udpate sick
This commit is contained in:
Dongho Kim
@@ -269,12 +269,28 @@ async fn main() -> Result<()> {
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if is_highway || treat_as_water_line {
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// Generate road geometry
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let projected_points: Vec<[f32; 2]> = simplified_points.iter()
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let projected_points_raw: Vec<[f32; 2]> = simplified_points.iter()
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.map(|(lat, lon)| {
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let (x, y) = GeometryService::project(*lat, *lon);
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[x, y]
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})
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.collect();
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// Fix degenerate segments: Deduplicate consecutive points that are too close
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let mut projected_points = Vec::with_capacity(projected_points_raw.len());
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if !projected_points_raw.is_empty() {
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projected_points.push(projected_points_raw[0]);
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for i in 1..projected_points_raw.len() {
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let prev = projected_points.last().unwrap();
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let curr = projected_points_raw[i];
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let dx = curr[0] - prev[0];
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let dy = curr[1] - prev[1];
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// 1.0e-11 is approx (3e-6)^2, which ensures we are safely above the 1e-6 degenerate threshold
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if (dx * dx + dy * dy) > 1.0e-11 {
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projected_points.push(curr);
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}
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}
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}
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let highway_tag = tags.get("highway").map(|s| s.as_str());
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let road_type = match highway_tag.unwrap_or("") {
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@@ -293,20 +309,67 @@ async fn main() -> Result<()> {
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.and_then(|s| s.parse().ok())
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.unwrap_or(default_lanes);
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// DEBUG: Log first way to validate mesh generation
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if way_count == 1 {
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println!("DEBUG Way {}: {} projected points, generating mesh...", id, projected_points.len());
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// DEBUG: Enable verbose logging for specific way ID via environment variable
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let debug_way_id: Option<i64> = std::env::var("DEBUG_WAY_ID")
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.ok()
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.and_then(|s| s.parse().ok());
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if debug_way_id == Some(id) {
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println!("DEBUG Way {}: Processing at zoom {}", id, zoom);
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println!(" - is_highway: {}", is_highway);
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println!(" - treat_as_water_line: {}", treat_as_water_line);
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println!(" - is_water_line: {}", is_water_line);
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println!(" - is_water_area: {}", is_water_area);
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println!(" - Original points: {}", points.len());
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println!(" - Simplified points: {}", simplified_points.len());
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println!(" - Projected points: {}", projected_points.len());
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println!(" - First 5 simplified (lat/lon):");
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for (i, p) in simplified_points.iter().take(5).enumerate() {
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println!(" [{:2}] lat={:.8}, lon={:.8}", i, p.0, p.1);
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}
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println!(" - First 5 projected (x/y):");
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for (i, p) in projected_points.iter().take(5).enumerate() {
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println!(" [{:2}] x={:.8}, y={:.8}", i, p[0], p[1]);
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}
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// Check for consecutive duplicates
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let mut duplicates = 0;
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for i in 0..projected_points.len().saturating_sub(1) {
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let p1 = projected_points[i];
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let p2 = projected_points[i + 1];
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let dx = p2[0] - p1[0];
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let dy = p2[1] - p1[1];
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let dist = (dx * dx + dy * dy).sqrt();
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if dist < 0.000001 {
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duplicates += 1;
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if duplicates <= 3 {
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println!(" DEGENERATE segment {}: dist={:.12}, p1=[{:.8},{:.8}], p2=[{:.8},{:.8}]",
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i, dist, p1[0], p1[1], p2[0], p2[1]);
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}
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}
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}
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if duplicates > 0 {
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println!(" - Total degenerate segments: {}/{}", duplicates, projected_points.len() - 1);
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}
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println!(" - Tags: {:?}", tags);
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}
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let vertex_buffer = if treat_as_water_line {
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if debug_way_id == Some(id) {
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println!(" - Using generate_polygon_geometry for water line");
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}
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mesh_svc.generate_polygon_geometry(&projected_points)
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} else {
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if debug_way_id == Some(id) {
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println!(" - Using generate_road_geometry with lanes={}, road_type={}", lanes, road_type);
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}
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mesh_svc.generate_road_geometry(&projected_points, lanes, road_type)
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};
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// DEBUG: Log buffer size
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if way_count == 1 {
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println!("DEBUG Way {}: vertex_buffer size = {} bytes", id, vertex_buffer.len());
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// DEBUG: Log buffer size for tracked way
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if debug_way_id == Some(id) {
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println!(" - vertex_buffer size = {} bytes", vertex_buffer.len());
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println!(" - Expected vertex size: {} bytes", if treat_as_water_line { 8 } else { 24 });
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}
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let task = DbTask::Way {
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@@ -358,27 +421,58 @@ async fn main() -> Result<()> {
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}
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if treat_as_water_area {
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// Generate water polygon mesh
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let projected_points: Vec<[f32; 2]> = final_points.iter()
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.map(|(lat, lon)| {
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let (x, y) = GeometryService::project(*lat, *lon);
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[x, y]
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})
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.collect();
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// Calculate bounding box for multi-tile insertion
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let mut min_lat = f64::MAX;
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let mut max_lat = f64::MIN;
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let mut min_lon = f64::MAX;
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let mut max_lon = f64::MIN;
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let vertex_buffer = mesh_svc.generate_polygon_geometry(&projected_points);
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for (lat, lon) in &final_points {
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if *lat < min_lat { min_lat = *lat; }
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if *lat > max_lat { max_lat = *lat; }
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if *lon < min_lon { min_lon = *lon; }
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if *lon > max_lon { max_lon = *lon; }
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}
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let task = DbTask::Way {
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zoom: zoom_i32,
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table: "water",
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id,
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tags: tags.clone(),
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points: polygon_blob.clone(),
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vertex_buffer,
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x,
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y
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};
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let _ = tx.blocking_send(task);
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// Get tiles covered by bounding box
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let (min_tile_x, min_tile_y) = TileService::lat_lon_to_tile(min_lat, min_lon, zoom);
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let (max_tile_x, max_tile_y) = TileService::lat_lon_to_tile(max_lat, max_lon, zoom);
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// Iterate over all tiles in bbox
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for tile_x in min_tile_x..=max_tile_x {
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for tile_y in min_tile_y..=max_tile_y {
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// Calculate tile origin and scale for relative coordinates
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let tile_count = 2_f64.powi(zoom as i32);
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let tile_size = 1.0 / tile_count;
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let tile_origin_x = tile_x as f64 * tile_size;
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let tile_origin_y = tile_y as f64 * tile_size;
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// Project points to global space then make relative to this tile
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let projected_points: Vec<[f32; 2]> = final_points.iter()
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.map(|(lat, lon)| {
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let (global_x, global_y) = GeometryService::project(*lat, *lon);
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// Convert to tile-relative (0..1 within tile)
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let relative_x = ((global_x as f64 - tile_origin_x) / tile_size) as f32;
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let relative_y = ((global_y as f64 - tile_origin_y) / tile_size) as f32;
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[relative_x, relative_y]
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})
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.collect();
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let vertex_buffer = mesh_svc.generate_polygon_geometry(&projected_points);
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let task = DbTask::Way {
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zoom: zoom_i32,
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table: "water",
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id,
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tags: tags.clone(),
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points: polygon_blob.clone(),
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vertex_buffer,
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x: tile_x,
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y: tile_y,
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};
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let _ = tx.blocking_send(task);
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}
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}
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}
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if treat_as_landuse {
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@@ -434,8 +528,11 @@ async fn main() -> Result<()> {
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if let Some(line_ref) = tags.get("ref") {
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// Only propagate S-Bahn/U-Bahn style refs (starts with S or U followed by digit)
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if (line_ref.starts_with('S') || line_ref.starts_with('U')) && line_ref.len() >= 2 {
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let member_count = rel.members().filter(|m| matches!(m.member_type, osmpbf::RelMemberType::Way)).count();
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println!("DEBUG: Found transit line ref '{}' with {} way members", line_ref, member_count);
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// Only log if verbose debugging is enabled
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if std::env::var("VERBOSE_DEBUG").is_ok() {
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let member_count = rel.members().filter(|m| matches!(m.member_type, osmpbf::RelMemberType::Way)).count();
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println!("DEBUG: Found transit line ref '{}' with {} way members", line_ref, member_count);
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}
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for member in rel.members() {
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if let osmpbf::RelMemberType::Way = member.member_type {
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railway_store.set_ref(member.member_id, line_ref.clone());
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@@ -497,27 +594,81 @@ async fn main() -> Result<()> {
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let table = if is_water { "water" } else { "landuse" };
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// Generate polygon mesh for multipolygons
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let projected_points: Vec<[f32; 2]> = final_points.iter()
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.map(|(lat, lon)| {
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let (x, y) = GeometryService::project(*lat, *lon);
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[x, y]
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})
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.collect();
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let vertex_buffer = mesh_svc.generate_polygon_geometry(&projected_points);
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let task = DbTask::Way {
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zoom: zoom_i32,
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table,
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id,
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tags: tags.clone(),
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points: polygon_blob.clone(),
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vertex_buffer,
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x,
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y
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};
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let _ = tx.blocking_send(task);
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// For water, use multi-tile insertion with tile-relative coords
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if is_water {
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// Calculate bounding box
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let mut min_lat = f64::MAX;
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let mut max_lat = f64::MIN;
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let mut min_lon = f64::MAX;
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let mut max_lon = f64::MIN;
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for (lat, lon) in &final_points {
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if *lat < min_lat { min_lat = *lat; }
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if *lat > max_lat { max_lat = *lat; }
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if *lon < min_lon { min_lon = *lon; }
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if *lon > max_lon { max_lon = *lon; }
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}
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let (min_tile_x, min_tile_y) = TileService::lat_lon_to_tile(min_lat, min_lon, zoom);
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let (max_tile_x, max_tile_y) = TileService::lat_lon_to_tile(max_lat, max_lon, zoom);
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// Iterate over all tiles
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for tile_x in min_tile_x..=max_tile_x {
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for tile_y in min_tile_y..=max_tile_y {
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let tile_count = 2_f64.powi(zoom as i32);
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let tile_size = 1.0 / tile_count;
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let tile_origin_x = tile_x as f64 * tile_size;
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let tile_origin_y = tile_y as f64 * tile_size;
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let projected_points: Vec<[f32; 2]> = final_points.iter()
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.map(|(lat, lon)| {
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let (global_x, global_y) = GeometryService::project(*lat, *lon);
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let relative_x = ((global_x as f64 - tile_origin_x) / tile_size) as f32;
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let relative_y = ((global_y as f64 - tile_origin_y) / tile_size) as f32;
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[relative_x, relative_y]
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})
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.collect();
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let vertex_buffer = mesh_svc.generate_polygon_geometry(&projected_points);
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let task = DbTask::Way {
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zoom: zoom_i32,
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table,
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id,
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tags: tags.clone(),
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points: polygon_blob.clone(),
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vertex_buffer,
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x: tile_x,
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y: tile_y,
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};
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let _ = tx.blocking_send(task);
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}
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}
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} else {
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// Landuse: keep old single-tile logic for now
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let (x, y) = TileService::lat_lon_to_tile(first_lat, first_lon, zoom);
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let projected_points: Vec<[f32; 2]> = final_points.iter()
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.map(|(lat, lon)| {
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let (x, y) = GeometryService::project(*lat, *lon);
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[x, y]
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})
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.collect();
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let vertex_buffer = mesh_svc.generate_polygon_geometry(&projected_points);
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let task = DbTask::Way {
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zoom: zoom_i32,
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table,
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id,
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tags: tags.clone(),
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points: polygon_blob.clone(),
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vertex_buffer,
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x,
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y,
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};
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let _ = tx.blocking_send(task);
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}
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}
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}
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}
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