×
53	// Skip if we've already processed this edge in the reverse direction	×
54	if processed_edges.contains(&edge_key) {	×
55	continue;	×
56	}	×
57	processed_edges.insert(edge_key);	×
58		×
59	let start_pos = map.graph.get_node(start_node_id).unwrap().position;	×
60	let end_pos = map.graph.get_node(edge.target).unwrap().position;	×
61		×
62	let start = transform_position_with_offset(start_pos, scale);	×
63	let end = transform_position_with_offset(end_pos, scale);	×
64		×
65	// Determine if this is a horizontal or vertical line	×
66	if (start.y - end.y).abs() < 2 {	×
67	// Horizontal line (allowing for slight vertical variance)	×
68	let y = start.y;	×
69	let x_min = start.x.min(end.x);	×
70	let x_max = start.x.max(end.x);	×
71	horizontal_segments.entry(y).or_default().push((x_min, x_max));	×
72	} else if (start.x - end.x).abs() < 2 {	×
73	// Vertical line (allowing for slight horizontal variance)	×
74	let x = start.x;	×
75	let y_min = start.y.min(end.y);	×
76	let y_max = start.y.max(end.y);	×
77	vertical_segments.entry(x).or_default().push((y_min, y_max));	×
78	}	×
79	}
80
81	/// Merges overlapping or adjacent segments into continuous lines
82	fn merge_segments(segments: Vec<(i32, i32)>) -> Vec<(i32, i32)> {	×
83	if segments.is_empty() {	×
84	return Vec::new();	×
85	}	×
86		×
87	let mut merged = Vec::new();	×
88	let mut current_start = segments[0].0;	×
89	let mut current_end = segments[0].1;	×
90
91	for &(start, end) in segments.iter().skip(1) {	×
92	if start <= current_end + 1 {	×
93	// Adjacent or overlapping	×
94	current_end = current_end.max(end);	×
95	} else {	×
96	merged.push((current_start, current_end));	×
97	current_start = start;	×
98	current_end = end;	×
99	}	×
100	}
101
102	merged.push((current_start, current_end));	×
103	merged	×
104	}	×
105
106	// Convert to flat vectors for fast iteration during rendering
107	let horizontal_lines = horizontal_segments	×
108	.into_iter()	×
109	.flat_map(\|(y, mut segments)\| {	×
110	segments.sort_unstable_by_key(\|(start, _)\| *start);	×
111	let merged = merge_segments(segments);	×
112	merged.into_iter().map(move \|(x_start, x_end)\| (y, x_start, x_end))	×
113	})	×
114	.collect::<Vec<_>>();	×
115		×
116	let vertical_lines = vertical_segments	×
117	.into_iter()	×
118	.flat_map(\|(x, mut segments)\| {	×
119	segments.sort_unstable_by_key(\|(start, _)\| *start);	×
120	let merged = merge_segments(segments);	×
121	merged.into_iter().map(move \|(y_start, y_end)\| (x, y_start, y_end))	×
122	})	×
123	.collect::<Vec<_>>();	×
124		×
125	Self {	×
126	horizontal_lines,	×
127	vertical_lines,	×
128	}	×
129	}	×
130
131	pub fn render(&self, canvas: &mut Canvas<Window>) {	×
132	// Render horizontal lines
133	for &(y, x_start, x_end) in &self.horizontal_lines {	×
134	let points = [Point::new(x_start, y), Point::new(x_end, y)];	×
135	let _ = canvas.draw_lines(&points[..]);	×
136	}	×
137
138	// Render vertical lines
139	for &(x, y_start, y_end) in &self.vertical_lines {	×
140	let points = [Point::new(x, y_start), Point::new(x, y_end)];	×
141	let _ = canvas.draw_lines(&points[..]);	×
142	}	×
143	}	×
144	}
145
146	/// Transforms a position from logical canvas coordinates to output canvas coordinates (with board offset)
147	fn transform_position_with_offset(pos: Vec2, scale: f32) -> IVec2 {	×
148	((pos + BOARD_PIXEL_OFFSET.as_vec2()) * scale).as_ivec2()	×
149	}	×
150
151	/// Renders timing information in the top-left corner of the screen using the debug text atlas
152	fn render_timing_display(	×
153	canvas: &mut Canvas<Window>,	×
154	timings: &SystemTimings,	×
155	current_tick: u64,	×
156	text_renderer: &TtfRenderer,	×
157	atlas: &mut TtfAtlas,	×
158	) {	×
159	// Format timing information using the formatting module	×
160	let lines = timings.format_timing_display(current_tick);	×
161	let line_height = text_renderer.text_height(atlas) as i32 + 2; // Add 2px line spacing	×
162	let padding = 10;	×
163		×
164	// Calculate background dimensions	×
165	let max_width = lines	×
166	.iter()	×
167	.filter(\|l\| !l.is_empty()) // Don't consider empty lines for width	×
168	.map(\|line\| text_renderer.text_width(atlas, line))	×
169	.max()	×
170	.unwrap_or(0);	×
171		×
172	// Only draw background if there is text to display	×
173	let total_height = (lines.len() as u32) * line_height as u32;	×
174	if max_width > 0 && total_height > 0 {	×
175	let bg_padding = 5;	×
176		×
177	// Draw background	×
178	let bg_rect = Rect::new(	×
179	padding - bg_padding,	×
180	padding - bg_padding,	×
181	max_width + (bg_padding * 2) as u32,	×
182	total_height + bg_padding as u32,	×
183	);	×
184	canvas.set_blend_mode(sdl2::render::BlendMode::Blend);	×
185	canvas.set_draw_color(Color::RGBA(40, 40, 40, 180));	×
186	canvas.fill_rect(bg_rect).unwrap();	×
UNCOV 187	}	×
188
189	for (i, line) in lines.iter().enumerate() {	×
190	if line.is_empty() {	×
191	continue;	×
192	}	×
193		×
194	// Position each line below the previous one	×
195	let y_pos = padding + (i as i32 * line_height);	×
196	let position = Vec2::new(padding as f32, y_pos as f32);	×
197		×
198	// Render the line using the debug text renderer	×
199	text_renderer	×
200	.render_text(canvas, atlas, line, position, Color::RGBA(255, 255, 255, 200))	×
UNCOV 201	.unwrap();	×
202	}
UNCOV 203	}	×
204
205	#[allow(clippy::too_many_arguments)]
206	pub fn debug_render_system(	×
207	canvas: &mut Canvas<Window>,	×
208	ttf_atlas: &mut TtfAtlasResource,	×
209	batched_lines: &Res<BatchedLinesResource>,	×
210	debug_state: &Res<DebugState>,	×
211	timings: &Res<SystemTimings>,	×
212	timing: &Res<crate::systems::profiling::Timing>,	×
213	map: &Res<Map>,	×
214	colliders: &Query<(&Collider, &Position)>,	×
215	cursor: &Res<CursorPosition>,	×
216	) {	×
217	if !debug_state.enabled {	×
218	return;	×
219	}	×
UNCOV 220	// Create debug text renderer	×
221	let text_renderer = TtfRenderer::new(1.0);	×
222
223	let cursor_world_pos = match &**cursor {	×
UNCOV 224	CursorPosition::None => None,	×
UNCOV 225	CursorPosition::Some { position, .. } => Some(position - BOARD_PIXEL_OFFSET.as_vec2()),	×
226	};
227
228	// Clear the debug canvas
UNCOV 229	canvas.set_draw_color(Color::RGBA(0, 0, 0, 0));	×
UNCOV 230	canvas.clear();	×
231
232	// Find the closest node to the cursor
233	let closest_node = if let Some(cursor_world_pos) = cursor_world_pos {	×
234	map.graph	×
235	.nodes()	×
236	.map(\|node\| node.position.distance(cursor_world_pos))	×
237	.enumerate()	×
UNCOV 238	.min_by(\|(_, a), (_, b)\| a.partial_cmp(b).unwrap_or(Ordering::Less))	×
239	.map(\|(id, _)\| id)	×
240	} else {
UNCOV 241	None	×
242	};
243
244	canvas.set_draw_color(Color::GREEN);	×
245	{	×
246	let rects = colliders	×
247	.iter()	×
248	.map(\|(collider, position)\| {	×
249	let pos = position.get_pixel_position(&map.graph).unwrap();	×
250		×
251	// Transform position and size using common methods	×
252	let pos = (pos * constants::LARGE_SCALE).as_ivec2();	×
253	let size = (collider.size * constants::LARGE_SCALE) as u32;	×
254		×
255	Rect::from_center(Point::from((pos.x, pos.y)), size, size)	×
256	})	×
257	.collect::<SmallVec<[Rect; 100]>>();	×
258	if rects.len() > rects.capacity() {	×
259	warn!(	×
260	capacity = rects.capacity(),	×
UNCOV 261	count = rects.len(),	×
262	"Collider rects capacity exceeded"	×
263	);
264	}	×
265	canvas.draw_rects(&rects).unwrap();	×
266	}	×
267		×
268	canvas.set_draw_color(Color {	×
269	a: f32_to_u8(0.6),	×
270	..Color::RED	×
271	});	×
272	canvas.set_blend_mode(sdl2::render::BlendMode::Blend);	×
273		×
274	// Use cached batched line segments	×
275	batched_lines.render(canvas);	×
276		×
277	{	×
278	let rects: Vec<_> = map	×
279	.graph	×
280	.nodes()	×
281	.enumerate()	×
282	.filter_map(\|(id, node)\| {	×
283	let pos = transform_position_with_offset(node.position, constants::LARGE_SCALE);	×
284	let size = (2.0 * constants::LARGE_SCALE) as u32;	×
285	let rect = Rect::new(pos.x - (size as i32 / 2), pos.y - (size as i32 / 2), size, size);	×
286		×
287	// If the node is the one closest to the cursor, draw it immediately	×
288	if closest_node == Some(id) {	×
289	canvas.set_draw_color(Color::YELLOW);	×
290	canvas.fill_rect(rect).unwrap();	×
291	return None;	×
292	}	×
293		×
294	Some(rect)	×
295	})	×
296	.collect();	×
297		×
298	if rects.len() > rects.capacity() {	×
299	warn!(	×
300	capacity = rects.capacity(),	×
UNCOV 301	count = rects.len(),	×
302	"Node rects capacity exceeded"	×
303	);
UNCOV 304	}	×
305
306	// Draw the non-closest nodes all at once in blue
UNCOV 307	canvas.set_draw_color(Color::BLUE);	×
UNCOV 308	canvas.fill_rects(&rects).unwrap();	×
309	}
310
311	// Render node ID if a node is highlighted
312	if let Some(closest_node_id) = closest_node {	×
313	let node = map.graph.get_node(closest_node_id as NodeId).unwrap();	×
314	let pos = transform_position_with_offset(node.position, constants::LARGE_SCALE);	×
315		×
316	let node_id_text = closest_node_id.to_string();	×
317	let text_pos = Vec2::new((pos.x + 10) as f32, (pos.y - 5) as f32);	×
318		×
319	text_renderer	×
320	.render_text(	×
321	canvas,	×
322	&mut ttf_atlas.0,	×
323	&node_id_text,	×
324	text_pos,	×
325	Color {	×
326	a: f32_to_u8(0.9),	×
327	..Color::WHITE	×
328	},	×
329	)	×
UNCOV 330	.unwrap();	×
UNCOV 331	}	×
332
333	// Render timing information in the top-left corner
334	// Use previous tick since current tick is incomplete (frame is still running)
UNCOV 335	let current_tick = timing.get_current_tick();	×
UNCOV 336	let previous_tick = current_tick.saturating_sub(1);	×
UNCOV 337	render_timing_display(canvas, timings, previous_tick, &text_renderer, &mut ttf_atlas.0);	×
UNCOV 338	}	×

Xevion / Pac-Man / 17506959295

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